Deck 8: The Arbitrage-Free Valuation Framework

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Question
The following information relates to Questions 1-6
katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training
session with alex Sun, a junior analyst in the fixed income department. black wants to ex-
plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with
exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify
the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis.
exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibit 1, the best action that an investor should take to profit from the arbitrage opportunity is to:</strong> A) buy on Frankfurt, sell on eurex. B) buy on nYSe euronext, sell on eurex. C) buy on Frankfurt, sell on nYSe euronext. <div style=padding-top: 35px> black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents
most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex-
hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free,
annual-pay bond with a 2.5% coupon based on the information in exhibit 3.
exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay
option-Free bonds
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibit 1, the best action that an investor should take to profit from the arbitrage opportunity is to:</strong> A) buy on Frankfurt, sell on eurex. B) buy on nYSe euronext, sell on eurex. C) buy on Frankfurt, sell on nYSe euronext. <div style=padding-top: 35px> exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibit 1, the best action that an investor should take to profit from the arbitrage opportunity is to:</strong> A) buy on Frankfurt, sell on eurex. B) buy on nYSe euronext, sell on eurex. C) buy on Frankfurt, sell on nYSe euronext. <div style=padding-top: 35px> exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond
based on exhibit 3
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibit 1, the best action that an investor should take to profit from the arbitrage opportunity is to:</strong> A) buy on Frankfurt, sell on eurex. B) buy on nYSe euronext, sell on eurex. C) buy on Frankfurt, sell on nYSe euronext. <div style=padding-top: 35px> black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the
following tasks related to those exhibits:
task 1 test that the binomial interest tree has been properly calibrated to be
arbitrage-free.
task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac-
curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of
the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second
lowest rate in Year 3.
task 3 identify a type of bond where the Monte Carlo calibration method should
be used in place of the binomial interest rate method.
task 4 update exhibit 3 to reflect the current volatility, which is now 15%.
based on exhibit 1, the best action that an investor should take to profit from the arbitrage opportunity is to:

A) buy on Frankfurt, sell on eurex.
B) buy on nYSe euronext, sell on eurex.
C) buy on Frankfurt, sell on nYSe euronext.
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Question
The following information relates to Questions 1-6
katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training
session with alex Sun, a junior analyst in the fixed income department. black wants to ex-
plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with
exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify
the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis.
exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. if the assumed volatility is changed as black requested in task 4, the forward rates shown in exhibit 3 will most likely:</strong> A) spread out. B) remain unchanged. C) converge to the spot rates. <div style=padding-top: 35px> black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents
most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex-
hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free,
annual-pay bond with a 2.5% coupon based on the information in exhibit 3.
exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay
option-Free bonds
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. if the assumed volatility is changed as black requested in task 4, the forward rates shown in exhibit 3 will most likely:</strong> A) spread out. B) remain unchanged. C) converge to the spot rates. <div style=padding-top: 35px> exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. if the assumed volatility is changed as black requested in task 4, the forward rates shown in exhibit 3 will most likely:</strong> A) spread out. B) remain unchanged. C) converge to the spot rates. <div style=padding-top: 35px> exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond
based on exhibit 3
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. if the assumed volatility is changed as black requested in task 4, the forward rates shown in exhibit 3 will most likely:</strong> A) spread out. B) remain unchanged. C) converge to the spot rates. <div style=padding-top: 35px> black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the
following tasks related to those exhibits:
task 1 test that the binomial interest tree has been properly calibrated to be
arbitrage-free.
task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac-
curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of
the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second
lowest rate in Year 3.
task 3 identify a type of bond where the Monte Carlo calibration method should
be used in place of the binomial interest rate method.
task 4 update exhibit 3 to reflect the current volatility, which is now 15%.
if the assumed volatility is changed as black requested in task 4, the forward rates shown in exhibit 3 will most likely:

A) spread out.
B) remain unchanged.
C) converge to the spot rates.
Question
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607. <div style=padding-top: 35px>
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607. <div style=padding-top: 35px>
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607. <div style=padding-top: 35px>
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607. <div style=padding-top: 35px>
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607. <div style=padding-top: 35px>
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607. <div style=padding-top: 35px>
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607. <div style=padding-top: 35px>
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:

A) 97.0322.
B) 102.8607.
C) 105.8607.
Question
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230. <div style=padding-top: 35px>
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230. <div style=padding-top: 35px>
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230. <div style=padding-top: 35px>
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230. <div style=padding-top: 35px>
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230. <div style=padding-top: 35px>
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230. <div style=padding-top: 35px>
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230. <div style=padding-top: 35px>
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
based on exhibits 3 and 4, the price for bond D is closest to:

A) 97.4785.
B) 103.3230.
C) 106.3230.
Question
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3 <div style=padding-top: 35px>
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3 <div style=padding-top: 35px>
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3 <div style=padding-top: 35px>
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3 <div style=padding-top: 35px>
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3 <div style=padding-top: 35px>
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3 <div style=padding-top: 35px>
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3 <div style=padding-top: 35px>
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
which of the various statements regarding binomial interest rate trees is correct?

A) Statement 1
B) Statement 2
C) Statement 3
Question
The following information relates to Questions 1-6
katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training
session with alex Sun, a junior analyst in the fixed income department. black wants to ex-
plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with
exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify
the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis.
exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibits 1 and 2, the exchange that reflects the arbitrage-free price of the bond is:</strong> A) eurex. B) Frankfurt. C) nYSe euronext. <div style=padding-top: 35px> black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents
most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex-
hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free,
annual-pay bond with a 2.5% coupon based on the information in exhibit 3.
exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay
option-Free bonds
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibits 1 and 2, the exchange that reflects the arbitrage-free price of the bond is:</strong> A) eurex. B) Frankfurt. C) nYSe euronext. <div style=padding-top: 35px> exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibits 1 and 2, the exchange that reflects the arbitrage-free price of the bond is:</strong> A) eurex. B) Frankfurt. C) nYSe euronext. <div style=padding-top: 35px> exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond
based on exhibit 3
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibits 1 and 2, the exchange that reflects the arbitrage-free price of the bond is:</strong> A) eurex. B) Frankfurt. C) nYSe euronext. <div style=padding-top: 35px> black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the
following tasks related to those exhibits:
task 1 test that the binomial interest tree has been properly calibrated to be
arbitrage-free.
task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac-
curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of
the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second
lowest rate in Year 3.
task 3 identify a type of bond where the Monte Carlo calibration method should
be used in place of the binomial interest rate method.
task 4 update exhibit 3 to reflect the current volatility, which is now 15%.
based on exhibits 1 and 2, the exchange that reflects the arbitrage-free price of the bond is:

A) eurex.
B) Frankfurt.
C) nYSe euronext.
Question
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255. <div style=padding-top: 35px>
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255. <div style=padding-top: 35px>
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255. <div style=padding-top: 35px>
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255. <div style=padding-top: 35px>
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255. <div style=padding-top: 35px>
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255. <div style=padding-top: 35px>
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255. <div style=padding-top: 35px>
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:

A) 97.1957.
B) 99.6255.
C) 102.1255.
Question
The following information relates to Questions 1-6
katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training
session with alex Sun, a junior analyst in the fixed income department. black wants to ex-
plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with
exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify
the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis.
exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. a benefit of performing task 1 is that it:</strong> A) enables the model to price bonds with embedded options. B) identifies benchmark bonds that have been mispriced by the market. C) allows investors to realize arbitrage profits through stripping and reconstitution. <div style=padding-top: 35px> black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents
most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex-
hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free,
annual-pay bond with a 2.5% coupon based on the information in exhibit 3.
exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay
option-Free bonds
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. a benefit of performing task 1 is that it:</strong> A) enables the model to price bonds with embedded options. B) identifies benchmark bonds that have been mispriced by the market. C) allows investors to realize arbitrage profits through stripping and reconstitution. <div style=padding-top: 35px> exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. a benefit of performing task 1 is that it:</strong> A) enables the model to price bonds with embedded options. B) identifies benchmark bonds that have been mispriced by the market. C) allows investors to realize arbitrage profits through stripping and reconstitution. <div style=padding-top: 35px> exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond
based on exhibit 3
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. a benefit of performing task 1 is that it:</strong> A) enables the model to price bonds with embedded options. B) identifies benchmark bonds that have been mispriced by the market. C) allows investors to realize arbitrage profits through stripping and reconstitution. <div style=padding-top: 35px> black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the
following tasks related to those exhibits:
task 1 test that the binomial interest tree has been properly calibrated to be
arbitrage-free.
task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac-
curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of
the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second
lowest rate in Year 3.
task 3 identify a type of bond where the Monte Carlo calibration method should
be used in place of the binomial interest rate method.
task 4 update exhibit 3 to reflect the current volatility, which is now 15%.
a benefit of performing task 1 is that it:

A) enables the model to price bonds with embedded options.
B) identifies benchmark bonds that have been mispriced by the market.
C) allows investors to realize arbitrage profits through stripping and reconstitution.
Question
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong. <div style=padding-top: 35px>
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong. <div style=padding-top: 35px>
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong. <div style=padding-top: 35px>
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong. <div style=padding-top: 35px>
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong. <div style=padding-top: 35px>
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong. <div style=padding-top: 35px>
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong. <div style=padding-top: 35px>
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:

A) Mumbai and sell it in hong kong.
B) hong kong and sell it in new York.
C) new York and sell it in hong kong.
Question
The following information relates to Questions
betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM).
SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage.
tatton is responsible for pricing individual investments and analyzing market data to assess the
opportunity for arbitrage. She uses two methods to value bonds:
Method 1: Discount each year's cash flow separately using the appropriate interest rate
curve.
Method 2: build and use a binomial interest rate tree.
tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds
will mature in two years, and tatton considers the bonds as being risk-free; both the one-year
and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and
identifies an arbitrage opportunity to recommend to her team.
exhibit 1 Market Data for Selected bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   Method 1 would most likely not be an appropriate valuation technique for the bond issued by:</strong> A) hutto-barkley inc. B) luna y estrellas intl. C) Peaton Scorpio Motors. <div style=padding-top: 35px>
next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage
opportunities of both option-free corporate bonds and corporate bonds with embedded op-
tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced
at par.
exhibit 2 benchmark Par Curve
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   Method 1 would most likely not be an appropriate valuation technique for the bond issued by:</strong> A) hutto-barkley inc. B) luna y estrellas intl. C) Peaton Scorpio Motors. <div style=padding-top: 35px>
tatton then identifies three mispriced three-year annual-pay bonds and compiles data on
the bonds (see exhibit 3).
exhibit 3 Market Data of annual-Pay Corporate bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   Method 1 would most likely not be an appropriate valuation technique for the bond issued by:</strong> A) hutto-barkley inc. B) luna y estrellas intl. C) Peaton Scorpio Motors. <div style=padding-top: 35px>
last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond
Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the
bonds' values, tatton devises the first three years of the interest rate lognormal tree presented
in exhibit 4 using historical interest rate volatility data. tatton considers how these data would
change if implied volatility, which is higher than historical volatility, were used instead.
exhibit 4 interest rate tree; Forward rates based on Swiss Market
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   Method 1 would most likely not be an appropriate valuation technique for the bond issued by:</strong> A) hutto-barkley inc. B) luna y estrellas intl. C) Peaton Scorpio Motors. <div style=padding-top: 35px>
Method 1 would most likely not be an appropriate valuation technique for the bond issued by:

A) hutto-barkley inc.
B) luna y estrellas intl.
C) Peaton Scorpio Motors.
Question
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%. <div style=padding-top: 35px>
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%. <div style=padding-top: 35px>
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%. <div style=padding-top: 35px>
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%. <div style=padding-top: 35px>
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%. <div style=padding-top: 35px>
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%. <div style=padding-top: 35px>
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%. <div style=padding-top: 35px>
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:

A) 3.5122%.
B) 3.5400%.
C) 4.8037%.
Question
The following information relates to Questions
betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM).
SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage.
tatton is responsible for pricing individual investments and analyzing market data to assess the
opportunity for arbitrage. She uses two methods to value bonds:
Method 1: Discount each year's cash flow separately using the appropriate interest rate
curve.
Method 2: build and use a binomial interest rate tree.
tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds
will mature in two years, and tatton considers the bonds as being risk-free; both the one-year
and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and
identifies an arbitrage opportunity to recommend to her team.
exhibit 1 Market Data for Selected bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 1, which of the following bonds most likely includes an arbitrage opportunity?</strong> A) bond a B) bond b C) bond C <div style=padding-top: 35px>
next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage
opportunities of both option-free corporate bonds and corporate bonds with embedded op-
tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced
at par.
exhibit 2 benchmark Par Curve
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 1, which of the following bonds most likely includes an arbitrage opportunity?</strong> A) bond a B) bond b C) bond C <div style=padding-top: 35px>
tatton then identifies three mispriced three-year annual-pay bonds and compiles data on
the bonds (see exhibit 3).
exhibit 3 Market Data of annual-Pay Corporate bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 1, which of the following bonds most likely includes an arbitrage opportunity?</strong> A) bond a B) bond b C) bond C <div style=padding-top: 35px>
last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond
Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the
bonds' values, tatton devises the first three years of the interest rate lognormal tree presented
in exhibit 4 using historical interest rate volatility data. tatton considers how these data would
change if implied volatility, which is higher than historical volatility, were used instead.
exhibit 4 interest rate tree; Forward rates based on Swiss Market
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 1, which of the following bonds most likely includes an arbitrage opportunity?</strong> A) bond a B) bond b C) bond C <div style=padding-top: 35px>
based on exhibit 1, which of the following bonds most likely includes an arbitrage opportunity?

A) bond a
B) bond b
C) bond C
Question
The following information relates to Questions
betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM).
SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage.
tatton is responsible for pricing individual investments and analyzing market data to assess the
opportunity for arbitrage. She uses two methods to value bonds:
Method 1: Discount each year's cash flow separately using the appropriate interest rate
curve.
Method 2: build and use a binomial interest rate tree.
tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds
will mature in two years, and tatton considers the bonds as being risk-free; both the one-year
and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and
identifies an arbitrage opportunity to recommend to her team.
exhibit 1 Market Data for Selected bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 4 and using Method 2, the correct price for bond x is closest to:</strong> A) 97.2998. B) 109.0085. C) 115.0085. <div style=padding-top: 35px>
next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage
opportunities of both option-free corporate bonds and corporate bonds with embedded op-
tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced
at par.
exhibit 2 benchmark Par Curve
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 4 and using Method 2, the correct price for bond x is closest to:</strong> A) 97.2998. B) 109.0085. C) 115.0085. <div style=padding-top: 35px>
tatton then identifies three mispriced three-year annual-pay bonds and compiles data on
the bonds (see exhibit 3).
exhibit 3 Market Data of annual-Pay Corporate bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 4 and using Method 2, the correct price for bond x is closest to:</strong> A) 97.2998. B) 109.0085. C) 115.0085. <div style=padding-top: 35px>
last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond
Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the
bonds' values, tatton devises the first three years of the interest rate lognormal tree presented
in exhibit 4 using historical interest rate volatility data. tatton considers how these data would
change if implied volatility, which is higher than historical volatility, were used instead.
exhibit 4 interest rate tree; Forward rates based on Swiss Market
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 4 and using Method 2, the correct price for bond x is closest to:</strong> A) 97.2998. B) 109.0085. C) 115.0085. <div style=padding-top: 35px>
based on exhibit 4 and using Method 2, the correct price for bond x is closest to:

A) 97.2998.
B) 109.0085.
C) 115.0085.
Question
The following information relates to Questions
betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM).
SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage.
tatton is responsible for pricing individual investments and analyzing market data to assess the
opportunity for arbitrage. She uses two methods to value bonds:
Method 1: Discount each year's cash flow separately using the appropriate interest rate
curve.
Method 2: build and use a binomial interest rate tree.
tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds
will mature in two years, and tatton considers the bonds as being risk-free; both the one-year
and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and
identifies an arbitrage opportunity to recommend to her team.
exhibit 1 Market Data for Selected bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibits 2 and 3 and using Method 1, the amount (in absolute terms) by which the hutto-barkley corporate bond is mispriced is closest to:</strong> A) 0.3368 per 100 of par value. B) 0.4682 per 100 of par value. C) 0.5156 per 100 of par value. <div style=padding-top: 35px>
next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage
opportunities of both option-free corporate bonds and corporate bonds with embedded op-
tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced
at par.
exhibit 2 benchmark Par Curve
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibits 2 and 3 and using Method 1, the amount (in absolute terms) by which the hutto-barkley corporate bond is mispriced is closest to:</strong> A) 0.3368 per 100 of par value. B) 0.4682 per 100 of par value. C) 0.5156 per 100 of par value. <div style=padding-top: 35px>
tatton then identifies three mispriced three-year annual-pay bonds and compiles data on
the bonds (see exhibit 3).
exhibit 3 Market Data of annual-Pay Corporate bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibits 2 and 3 and using Method 1, the amount (in absolute terms) by which the hutto-barkley corporate bond is mispriced is closest to:</strong> A) 0.3368 per 100 of par value. B) 0.4682 per 100 of par value. C) 0.5156 per 100 of par value. <div style=padding-top: 35px>
last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond
Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the
bonds' values, tatton devises the first three years of the interest rate lognormal tree presented
in exhibit 4 using historical interest rate volatility data. tatton considers how these data would
change if implied volatility, which is higher than historical volatility, were used instead.
exhibit 4 interest rate tree; Forward rates based on Swiss Market
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibits 2 and 3 and using Method 1, the amount (in absolute terms) by which the hutto-barkley corporate bond is mispriced is closest to:</strong> A) 0.3368 per 100 of par value. B) 0.4682 per 100 of par value. C) 0.5156 per 100 of par value. <div style=padding-top: 35px>
based on exhibits 2 and 3 and using Method 1, the amount (in absolute terms) by which the hutto-barkley corporate bond is mispriced is closest to:

