Deck 27: Factor Models of the Term Structure

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Question
An exponential-affine short rate bond model is one

A)That most bond traders have an affinity for.
B)Where the bond prices are linear in the short-rate.
C)Where the logarithm of bond prices is linear in the short rate.
D)Where the bond price is based on discrete compounding.
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Question
In the Ho & Lee (1986)model,the parameter In the Ho & Lee (1986)model,the parameter   plays a crucial role.Which of the following statements best describes this parameter? (a)   ) B)As   Increases the volatility of interest rates increases. C)As   Increases the volatility of interest rates decreases. (d)   )<div style=padding-top: 35px> plays a crucial role.Which of the following statements best describes this parameter?
(a) In the Ho & Lee (1986)model,the parameter   plays a crucial role.Which of the following statements best describes this parameter? (a)   ) B)As   Increases the volatility of interest rates increases. C)As   Increases the volatility of interest rates decreases. (d)   )<div style=padding-top: 35px>
)
B)As In the Ho & Lee (1986)model,the parameter   plays a crucial role.Which of the following statements best describes this parameter? (a)   ) B)As   Increases the volatility of interest rates increases. C)As   Increases the volatility of interest rates decreases. (d)   )<div style=padding-top: 35px>
Increases the volatility of interest rates increases.
C)As In the Ho & Lee (1986)model,the parameter   plays a crucial role.Which of the following statements best describes this parameter? (a)   ) B)As   Increases the volatility of interest rates increases. C)As   Increases the volatility of interest rates decreases. (d)   )<div style=padding-top: 35px>
Increases the volatility of interest rates decreases.
(d) In the Ho & Lee (1986)model,the parameter   plays a crucial role.Which of the following statements best describes this parameter? (a)   ) B)As   Increases the volatility of interest rates increases. C)As   Increases the volatility of interest rates decreases. (d)   )<div style=padding-top: 35px>
)
Question
In the Black-Derman-Toy (BDT)model,short rates are distributed as

A)Normal
B)Lognormal
C)Exponential
D)None of the above
Question
Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be <strong>Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be   .What is the price of a one-year maturity call option on a 7.5% coupon (annual pay)bond at a strike of $100 (ex-coupon)?</strong> A)0.80 B)0.90 C)1.00 D)1.10 <div style=padding-top: 35px> .What is the price of a one-year maturity call option on a 7.5% coupon (annual pay)bond at a strike of $100 (ex-coupon)?

A)0.80
B)0.90
C)1.00
D)1.10
Question
In the Ho & Lee (1986)model,assume that the initial curve of zero-coupon discount bond prices for one and two years is <strong>In the Ho & Lee (1986)model,assume that the initial curve of zero-coupon discount bond prices for one and two years is   and   ,respectively.Assume that the probability of an upshift in discount functions is equal to that of a downshift.If the parameter   ,then the price of a one-year zero-coupon bond in the up node after one year will be</strong> A)0.9282 B)0.9496 C)0.9563 D)0.9678 <div style=padding-top: 35px> and <strong>In the Ho & Lee (1986)model,assume that the initial curve of zero-coupon discount bond prices for one and two years is   and   ,respectively.Assume that the probability of an upshift in discount functions is equal to that of a downshift.If the parameter   ,then the price of a one-year zero-coupon bond in the up node after one year will be</strong> A)0.9282 B)0.9496 C)0.9563 D)0.9678 <div style=padding-top: 35px> ,respectively.Assume that the probability of an upshift in discount functions is equal to that of a downshift.If the parameter <strong>In the Ho & Lee (1986)model,assume that the initial curve of zero-coupon discount bond prices for one and two years is   and   ,respectively.Assume that the probability of an upshift in discount functions is equal to that of a downshift.If the parameter   ,then the price of a one-year zero-coupon bond in the up node after one year will be</strong> A)0.9282 B)0.9496 C)0.9563 D)0.9678 <div style=padding-top: 35px> ,then the price of a one-year zero-coupon bond in the up node after one year will be