A) 0.3368 per 100 of par value.
B) 0.4682 per 100 of par value.
C) 0.5156 per 100 of par value.
Question
The following information relates to Questions 1-6
katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training
session with alex Sun, a junior analyst in the fixed income department. black wants to ex-
plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with
exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify
the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis.
exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. which of the following statements about the missing data in exhibit 3 is correct?</strong> A) node 3-2 can be derived from node 2-2. B) node 4-1 should be equal to node 4-5 multiplied by   C) node 2-2 approximates the implied one-year forward rate two years from now. <div style=padding-top: 35px> black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents
most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex-
hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free,
annual-pay bond with a 2.5% coupon based on the information in exhibit 3.
exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay
option-Free bonds
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. which of the following statements about the missing data in exhibit 3 is correct?</strong> A) node 3-2 can be derived from node 2-2. B) node 4-1 should be equal to node 4-5 multiplied by   C) node 2-2 approximates the implied one-year forward rate two years from now. <div style=padding-top: 35px> exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. which of the following statements about the missing data in exhibit 3 is correct?</strong> A) node 3-2 can be derived from node 2-2. B) node 4-1 should be equal to node 4-5 multiplied by   C) node 2-2 approximates the implied one-year forward rate two years from now. <div style=padding-top: 35px> exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond
based on exhibit 3
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. which of the following statements about the missing data in exhibit 3 is correct?</strong> A) node 3-2 can be derived from node 2-2. B) node 4-1 should be equal to node 4-5 multiplied by   C) node 2-2 approximates the implied one-year forward rate two years from now. <div style=padding-top: 35px> black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the
following tasks related to those exhibits:
task 1 test that the binomial interest tree has been properly calibrated to be
arbitrage-free.
task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac-
curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of
the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second
lowest rate in Year 3.
task 3 identify a type of bond where the Monte Carlo calibration method should
be used in place of the binomial interest rate method.
task 4 update exhibit 3 to reflect the current volatility, which is now 15%.
which of the following statements about the missing data in exhibit 3 is correct?

A) node 3-2 can be derived from node 2-2.
B) node 4-1 should be equal to node 4-5 multiplied by <strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. which of the following statements about the missing data in exhibit 3 is correct?</strong> A) node 3-2 can be derived from node 2-2. B) node 4-1 should be equal to node 4-5 multiplied by   C) node 2-2 approximates the implied one-year forward rate two years from now. <div style=padding-top: 35px>
C) node 2-2 approximates the implied one-year forward rate two years from now.
Question
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle. <div style=padding-top: 35px>
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle. <div style=padding-top: 35px>
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle. <div style=padding-top: 35px>
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle. <div style=padding-top: 35px>
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle. <div style=padding-top: 35px>
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle. <div style=padding-top: 35px>
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle. <div style=padding-top: 35px>
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
based on exhibit 1, alvarez finds that an arbitrage opportunity is:

A) not available.
B) available based on the dominance principle.
C) available based on the value additivity principle.
Question
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct. <div style=padding-top: 35px>
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct. <div style=padding-top: 35px>
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct. <div style=padding-top: 35px>
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct. <div style=padding-top: 35px>
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct. <div style=padding-top: 35px>
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct. <div style=padding-top: 35px>
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct. <div style=padding-top: 35px>
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
which of the statements regarding Monte Carlo simulation is correct?

A) only Statement 4 is correct.
B) only Statement 5 is correct.
C) both Statement 4 and Statement 5 are correct.
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Deck 8: The Arbitrage-Free Valuation Framework
1
The following information relates to Questions 1-6
katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training
session with alex Sun, a junior analyst in the fixed income department. black wants to ex-
plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with
exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify
the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis.
exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibit 1, the best action that an investor should take to profit from the arbitrage opportunity is to:</strong> A) buy on Frankfurt, sell on eurex. B) buy on nYSe euronext, sell on eurex. C) buy on Frankfurt, sell on nYSe euronext. black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents
most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex-
hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free,
annual-pay bond with a 2.5% coupon based on the information in exhibit 3.
exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay
option-Free bonds
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibit 1, the best action that an investor should take to profit from the arbitrage opportunity is to:</strong> A) buy on Frankfurt, sell on eurex. B) buy on nYSe euronext, sell on eurex. C) buy on Frankfurt, sell on nYSe euronext. exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibit 1, the best action that an investor should take to profit from the arbitrage opportunity is to:</strong> A) buy on Frankfurt, sell on eurex. B) buy on nYSe euronext, sell on eurex. C) buy on Frankfurt, sell on nYSe euronext. exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond
based on exhibit 3
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibit 1, the best action that an investor should take to profit from the arbitrage opportunity is to:</strong> A) buy on Frankfurt, sell on eurex. B) buy on nYSe euronext, sell on eurex. C) buy on Frankfurt, sell on nYSe euronext. black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the
following tasks related to those exhibits:
task 1 test that the binomial interest tree has been properly calibrated to be
arbitrage-free.
task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac-
curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of
the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second
lowest rate in Year 3.
task 3 identify a type of bond where the Monte Carlo calibration method should
be used in place of the binomial interest rate method.
task 4 update exhibit 3 to reflect the current volatility, which is now 15%.
based on exhibit 1, the best action that an investor should take to profit from the arbitrage opportunity is to:

A) buy on Frankfurt, sell on eurex.
B) buy on nYSe euronext, sell on eurex.
C) buy on Frankfurt, sell on nYSe euronext.
A
2
The following information relates to Questions 1-6
katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training
session with alex Sun, a junior analyst in the fixed income department. black wants to ex-
plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with
exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify
the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis.
exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. if the assumed volatility is changed as black requested in task 4, the forward rates shown in exhibit 3 will most likely:</strong> A) spread out. B) remain unchanged. C) converge to the spot rates. black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents
most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex-
hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free,
annual-pay bond with a 2.5% coupon based on the information in exhibit 3.
exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay
option-Free bonds
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. if the assumed volatility is changed as black requested in task 4, the forward rates shown in exhibit 3 will most likely:</strong> A) spread out. B) remain unchanged. C) converge to the spot rates. exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. if the assumed volatility is changed as black requested in task 4, the forward rates shown in exhibit 3 will most likely:</strong> A) spread out. B) remain unchanged. C) converge to the spot rates. exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond
based on exhibit 3
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. if the assumed volatility is changed as black requested in task 4, the forward rates shown in exhibit 3 will most likely:</strong> A) spread out. B) remain unchanged. C) converge to the spot rates. black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the
following tasks related to those exhibits:
task 1 test that the binomial interest tree has been properly calibrated to be
arbitrage-free.
task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac-
curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of
the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second
lowest rate in Year 3.
task 3 identify a type of bond where the Monte Carlo calibration method should
be used in place of the binomial interest rate method.
task 4 update exhibit 3 to reflect the current volatility, which is now 15%.
if the assumed volatility is changed as black requested in task 4, the forward rates shown in exhibit 3 will most likely:

A) spread out.
B) remain unchanged.
C) converge to the spot rates.
A
3
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607.
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607.
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607.
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607.
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607.
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607.
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:</strong> A) 97.0322. B) 102.8607. C) 105.8607.
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
based on exhibits 4 and 7, the present value of bond D's cash flows following Path 2 is closest to:

A) 97.0322.
B) 102.8607.
C) 105.8607.
B
4
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230.
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230.
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230.
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230.
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230.
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230.
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the price for bond D is closest to:</strong> A) 97.4785. B) 103.3230. C) 106.3230.
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
based on exhibits 3 and 4, the price for bond D is closest to:

A) 97.4785.
B) 103.3230.
C) 106.3230.
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5
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the various statements regarding binomial interest rate trees is correct?</strong> A) Statement 1 B) Statement 2 C) Statement 3
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
which of the various statements regarding binomial interest rate trees is correct?

A) Statement 1
B) Statement 2
C) Statement 3
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6
The following information relates to Questions 1-6
katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training
session with alex Sun, a junior analyst in the fixed income department. black wants to ex-
plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with
exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify
the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis.
exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibits 1 and 2, the exchange that reflects the arbitrage-free price of the bond is:</strong> A) eurex. B) Frankfurt. C) nYSe euronext. black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents
most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex-
hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free,
annual-pay bond with a 2.5% coupon based on the information in exhibit 3.
exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay
option-Free bonds
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibits 1 and 2, the exchange that reflects the arbitrage-free price of the bond is:</strong> A) eurex. B) Frankfurt. C) nYSe euronext. exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibits 1 and 2, the exchange that reflects the arbitrage-free price of the bond is:</strong> A) eurex. B) Frankfurt. C) nYSe euronext. exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond
based on exhibit 3
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. based on exhibits 1 and 2, the exchange that reflects the arbitrage-free price of the bond is:</strong> A) eurex. B) Frankfurt. C) nYSe euronext. black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the
following tasks related to those exhibits:
task 1 test that the binomial interest tree has been properly calibrated to be
arbitrage-free.
task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac-
curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of
the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second
lowest rate in Year 3.
task 3 identify a type of bond where the Monte Carlo calibration method should
be used in place of the binomial interest rate method.
task 4 update exhibit 3 to reflect the current volatility, which is now 15%.
based on exhibits 1 and 2, the exchange that reflects the arbitrage-free price of the bond is:

A) eurex.
B) Frankfurt.
C) nYSe euronext.
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The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255.
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255.
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255.
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255.
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255.
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255.
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:</strong> A) 97.1957. B) 99.6255. C) 102.1255.
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
based on exhibits 3 and 4, the value of bond C at the upper node at time 1 is closest to:

A) 97.1957.
B) 99.6255.
C) 102.1255.
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The following information relates to Questions 1-6
katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training
session with alex Sun, a junior analyst in the fixed income department. black wants to ex-
plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with
exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify
the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis.
exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. a benefit of performing task 1 is that it:</strong> A) enables the model to price bonds with embedded options. B) identifies benchmark bonds that have been mispriced by the market. C) allows investors to realize arbitrage profits through stripping and reconstitution. black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents
most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex-
hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free,
annual-pay bond with a 2.5% coupon based on the information in exhibit 3.
exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay
option-Free bonds
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. a benefit of performing task 1 is that it:</strong> A) enables the model to price bonds with embedded options. B) identifies benchmark bonds that have been mispriced by the market. C) allows investors to realize arbitrage profits through stripping and reconstitution. exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. a benefit of performing task 1 is that it:</strong> A) enables the model to price bonds with embedded options. B) identifies benchmark bonds that have been mispriced by the market. C) allows investors to realize arbitrage profits through stripping and reconstitution. exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond
based on exhibit 3
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. a benefit of performing task 1 is that it:</strong> A) enables the model to price bonds with embedded options. B) identifies benchmark bonds that have been mispriced by the market. C) allows investors to realize arbitrage profits through stripping and reconstitution. black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the
following tasks related to those exhibits:
task 1 test that the binomial interest tree has been properly calibrated to be
arbitrage-free.
task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac-
curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of
the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second
lowest rate in Year 3.
task 3 identify a type of bond where the Monte Carlo calibration method should
be used in place of the binomial interest rate method.
task 4 update exhibit 3 to reflect the current volatility, which is now 15%.
a benefit of performing task 1 is that it:

A) enables the model to price bonds with embedded options.
B) identifies benchmark bonds that have been mispriced by the market.
C) allows investors to realize arbitrage profits through stripping and reconstitution.
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The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong.
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong.
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong.
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong.
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong.
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong.
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:</strong> A) Mumbai and sell it in hong kong. B) hong kong and sell it in new York. C) new York and sell it in hong kong.
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
based on the data in exhibit 2, the most profitable arbitrage opportunity would be to buy the bond in:

A) Mumbai and sell it in hong kong.
B) hong kong and sell it in new York.
C) new York and sell it in hong kong.
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10
The following information relates to Questions
betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM).
SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage.
tatton is responsible for pricing individual investments and analyzing market data to assess the
opportunity for arbitrage. She uses two methods to value bonds:
Method 1: Discount each year's cash flow separately using the appropriate interest rate
curve.
Method 2: build and use a binomial interest rate tree.
tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds
will mature in two years, and tatton considers the bonds as being risk-free; both the one-year
and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and
identifies an arbitrage opportunity to recommend to her team.
exhibit 1 Market Data for Selected bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   Method 1 would most likely not be an appropriate valuation technique for the bond issued by:</strong> A) hutto-barkley inc. B) luna y estrellas intl. C) Peaton Scorpio Motors.
next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage
opportunities of both option-free corporate bonds and corporate bonds with embedded op-
tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced
at par.
exhibit 2 benchmark Par Curve
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   Method 1 would most likely not be an appropriate valuation technique for the bond issued by:</strong> A) hutto-barkley inc. B) luna y estrellas intl. C) Peaton Scorpio Motors.
tatton then identifies three mispriced three-year annual-pay bonds and compiles data on
the bonds (see exhibit 3).
exhibit 3 Market Data of annual-Pay Corporate bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   Method 1 would most likely not be an appropriate valuation technique for the bond issued by:</strong> A) hutto-barkley inc. B) luna y estrellas intl. C) Peaton Scorpio Motors.
last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond
Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the
bonds' values, tatton devises the first three years of the interest rate lognormal tree presented
in exhibit 4 using historical interest rate volatility data. tatton considers how these data would
change if implied volatility, which is higher than historical volatility, were used instead.
exhibit 4 interest rate tree; Forward rates based on Swiss Market
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   Method 1 would most likely not be an appropriate valuation technique for the bond issued by:</strong> A) hutto-barkley inc. B) luna y estrellas intl. C) Peaton Scorpio Motors.
Method 1 would most likely not be an appropriate valuation technique for the bond issued by:

A) hutto-barkley inc.
B) luna y estrellas intl.
C) Peaton Scorpio Motors.
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11
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%.
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%.
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%.
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%.
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%.
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%.
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:</strong> A) 3.5122%. B) 3.5400%. C) 4.8037%.
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
based on exhibits 5 and 6, the value of the lower one-period forward rate is closest to:

A) 3.5122%.
B) 3.5400%.
C) 4.8037%.
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The following information relates to Questions
betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM).
SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage.
tatton is responsible for pricing individual investments and analyzing market data to assess the
opportunity for arbitrage. She uses two methods to value bonds:
Method 1: Discount each year's cash flow separately using the appropriate interest rate
curve.
Method 2: build and use a binomial interest rate tree.
tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds
will mature in two years, and tatton considers the bonds as being risk-free; both the one-year
and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and
identifies an arbitrage opportunity to recommend to her team.
exhibit 1 Market Data for Selected bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 1, which of the following bonds most likely includes an arbitrage opportunity?</strong> A) bond a B) bond b C) bond C
next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage
opportunities of both option-free corporate bonds and corporate bonds with embedded op-
tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced
at par.
exhibit 2 benchmark Par Curve
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 1, which of the following bonds most likely includes an arbitrage opportunity?</strong> A) bond a B) bond b C) bond C
tatton then identifies three mispriced three-year annual-pay bonds and compiles data on
the bonds (see exhibit 3).
exhibit 3 Market Data of annual-Pay Corporate bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 1, which of the following bonds most likely includes an arbitrage opportunity?</strong> A) bond a B) bond b C) bond C
last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond
Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the
bonds' values, tatton devises the first three years of the interest rate lognormal tree presented
in exhibit 4 using historical interest rate volatility data. tatton considers how these data would
change if implied volatility, which is higher than historical volatility, were used instead.
exhibit 4 interest rate tree; Forward rates based on Swiss Market
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 1, which of the following bonds most likely includes an arbitrage opportunity?</strong> A) bond a B) bond b C) bond C
based on exhibit 1, which of the following bonds most likely includes an arbitrage opportunity?

A) bond a
B) bond b
C) bond C
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The following information relates to Questions
betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM).
SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage.
tatton is responsible for pricing individual investments and analyzing market data to assess the
opportunity for arbitrage. She uses two methods to value bonds:
Method 1: Discount each year's cash flow separately using the appropriate interest rate
curve.
Method 2: build and use a binomial interest rate tree.
tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds
will mature in two years, and tatton considers the bonds as being risk-free; both the one-year
and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and
identifies an arbitrage opportunity to recommend to her team.
exhibit 1 Market Data for Selected bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 4 and using Method 2, the correct price for bond x is closest to:</strong> A) 97.2998. B) 109.0085. C) 115.0085.
next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage
opportunities of both option-free corporate bonds and corporate bonds with embedded op-
tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced
at par.
exhibit 2 benchmark Par Curve
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 4 and using Method 2, the correct price for bond x is closest to:</strong> A) 97.2998. B) 109.0085. C) 115.0085.
tatton then identifies three mispriced three-year annual-pay bonds and compiles data on
the bonds (see exhibit 3).
exhibit 3 Market Data of annual-Pay Corporate bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 4 and using Method 2, the correct price for bond x is closest to:</strong> A) 97.2998. B) 109.0085. C) 115.0085.
last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond
Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the
bonds' values, tatton devises the first three years of the interest rate lognormal tree presented
in exhibit 4 using historical interest rate volatility data. tatton considers how these data would
change if implied volatility, which is higher than historical volatility, were used instead.
exhibit 4 interest rate tree; Forward rates based on Swiss Market
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibit 4 and using Method 2, the correct price for bond x is closest to:</strong> A) 97.2998. B) 109.0085. C) 115.0085.
based on exhibit 4 and using Method 2, the correct price for bond x is closest to:

A) 97.2998.
B) 109.0085.
C) 115.0085.
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The following information relates to Questions
betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM).
SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage.
tatton is responsible for pricing individual investments and analyzing market data to assess the
opportunity for arbitrage. She uses two methods to value bonds:
Method 1: Discount each year's cash flow separately using the appropriate interest rate
curve.
Method 2: build and use a binomial interest rate tree.
tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds
will mature in two years, and tatton considers the bonds as being risk-free; both the one-year
and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and
identifies an arbitrage opportunity to recommend to her team.
exhibit 1 Market Data for Selected bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibits 2 and 3 and using Method 1, the amount (in absolute terms) by which the hutto-barkley corporate bond is mispriced is closest to:</strong> A) 0.3368 per 100 of par value. B) 0.4682 per 100 of par value. C) 0.5156 per 100 of par value.
next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage
opportunities of both option-free corporate bonds and corporate bonds with embedded op-
tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced
at par.
exhibit 2 benchmark Par Curve
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibits 2 and 3 and using Method 1, the amount (in absolute terms) by which the hutto-barkley corporate bond is mispriced is closest to:</strong> A) 0.3368 per 100 of par value. B) 0.4682 per 100 of par value. C) 0.5156 per 100 of par value.
tatton then identifies three mispriced three-year annual-pay bonds and compiles data on
the bonds (see exhibit 3).
exhibit 3 Market Data of annual-Pay Corporate bonds
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibits 2 and 3 and using Method 1, the amount (in absolute terms) by which the hutto-barkley corporate bond is mispriced is closest to:</strong> A) 0.3368 per 100 of par value. B) 0.4682 per 100 of par value. C) 0.5156 per 100 of par value.
last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond
Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the
bonds' values, tatton devises the first three years of the interest rate lognormal tree presented
in exhibit 4 using historical interest rate volatility data. tatton considers how these data would
change if implied volatility, which is higher than historical volatility, were used instead.
exhibit 4 interest rate tree; Forward rates based on Swiss Market
<strong>The following information relates to Questions betty tatton is a fixed income analyst with the hedge fund Sailboat asset Management (SaM). SaM invests in a variety of global fixed-income strategies, including fixed-income arbitrage. tatton is responsible for pricing individual investments and analyzing market data to assess the opportunity for arbitrage. She uses two methods to value bonds: Method 1: Discount each year's cash flow separately using the appropriate interest rate curve. Method 2: build and use a binomial interest rate tree. tatton compiles pricing data for a list of annual pay bonds (exhibit 1). each of the bonds will mature in two years, and tatton considers the bonds as being risk-free; both the one-year and two-year benchmark spot rates are 2%. tatton calculates the arbitrage-free prices and identifies an arbitrage opportunity to recommend to her team. exhibit 1 Market Data for Selected bonds   next, tatton uses the benchmark yield curve provided in exhibit 2 to consider arbitrage opportunities of both option-free corporate bonds and corporate bonds with embedded op- tions. The benchmark bonds in exhibit 2 pay coupons annually, and the bonds are priced at par. exhibit 2 benchmark Par Curve   tatton then identifies three mispriced three-year annual-pay bonds and compiles data on the bonds (see exhibit 3). exhibit 3 Market Data of annual-Pay Corporate bonds   last, tatton identifies two mispriced Swiss bonds, bond x, a three-year bond, and bond Y, a five-year bond. both are annual-pay bonds with a coupon rate of 6%. to calculate the bonds' values, tatton devises the first three years of the interest rate lognormal tree presented in exhibit 4 using historical interest rate volatility data. tatton considers how these data would change if implied volatility, which is higher than historical volatility, were used instead. exhibit 4 interest rate tree; Forward rates based on Swiss Market   based on exhibits 2 and 3 and using Method 1, the amount (in absolute terms) by which the hutto-barkley corporate bond is mispriced is closest to:</strong> A) 0.3368 per 100 of par value. B) 0.4682 per 100 of par value. C) 0.5156 per 100 of par value.
based on exhibits 2 and 3 and using Method 1, the amount (in absolute terms) by which the hutto-barkley corporate bond is mispriced is closest to:

A) 0.3368 per 100 of par value.
B) 0.4682 per 100 of par value.
C) 0.5156 per 100 of par value.
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15
The following information relates to Questions 1-6
katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training
session with alex Sun, a junior analyst in the fixed income department. black wants to ex-
plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with
exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify
the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis.
exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. which of the following statements about the missing data in exhibit 3 is correct?</strong> A) node 3-2 can be derived from node 2-2. B) node 4-1 should be equal to node 4-5 multiplied by   C) node 2-2 approximates the implied one-year forward rate two years from now. black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents
most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex-
hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free,
annual-pay bond with a 2.5% coupon based on the information in exhibit 3.
exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay
option-Free bonds
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. which of the following statements about the missing data in exhibit 3 is correct?</strong> A) node 3-2 can be derived from node 2-2. B) node 4-1 should be equal to node 4-5 multiplied by   C) node 2-2 approximates the implied one-year forward rate two years from now. exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. which of the following statements about the missing data in exhibit 3 is correct?</strong> A) node 3-2 can be derived from node 2-2. B) node 4-1 should be equal to node 4-5 multiplied by   C) node 2-2 approximates the implied one-year forward rate two years from now. exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond
based on exhibit 3
<strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. which of the following statements about the missing data in exhibit 3 is correct?</strong> A) node 3-2 can be derived from node 2-2. B) node 4-1 should be equal to node 4-5 multiplied by   C) node 2-2 approximates the implied one-year forward rate two years from now. black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the
following tasks related to those exhibits:
task 1 test that the binomial interest tree has been properly calibrated to be
arbitrage-free.
task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac-
curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of
the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second
lowest rate in Year 3.
task 3 identify a type of bond where the Monte Carlo calibration method should
be used in place of the binomial interest rate method.
task 4 update exhibit 3 to reflect the current volatility, which is now 15%.
which of the following statements about the missing data in exhibit 3 is correct?