A)0.9282
B)0.9496
C)0.9563
D)0.9678
Question
Vasicek (1977)posits a general mean-reverting form for the short-rate: Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px> He then derives,in the absence of arbitrage,a restriction on the market price of risk Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px> of any bond,where Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px> of any bond,with Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px> being the instantaneous return on the bond,and Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px> being the bond's instantaneous volatility.The derived restriction is that
(a) Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
Is a constant.
(b) Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
May be a function of time
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
,but not of any other time-
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
Information or of the maturity
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
Of the bond.
(c) Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
May be a function of the time-
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
Short rate
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
,but not of current time
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
Or of the bond maturity
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
)
(d) Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
May be a function of time
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
And the time-
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
Short rate
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
,but not of the bond maturity
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )<div style=padding-top: 35px>
)
Question
In the Cox-Ingersoll-Ross (1985)model,interest rates are specified by the following stochastic process: In the Cox-Ingersoll-Ross (1985)model,interest rates are specified by the following stochastic process:   The process for interest rates is mean-reverting if (a)   (b)   (c)   (d)  <div style=padding-top: 35px> The process for interest rates is mean-reverting if
(a) In the Cox-Ingersoll-Ross (1985)model,interest rates are specified by the following stochastic process:   The process for interest rates is mean-reverting if (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
(b) In the Cox-Ingersoll-Ross (1985)model,interest rates are specified by the following stochastic process:   The process for interest rates is mean-reverting if (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
(c) In the Cox-Ingersoll-Ross (1985)model,interest rates are specified by the following stochastic process:   The process for interest rates is mean-reverting if (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
(d) In the Cox-Ingersoll-Ross (1985)model,interest rates are specified by the following stochastic process:   The process for interest rates is mean-reverting if (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
Question
Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be <strong>Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be   .What is the price of a one-year maturity put option on a 7.5% coupon (annual pay)bond at a strike of $100 (ex-coupon)?</strong> A)1.00 B)1.08 C)1.16 D)1.24 <div style=padding-top: 35px> .What is the price of a one-year maturity put option on a 7.5% coupon (annual pay)bond at a strike of $100 (ex-coupon)?

A)1.00
B)1.08
C)1.16
D)1.24
Question
In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected short rate of interest one year hence?</strong> A)6.6% B)7.2% C)7.6% D)8.2% <div style=padding-top: 35px> where <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected short rate of interest one year hence?</strong> A)6.6% B)7.2% C)7.6% D)8.2% <div style=padding-top: 35px> , <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected short rate of interest one year hence?</strong> A)6.6% B)7.2% C)7.6% D)8.2% <div style=padding-top: 35px> , <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected short rate of interest one year hence?</strong> A)6.6% B)7.2% C)7.6% D)8.2% <div style=padding-top: 35px> ,and the current short rate of interest is <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected short rate of interest one year hence?</strong> A)6.6% B)7.2% C)7.6% D)8.2% <div style=padding-top: 35px> .What is the expected short rate of interest one year hence?

A)6.6%
B)7.2%
C)7.6%
D)8.2%
Question
Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be <strong>Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be   .What are the one-year rates (up and down)after one year?</strong> A)9.2% and 6.1% B)9.6% and 5.8% C)10.0% and 4.0% D)10.4% and 5.7% <div style=padding-top: 35px> .What are the one-year rates (up and down)after one year?

A)9.2% and 6.1%
B)9.6% and 5.8%
C)10.0% and 4.0%
D)10.4% and 5.7%
Question
In the Cox-Ingersoll-Ross or CIR model,interest rates are specified by the following stochastic process: <strong>In the Cox-Ingersoll-Ross or CIR model,interest rates are specified by the following stochastic process:   One attractive feature of this process relative to the Vasicek interest rate process   is that</strong> A)Interest rates are always non-negative in CIR while they may be negative in the Vasicek model. B)There are parameter restrictions which guarantee non-negative stochastic interest rates in the CIR model,but there are no such restrictions possible in the Vasicek model. C)It has extra parameters,so can fit observed yield curves better. D)It allows for imperfect instantaneous correlation between rates of different maturities,whereas in the Vasicek model,they are perfectly correlated. <div style=padding-top: 35px> One attractive feature of this process relative to the Vasicek interest rate process <strong>In the Cox-Ingersoll-Ross or CIR model,interest rates are specified by the following stochastic process:   One attractive feature of this process relative to the Vasicek interest rate process   is that</strong> A)Interest rates are always non-negative in CIR while they may be negative in the Vasicek model. B)There are parameter restrictions which guarantee non-negative stochastic interest rates in the CIR model,but there are no such restrictions possible in the Vasicek model. C)It has extra parameters,so can fit observed yield curves better. D)It allows for imperfect instantaneous correlation between rates of different maturities,whereas in the Vasicek model,they are perfectly correlated. <div style=padding-top: 35px> is that

A)Interest rates are always non-negative in CIR while they may be negative in the Vasicek model.
B)There are parameter restrictions which guarantee non-negative stochastic interest rates in the CIR model,but there are no such restrictions possible in the Vasicek model.
C)It has extra parameters,so can fit observed yield curves better.
D)It allows for imperfect instantaneous correlation between rates of different maturities,whereas in the Vasicek model,they are perfectly correlated.
Question
The Ho & Lee (1986)model directly models the following on a binomial tree:

A)Yields.
B)Discount functions.
C)Zero-coupon rates.
D)Forward rates.
Question
In the Ho & Lee (1986)model,assume that the initial curve of zero-coupon rates for one and two years is 6% and 7%,respectively.Assume that the probability of an upshift in discount functions is equal to that of a downshift.If the parameter <strong>In the Ho & Lee (1986)model,assume that the initial curve of zero-coupon rates for one and two years is 6% and 7%,respectively.Assume that the probability of an upshift in discount functions is equal to that of a downshift.If the parameter   ,then the price of a one-year maturity call option on a two-year $100 face value zero-coupon bond in the up node after one year at a strike of $92 will be</strong> A)1.10 B)1.20 C)1.30 D)1.40 <div style=padding-top: 35px> ,then the price of a one-year maturity call option on a two-year $100 face value zero-coupon bond in the up node after one year at a strike of $92 will be

A)1.10
B)1.20
C)1.30
D)1.40
Question
In the CIR (1985)model,which of the following statements is true? The price of the bond increases when

A)The short rate <strong>In the CIR (1985)model,which of the following statements is true? The price of the bond increases when</strong> A)The short rate   Increases. B)The rate of mean reversion   Rises. C)The long-run mean rate   Increases. D)The volatility   Increases. <div style=padding-top: 35px>
Increases.
B)The rate of mean reversion <strong>In the CIR (1985)model,which of the following statements is true? The price of the bond increases when</strong> A)The short rate   Increases. B)The rate of mean reversion   Rises. C)The long-run mean rate   Increases. D)The volatility   Increases. <div style=padding-top: 35px>
Rises.
C)The long-run mean rate <strong>In the CIR (1985)model,which of the following statements is true? The price of the bond increases when</strong> A)The short rate   Increases. B)The rate of mean reversion   Rises. C)The long-run mean rate   Increases. D)The volatility   Increases. <div style=padding-top: 35px>
Increases.
D)The volatility <strong>In the CIR (1985)model,which of the following statements is true? The price of the bond increases when</strong> A)The short rate   Increases. B)The rate of mean reversion   Rises. C)The long-run mean rate   Increases. D)The volatility   Increases. <div style=padding-top: 35px>
Increases.
Question
Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be <strong>Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be   .At what strike price will one-year maturity call and put options on a 7.5% coupon (annual pay)bond at a strike of $100 (ex-coupon)have equal prices?</strong> A)$98.32 B)$99.52 C)$100.12 D)$101.42 <div style=padding-top: 35px> .At what strike price will one-year maturity call and put options on a 7.5% coupon (annual pay)bond at a strike of $100 (ex-coupon)have equal prices?

A)$98.32
B)$99.52
C)$100.12
D)$101.42
Question
In the Black-Derman-Toy (BDT)model,short rates have

A)Constant volatility for all maturities.
B)Volatility that changes by maturity of the short rate.
C)Volatility that varies by maturity and level of the short rate,i.e. ,state-dependent volatility.
D)Stochastic volatility.
Question
In the Vasieck (1977)model,you are given that <strong>In the Vasieck (1977)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected standard deviation of the short rate of interest one year hence?</strong> A)0.08 B)0.09 C)0.10 D)0.11 <div style=padding-top: 35px> where <strong>In the Vasieck (1977)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected standard deviation of the short rate of interest one year hence?</strong> A)0.08 B)0.09 C)0.10 D)0.11 <div style=padding-top: 35px> , <strong>In the Vasieck (1977)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected standard deviation of the short rate of interest one year hence?</strong> A)0.08 B)0.09 C)0.10 D)0.11 <div style=padding-top: 35px> , <strong>In the Vasieck (1977)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected standard deviation of the short rate of interest one year hence?</strong> A)0.08 B)0.09 C)0.10 D)0.11 <div style=padding-top: 35px> ,and the current short rate of interest is <strong>In the Vasieck (1977)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected standard deviation of the short rate of interest one year hence?</strong> A)0.08 B)0.09 C)0.10 D)0.11 <div style=padding-top: 35px> .What is the expected standard deviation of the short rate of interest one year hence?