A) node 3-2 can be derived from node 2-2.
B) node 4-1 should be equal to node 4-5 multiplied by <strong>The following information relates to Questions 1-6 katrina black, portfolio manager at Coral bond Management, ltd., is conducting a training session with alex Sun, a junior analyst in the fixed income department. black wants to ex- plain to Sun the arbitrage-free valuation framework used by the firm. black presents Sun with exhibit 1, showing a fictitious bond being traded on three exchanges, and asks Sun to identify the arbitrage opportunity of the bond. Sun agrees to ignore transaction costs in his analysis. exhibit 1 Three-Year, €100 par, 3.00% Coupon, annual-Pay option-Free bond   black shows Sun some exhibits that were part of a recent presentation. exhibit 3 presents most of the data of a binomial lognormal interest rate tree fit to the yield curve shown in ex- hibit 2. exhibit 4 presents most of the data of the implied values for a four-year, option-free, annual-pay bond with a 2.5% coupon based on the information in exhibit 3. exhibit 2 Yield to Maturity Par rates for one-, two-, and Three-Year annual-Pay option-Free bonds   exhibit 3 binomial interest rate tree Fit to the Yield Curve (Volatility = 10%)   exhibit 4 implied Values (in euros) for a 2.5%, Four-Year, option-Free, annual-Pay bond based on exhibit 3   black asks about the missing data in exhibits 3 and 4 and directs Sun to complete the following tasks related to those exhibits: task 1 test that the binomial interest tree has been properly calibrated to be arbitrage-free. task 2 Develop a spreadsheet model to calculate pathwise valuations. to test the ac- curacy of the spreadsheet, use the data in exhibit 3 and calculate the value of the bond if it takes a path of lowest rates in Year 1 and Year 2 and the second lowest rate in Year 3. task 3 identify a type of bond where the Monte Carlo calibration method should be used in place of the binomial interest rate method. task 4 update exhibit 3 to reflect the current volatility, which is now 15%. which of the following statements about the missing data in exhibit 3 is correct?</strong> A) node 3-2 can be derived from node 2-2. B) node 4-1 should be equal to node 4-5 multiplied by   C) node 2-2 approximates the implied one-year forward rate two years from now.
C) node 2-2 approximates the implied one-year forward rate two years from now.
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16
The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle.
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle.
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle.
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle.
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle.
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle.
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. based on exhibit 1, alvarez finds that an arbitrage opportunity is:</strong> A) not available. B) available based on the dominance principle. C) available based on the value additivity principle.
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
based on exhibit 1, alvarez finds that an arbitrage opportunity is:

A) not available.
B) available based on the dominance principle.
C) available based on the value additivity principle.
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The following information relates to Questions
Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su-
pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in
exhibit 1 to determine whether an arbitrage opportunity exists.
exhibit 1 Price and Payoffs for two risk-Free assets
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct.
hartson also shows alvarez data for a bond that trades in three different markets in the
same currency. These data appear in exhibit 2.
exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct.
hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree
in exhibit 3. exhibit 4 presents selected data for both bonds.
exhibit 3 binomial interest rate tree with Volatility = 25%
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct.
exhibit 4 Selected Data on annual-Pay bonds
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct.
hartson tells alvarez that she and her peers have been debating various viewpoints regard-
ing the conditions underlying binomial interest rate trees. The following statements were made
in the course of the debate.
Statement 1: The only requirements needed to create a binomial interest rate tree are
current benchmark interest rates and an assumption about interest rate
volatility.
Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es-
timated using historical interest rate volatility or observed market prices
from interest rate derivatives.
Statement 3: a bond value derived from a binomial interest rate tree with a relatively
high volatility assumption will be different from the value calculated by
discounting the bond's cash flows using current spot rates.
based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree
starting with the calculation of implied forward rates shown in exhibit 6.
exhibit 5 Selected Data for a binomial interest rate tree
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct.
exhibit 6 Calibration of binomial interest rate
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct.
hartson mentions pathwise valuations as another method to value bonds using a binomial
interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos-
sible interest rate paths for bond D shown in exhibit 7.
exhibit 7 interest rate Paths for bond D
<strong>The following information relates to Questions Meredith alvarez is a junior fixed-income analyst with Canzim asset Management. her su- pervisor, Stephanie hartson, asks alvarez to review the asset price and payoff data shown in exhibit 1 to determine whether an arbitrage opportunity exists. exhibit 1 Price and Payoffs for two risk-Free assets   hartson also shows alvarez data for a bond that trades in three different markets in the same currency. These data appear in exhibit 2. exhibit 2 2% Coupon, Five-Year Maturity, annual-Pay bond   hartson asks alvarez to value two bonds (bond C and bond D) using the binomial tree in exhibit 3. exhibit 4 presents selected data for both bonds. exhibit 3 binomial interest rate tree with Volatility = 25%   exhibit 4 Selected Data on annual-Pay bonds   hartson tells alvarez that she and her peers have been debating various viewpoints regard- ing the conditions underlying binomial interest rate trees. The following statements were made in the course of the debate. Statement 1: The only requirements needed to create a binomial interest rate tree are current benchmark interest rates and an assumption about interest rate volatility. Statement 2: Potential interest rate volatility in a binomial interest rate tree can be es- timated using historical interest rate volatility or observed market prices from interest rate derivatives. Statement 3: a bond value derived from a binomial interest rate tree with a relatively high volatility assumption will be different from the value calculated by discounting the bond's cash flows using current spot rates. based on data in exhibit 5, hartson asks alvarez to calibrate a binomial interest rate tree starting with the calculation of implied forward rates shown in exhibit 6. exhibit 5 Selected Data for a binomial interest rate tree   exhibit 6 Calibration of binomial interest rate   hartson mentions pathwise valuations as another method to value bonds using a binomial interest rate tree. using the binomial interest rate tree in exhibit 3, alvarez calculates the pos- sible interest rate paths for bond D shown in exhibit 7. exhibit 7 interest rate Paths for bond D   before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo method to simulate a large number of potential interest rate paths to value a bond. alvarez makes the following statements. Statement 4: increasing the number of paths increases the estimate's statistical accuracy. Statement 5: The bond value derived from a Monte Carlo simulation will be closer to the bond's true fundamental value. which of the statements regarding Monte Carlo simulation is correct?</strong> A) only Statement 4 is correct. B) only Statement 5 is correct. C) both Statement 4 and Statement 5 are correct.
before leaving for the day, hartson asks alvarez about the value of using the Monte Carlo
method to simulate a large number of potential interest rate paths to value a bond. alvarez
makes the following statements.
Statement 4: increasing the number of paths increases the estimate's statistical accuracy.
Statement 5: The bond value derived from a Monte Carlo simulation will be closer to
the bond's true fundamental value.
which of the statements regarding Monte Carlo simulation is correct?

A) only Statement 4 is correct.
B) only Statement 5 is correct.
C) both Statement 4 and Statement 5 are correct.
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