A)0.08
B)0.09
C)0.10
D)0.11
Question
Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be <strong>Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be   .What is the price of a one-year maturity cap on the one-year interest rate at a strike rate of 8% and a notional of $100?</strong> A)1.000 B)1.025 C)1.050 D)1.075 <div style=padding-top: 35px> .What is the price of a one-year maturity cap on the one-year interest rate at a strike rate of 8% and a notional of $100?

A)1.000
B)1.025
C)1.050
D)1.075
Question
Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be <strong>Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be   .What is the price of a one-year maturity floor on the one-year interest rate at a strike rate of 8% and a notional of $100?</strong> A)1.000 B)1.026 C)1.052 D)1.078 <div style=padding-top: 35px> .What is the price of a one-year maturity floor on the one-year interest rate at a strike rate of 8% and a notional of $100?

A)1.000
B)1.026
C)1.052
D)1.078
Question
A one-factor bond pricing model implies that interest-rates of all maturities are driven by a single source of stochastic randomness.For example the system of interest rates may be described by the following equation: <strong>A one-factor bond pricing model implies that interest-rates of all maturities are driven by a single source of stochastic randomness.For example the system of interest rates may be described by the following equation:   where   denotes the maturity of different rates.A single-factor model implies that</strong> A)All rates either move up together or all move down together. B)The yield curve experience parallel shifts. C)Instantaneous changes in rates of all maturities are perfectly positively or negatively correlated with each other. D)Twists in shape of the yield curve are not possible. <div style=padding-top: 35px> where <strong>A one-factor bond pricing model implies that interest-rates of all maturities are driven by a single source of stochastic randomness.For example the system of interest rates may be described by the following equation:   where   denotes the maturity of different rates.A single-factor model implies that</strong> A)All rates either move up together or all move down together. B)The yield curve experience parallel shifts. C)Instantaneous changes in rates of all maturities are perfectly positively or negatively correlated with each other. D)Twists in shape of the yield curve are not possible. <div style=padding-top: 35px> denotes the maturity of different rates.A single-factor model implies that

A)All rates either move up together or all move down together.
B)The yield curve experience parallel shifts.
C)Instantaneous changes in rates of all maturities are perfectly positively or negatively correlated with each other.
D)Twists in shape of the yield curve are not possible.
Question
In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   .If the yield of a five-year bond is   ,then what is the price of the bond?</strong> A)0.65 B)0.70 C)0.75 D)0.80 <div style=padding-top: 35px> where <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   .If the yield of a five-year bond is   ,then what is the price of the bond?</strong> A)0.65 B)0.70 C)0.75 D)0.80 <div style=padding-top: 35px> , <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   .If the yield of a five-year bond is   ,then what is the price of the bond?</strong> A)0.65 B)0.70 C)0.75 D)0.80 <div style=padding-top: 35px> , <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   .If the yield of a five-year bond is   ,then what is the price of the bond?</strong> A)0.65 B)0.70 C)0.75 D)0.80 <div style=padding-top: 35px> .If the yield of a five-year bond is <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   .If the yield of a five-year bond is   ,then what is the price of the bond?</strong> A)0.65 B)0.70 C)0.75 D)0.80 <div style=padding-top: 35px> ,then what is the price of the bond?

A)0.65
B)0.70
C)0.75
D)0.80
Question
An affine factor model is one in which multiple factors <strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield. <div style=padding-top: 35px> may be present.Which of the following is not true of an affine factor model.

A)The drift <strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield. <div style=padding-top: 35px>
Will be linear in
<strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield. <div style=padding-top: 35px>
)
B)The volatility <strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield. <div style=padding-top: 35px>
Will be linear in
<strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield. <div style=padding-top: 35px>
)
C)The yield <strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield. <div style=padding-top: 35px>
Will be linear in
<strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield. <div style=padding-top: 35px>
)
D)The logarithm of the price scaled by maturity is the yield.
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Deck 27: Factor Models of the Term Structure
1
An exponential-affine short rate bond model is one

A)That most bond traders have an affinity for.
B)Where the bond prices are linear in the short-rate.
C)Where the logarithm of bond prices is linear in the short rate.
D)Where the bond price is based on discrete compounding.
C
Exponential-affine bond models have prices that take the following functional form: C Exponential-affine bond models have prices that take the following functional form:   ,where   are functions of time but not of the short rate.Therefore,the natural logarithm of the price is linear in the short rate   . ,where C Exponential-affine bond models have prices that take the following functional form:   ,where   are functions of time but not of the short rate.Therefore,the natural logarithm of the price is linear in the short rate   . are functions of time but not of the short rate.Therefore,the natural logarithm of the price is linear in the short rate C Exponential-affine bond models have prices that take the following functional form:   ,where   are functions of time but not of the short rate.Therefore,the natural logarithm of the price is linear in the short rate   . .
2
In the Ho & Lee (1986)model,the parameter In the Ho & Lee (1986)model,the parameter   plays a crucial role.Which of the following statements best describes this parameter? (a)   ) B)As   Increases the volatility of interest rates increases. C)As   Increases the volatility of interest rates decreases. (d)   ) plays a crucial role.Which of the following statements best describes this parameter?
(a) In the Ho & Lee (1986)model,the parameter   plays a crucial role.Which of the following statements best describes this parameter? (a)   ) B)As   Increases the volatility of interest rates increases. C)As   Increases the volatility of interest rates decreases. (d)   )
)
B)As In the Ho & Lee (1986)model,the parameter   plays a crucial role.Which of the following statements best describes this parameter? (a)   ) B)As   Increases the volatility of interest rates increases. C)As   Increases the volatility of interest rates decreases. (d)   )
Increases the volatility of interest rates increases.
C)As In the Ho & Lee (1986)model,the parameter   plays a crucial role.Which of the following statements best describes this parameter? (a)   ) B)As   Increases the volatility of interest rates increases. C)As   Increases the volatility of interest rates decreases. (d)   )
Increases the volatility of interest rates decreases.
(d) In the Ho & Lee (1986)model,the parameter   plays a crucial role.Which of the following statements best describes this parameter? (a)   ) B)As   Increases the volatility of interest rates increases. C)As   Increases the volatility of interest rates decreases. (d)   )
)
C
We have that C We have that   .This can be seen from the fact that the upshift and downshift functions that multiple the forward discount function are   respectively,where   is the probability of the upshift.As   decreases,the divergence between   and   increases. .This can be seen from the fact that the upshift and downshift functions that multiple the forward discount function are C We have that   .This can be seen from the fact that the upshift and downshift functions that multiple the forward discount function are   respectively,where   is the probability of the upshift.As   decreases,the divergence between   and   increases. respectively,where C We have that   .This can be seen from the fact that the upshift and downshift functions that multiple the forward discount function are   respectively,where   is the probability of the upshift.As   decreases,the divergence between   and   increases. is the probability of the upshift.As C We have that   .This can be seen from the fact that the upshift and downshift functions that multiple the forward discount function are   respectively,where   is the probability of the upshift.As   decreases,the divergence between   and   increases. decreases,the divergence between C We have that   .This can be seen from the fact that the upshift and downshift functions that multiple the forward discount function are   respectively,where   is the probability of the upshift.As   decreases,the divergence between   and   increases. and C We have that   .This can be seen from the fact that the upshift and downshift functions that multiple the forward discount function are   respectively,where   is the probability of the upshift.As   decreases,the divergence between   and   increases. increases.
3
In the Black-Derman-Toy (BDT)model,short rates are distributed as

A)Normal
B)Lognormal
C)Exponential
D)None of the above
B
4
Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be <strong>Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be   .What is the price of a one-year maturity call option on a 7.5% coupon (annual pay)bond at a strike of $100 (ex-coupon)?</strong> A)0.80 B)0.90 C)1.00 D)1.10 .What is the price of a one-year maturity call option on a 7.5% coupon (annual pay)bond at a strike of $100 (ex-coupon)?

A)0.80
B)0.90
C)1.00
D)1.10
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5
In the Ho & Lee (1986)model,assume that the initial curve of zero-coupon discount bond prices for one and two years is <strong>In the Ho & Lee (1986)model,assume that the initial curve of zero-coupon discount bond prices for one and two years is   and   ,respectively.Assume that the probability of an upshift in discount functions is equal to that of a downshift.If the parameter   ,then the price of a one-year zero-coupon bond in the up node after one year will be</strong> A)0.9282 B)0.9496 C)0.9563 D)0.9678 and <strong>In the Ho & Lee (1986)model,assume that the initial curve of zero-coupon discount bond prices for one and two years is   and   ,respectively.Assume that the probability of an upshift in discount functions is equal to that of a downshift.If the parameter   ,then the price of a one-year zero-coupon bond in the up node after one year will be</strong> A)0.9282 B)0.9496 C)0.9563 D)0.9678 ,respectively.Assume that the probability of an upshift in discount functions is equal to that of a downshift.If the parameter <strong>In the Ho & Lee (1986)model,assume that the initial curve of zero-coupon discount bond prices for one and two years is   and   ,respectively.Assume that the probability of an upshift in discount functions is equal to that of a downshift.If the parameter   ,then the price of a one-year zero-coupon bond in the up node after one year will be</strong> A)0.9282 B)0.9496 C)0.9563 D)0.9678 ,then the price of a one-year zero-coupon bond in the up node after one year will be

A)0.9282
B)0.9496
C)0.9563
D)0.9678
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6
Vasicek (1977)posits a general mean-reverting form for the short-rate: Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   ) He then derives,in the absence of arbitrage,a restriction on the market price of risk Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   ) of any bond,where Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   ) of any bond,with Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   ) being the instantaneous return on the bond,and Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   ) being the bond's instantaneous volatility.The derived restriction is that
(a) Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
Is a constant.
(b) Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
May be a function of time
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
,but not of any other time-
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
Information or of the maturity
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
Of the bond.
(c) Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
May be a function of the time-
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
Short rate
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
,but not of current time
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
Or of the bond maturity
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
)
(d) Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
May be a function of time
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
And the time-
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
Short rate
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
,but not of the bond maturity
Vasicek (1977)posits a general mean-reverting form for the short-rate:   He then derives,in the absence of arbitrage,a restriction on the market price of risk   of any bond,where   of any bond,with   being the instantaneous return on the bond,and   being the bond's instantaneous volatility.The derived restriction is that (a)   Is a constant. (b)   May be a function of time   ,but not of any other time-   Information or of the maturity   Of the bond. (c)   May be a function of the time-   Short rate   ,but not of current time   Or of the bond maturity   ) (d)   May be a function of time   And the time-   Short rate   ,but not of the bond maturity   )
)
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7
In the Cox-Ingersoll-Ross (1985)model,interest rates are specified by the following stochastic process: In the Cox-Ingersoll-Ross (1985)model,interest rates are specified by the following stochastic process:   The process for interest rates is mean-reverting if (a)   (b)   (c)   (d)  The process for interest rates is mean-reverting if
(a) In the Cox-Ingersoll-Ross (1985)model,interest rates are specified by the following stochastic process:   The process for interest rates is mean-reverting if (a)   (b)   (c)   (d)
(b) In the Cox-Ingersoll-Ross (1985)model,interest rates are specified by the following stochastic process:   The process for interest rates is mean-reverting if (a)   (b)   (c)   (d)
(c) In the Cox-Ingersoll-Ross (1985)model,interest rates are specified by the following stochastic process:   The process for interest rates is mean-reverting if (a)   (b)   (c)   (d)
(d) In the Cox-Ingersoll-Ross (1985)model,interest rates are specified by the following stochastic process:   The process for interest rates is mean-reverting if (a)   (b)   (c)   (d)
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8
Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be <strong>Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be   .What is the price of a one-year maturity put option on a 7.5% coupon (annual pay)bond at a strike of $100 (ex-coupon)?</strong> A)1.00 B)1.08 C)1.16 D)1.24 .What is the price of a one-year maturity put option on a 7.5% coupon (annual pay)bond at a strike of $100 (ex-coupon)?

A)1.00
B)1.08
C)1.16
D)1.24
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9
In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected short rate of interest one year hence?</strong> A)6.6% B)7.2% C)7.6% D)8.2% where <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected short rate of interest one year hence?</strong> A)6.6% B)7.2% C)7.6% D)8.2% , <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected short rate of interest one year hence?</strong> A)6.6% B)7.2% C)7.6% D)8.2% , <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected short rate of interest one year hence?</strong> A)6.6% B)7.2% C)7.6% D)8.2% ,and the current short rate of interest is <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected short rate of interest one year hence?</strong> A)6.6% B)7.2% C)7.6% D)8.2% .What is the expected short rate of interest one year hence?

A)6.6%
B)7.2%
C)7.6%
D)8.2%
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10
Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be <strong>Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be   .What are the one-year rates (up and down)after one year?</strong> A)9.2% and 6.1% B)9.6% and 5.8% C)10.0% and 4.0% D)10.4% and 5.7% .What are the one-year rates (up and down)after one year?

A)9.2% and 6.1%
B)9.6% and 5.8%
C)10.0% and 4.0%
D)10.4% and 5.7%
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11
In the Cox-Ingersoll-Ross or CIR model,interest rates are specified by the following stochastic process: <strong>In the Cox-Ingersoll-Ross or CIR model,interest rates are specified by the following stochastic process:   One attractive feature of this process relative to the Vasicek interest rate process   is that</strong> A)Interest rates are always non-negative in CIR while they may be negative in the Vasicek model. B)There are parameter restrictions which guarantee non-negative stochastic interest rates in the CIR model,but there are no such restrictions possible in the Vasicek model. C)It has extra parameters,so can fit observed yield curves better. D)It allows for imperfect instantaneous correlation between rates of different maturities,whereas in the Vasicek model,they are perfectly correlated. One attractive feature of this process relative to the Vasicek interest rate process <strong>In the Cox-Ingersoll-Ross or CIR model,interest rates are specified by the following stochastic process:   One attractive feature of this process relative to the Vasicek interest rate process   is that</strong> A)Interest rates are always non-negative in CIR while they may be negative in the Vasicek model. B)There are parameter restrictions which guarantee non-negative stochastic interest rates in the CIR model,but there are no such restrictions possible in the Vasicek model. C)It has extra parameters,so can fit observed yield curves better. D)It allows for imperfect instantaneous correlation between rates of different maturities,whereas in the Vasicek model,they are perfectly correlated. is that

A)Interest rates are always non-negative in CIR while they may be negative in the Vasicek model.
B)There are parameter restrictions which guarantee non-negative stochastic interest rates in the CIR model,but there are no such restrictions possible in the Vasicek model.
C)It has extra parameters,so can fit observed yield curves better.
D)It allows for imperfect instantaneous correlation between rates of different maturities,whereas in the Vasicek model,they are perfectly correlated.
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12
The Ho & Lee (1986)model directly models the following on a binomial tree:

A)Yields.
B)Discount functions.
C)Zero-coupon rates.
D)Forward rates.
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13
In the Ho & Lee (1986)model,assume that the initial curve of zero-coupon rates for one and two years is 6% and 7%,respectively.Assume that the probability of an upshift in discount functions is equal to that of a downshift.If the parameter <strong>In the Ho & Lee (1986)model,assume that the initial curve of zero-coupon rates for one and two years is 6% and 7%,respectively.Assume that the probability of an upshift in discount functions is equal to that of a downshift.If the parameter   ,then the price of a one-year maturity call option on a two-year $100 face value zero-coupon bond in the up node after one year at a strike of $92 will be</strong> A)1.10 B)1.20 C)1.30 D)1.40 ,then the price of a one-year maturity call option on a two-year $100 face value zero-coupon bond in the up node after one year at a strike of $92 will be

A)1.10
B)1.20
C)1.30
D)1.40
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14
In the CIR (1985)model,which of the following statements is true? The price of the bond increases when

A)The short rate <strong>In the CIR (1985)model,which of the following statements is true? The price of the bond increases when</strong> A)The short rate   Increases. B)The rate of mean reversion   Rises. C)The long-run mean rate   Increases. D)The volatility   Increases.
Increases.
B)The rate of mean reversion <strong>In the CIR (1985)model,which of the following statements is true? The price of the bond increases when</strong> A)The short rate   Increases. B)The rate of mean reversion   Rises. C)The long-run mean rate   Increases. D)The volatility   Increases.
Rises.
C)The long-run mean rate <strong>In the CIR (1985)model,which of the following statements is true? The price of the bond increases when</strong> A)The short rate   Increases. B)The rate of mean reversion   Rises. C)The long-run mean rate   Increases. D)The volatility   Increases.
Increases.
D)The volatility <strong>In the CIR (1985)model,which of the following statements is true? The price of the bond increases when</strong> A)The short rate   Increases. B)The rate of mean reversion   Rises. C)The long-run mean rate   Increases. D)The volatility   Increases.
Increases.
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15
Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be <strong>Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be   .At what strike price will one-year maturity call and put options on a 7.5% coupon (annual pay)bond at a strike of $100 (ex-coupon)have equal prices?</strong> A)$98.32 B)$99.52 C)$100.12 D)$101.42 .At what strike price will one-year maturity call and put options on a 7.5% coupon (annual pay)bond at a strike of $100 (ex-coupon)have equal prices?

A)$98.32
B)$99.52
C)$100.12
D)$101.42
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16
In the Black-Derman-Toy (BDT)model,short rates have

A)Constant volatility for all maturities.
B)Volatility that changes by maturity of the short rate.
C)Volatility that varies by maturity and level of the short rate,i.e. ,state-dependent volatility.
D)Stochastic volatility.
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17
In the Vasieck (1977)model,you are given that <strong>In the Vasieck (1977)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected standard deviation of the short rate of interest one year hence?</strong> A)0.08 B)0.09 C)0.10 D)0.11 where <strong>In the Vasieck (1977)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected standard deviation of the short rate of interest one year hence?</strong> A)0.08 B)0.09 C)0.10 D)0.11 , <strong>In the Vasieck (1977)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected standard deviation of the short rate of interest one year hence?</strong> A)0.08 B)0.09 C)0.10 D)0.11 , <strong>In the Vasieck (1977)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected standard deviation of the short rate of interest one year hence?</strong> A)0.08 B)0.09 C)0.10 D)0.11 ,and the current short rate of interest is <strong>In the Vasieck (1977)model,you are given that   where   ,   ,   ,and the current short rate of interest is   .What is the expected standard deviation of the short rate of interest one year hence?</strong> A)0.08 B)0.09 C)0.10 D)0.11 .What is the expected standard deviation of the short rate of interest one year hence?

A)0.08
B)0.09
C)0.10
D)0.11
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18
Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be <strong>Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be   .What is the price of a one-year maturity cap on the one-year interest rate at a strike rate of 8% and a notional of $100?</strong> A)1.000 B)1.025 C)1.050 D)1.075 .What is the price of a one-year maturity cap on the one-year interest rate at a strike rate of 8% and a notional of $100?

A)1.000
B)1.025
C)1.050
D)1.075
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19
Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be <strong>Assume annual compounding.The one-year and two-year zero-coupon rates in the BDT model are 6% and 7%.The volatility is given to be   .What is the price of a one-year maturity floor on the one-year interest rate at a strike rate of 8% and a notional of $100?</strong> A)1.000 B)1.026 C)1.052 D)1.078 .What is the price of a one-year maturity floor on the one-year interest rate at a strike rate of 8% and a notional of $100?

A)1.000
B)1.026
C)1.052
D)1.078
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20
A one-factor bond pricing model implies that interest-rates of all maturities are driven by a single source of stochastic randomness.For example the system of interest rates may be described by the following equation: <strong>A one-factor bond pricing model implies that interest-rates of all maturities are driven by a single source of stochastic randomness.For example the system of interest rates may be described by the following equation:   where   denotes the maturity of different rates.A single-factor model implies that</strong> A)All rates either move up together or all move down together. B)The yield curve experience parallel shifts. C)Instantaneous changes in rates of all maturities are perfectly positively or negatively correlated with each other. D)Twists in shape of the yield curve are not possible. where <strong>A one-factor bond pricing model implies that interest-rates of all maturities are driven by a single source of stochastic randomness.For example the system of interest rates may be described by the following equation:   where   denotes the maturity of different rates.A single-factor model implies that</strong> A)All rates either move up together or all move down together. B)The yield curve experience parallel shifts. C)Instantaneous changes in rates of all maturities are perfectly positively or negatively correlated with each other. D)Twists in shape of the yield curve are not possible. denotes the maturity of different rates.A single-factor model implies that

A)All rates either move up together or all move down together.
B)The yield curve experience parallel shifts.
C)Instantaneous changes in rates of all maturities are perfectly positively or negatively correlated with each other.
D)Twists in shape of the yield curve are not possible.
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21
In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   .If the yield of a five-year bond is   ,then what is the price of the bond?</strong> A)0.65 B)0.70 C)0.75 D)0.80 where <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   .If the yield of a five-year bond is   ,then what is the price of the bond?</strong> A)0.65 B)0.70 C)0.75 D)0.80 , <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   .If the yield of a five-year bond is   ,then what is the price of the bond?</strong> A)0.65 B)0.70 C)0.75 D)0.80 , <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   .If the yield of a five-year bond is   ,then what is the price of the bond?</strong> A)0.65 B)0.70 C)0.75 D)0.80 .If the yield of a five-year bond is <strong>In the Cox-Ingersoll-Ross (CIR 1985)model,you are given that   where   ,   ,   .If the yield of a five-year bond is   ,then what is the price of the bond?</strong> A)0.65 B)0.70 C)0.75 D)0.80 ,then what is the price of the bond?

A)0.65
B)0.70
C)0.75
D)0.80
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22
An affine factor model is one in which multiple factors <strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield. may be present.Which of the following is not true of an affine factor model.

A)The drift <strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield.
Will be linear in
<strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield.
)
B)The volatility <strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield.
Will be linear in
<strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield.
)
C)The yield <strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield.
Will be linear in
<strong>An affine factor model is one in which multiple factors   may be present.Which of the following is not true of an affine factor model.</strong> A)The drift   Will be linear in   ) B)The volatility   Will be linear in   ) C)The yield   Will be linear in   ) D)The logarithm of the price scaled by maturity is the yield.
)
D)The logarithm of the price scaled by maturity is the yield.
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