Deck 25: Decision Analysis

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Question
Salaries for employees would be considered a state of nature for a business firm.
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Question
A payoff table lists the monetary values for each possible combination of:

A) mean and median.
B) mean and standard deviation.
C) event (state of nature) and act (alternative).
D) None of these choices are correct
Question
We calculate the expected payoff with perfect information (EPPI) by multiplying the probability of each state of nature by the largest payoff associated with that state of nature, and then summing the products.
Question
In decision analysis, the alternatives are referred to as events and the states of nature are referred to as acts.
Question
Which of the following would be considered a state of nature for a business firm?

A) Inventory levels.
B) Salaries for employees.
C) Site for new plant.
D) Worker safety laws.
Question
The expected value of perfect information (EVPI) is always the same as the expected opportunity loss for the best alternative. That is, EVPI = EOL*.
Question
The expected value of perfect information (EVPI) is the difference between the expected payoff with perfect information (EPPI) and the expected monetary value (EMV*). That is,
EVPI = EPPI - EMV*.
Question
Which of the following statements is correct?

A) The EMV criterion selects the act with the smallest expected monetary value.
B) The EOL criterion selects the act with the smallest expected opportunity loss.
C) The expected value of perfect information (EVPI) equals the largest expected opportunity loss.
D) All these choices are correct.
Question
Which of the following best describes the expected value of sample information (EVSI)?

A) EVSI is the expected payoff with perfect information (EPPI) and the expected monetary value for the best decision (EMV*).
B) EVSI is the expected monetary value with additional information (EMV´) and the expected monetary value for the best decision (EMV*).
C) EVSI is the posterior probabilities and the prior probabilities of the states of nature.
D) EVSI is the expected value of perfect information (EVPI) and the smallest expected opportunity loss (EOL*).
Question
In most business situations, the choice of the best alternative will be made under conditions of risk and ignorance.
Question
Which of the following statements is correct?

A) The expected value of perfect information (EVPI) equals the largest expected monetary value (EMV*).
B) The expected value of perfect information (EVPI) equals the smallest expected opportunity loss (EOL*).
C) The expected value of perfect information (EVPI) equals the expected payoff with perfect information (EPPI).
D) All of these choices are correct.
Question
The expected monetary value (EMV) of a decision alternative is the sum of the products of the payoffs and the state-of-nature probabilities.
Question
Which of the following would not be considered a state of nature for a business firm?

A) ASIC regulations.
B) OH&S regulations.
C) The number of employees to hire
D) Minimum wage regulations.
Question
The expected value of perfect information (EVPI) equals the largest expected opportunity loss (EOL*).
Question
In most business situations, the choice of the best alternative will be made under conditions of:

A) ignorance.
B) uncertainty.
C) risk.
D) business cycles.
Question
The payoff table is a table in which the rows are states of nature, the columns are decision alternatives, and the entry at each intersection of a row and column is a numerical payoff such as a profit or loss.
Question
The number of administration staff to employ would be considered a state of nature for a business firm.
Question
Which of the following best describes a decision tree?

A) A decision tree is a useful device for calculating probabilities.
B) A decision tree uses branches to represent both acts and states of nature.
C) The payoffs are shown at the end of branches of a decision tree.
D) All of these choices are correct.
Question
Which of the following statements is the same as the expected opportunity loss for the best alternative?

A) The expected monetary value for the best alternative.
B) The expected monetary value for the worst alternative.
C) The expected opportunity loss for the worst alternative.
D) The expected value of perfect information.
Question
The expected monetary value (EMV) decision is always the same as the expected opportunity loss (EOL) decision, simply because the opportunity loss table is produced directly from the payoff table.
Question
We can use the payoff table to calculate the expected monetary value (EMV) and the expected opportunity loss (EOL) of each act (alternative).
Question
If EMV( a1a _ { 1 } ) = $50 000, EMV( a2a _ { 2 } ) = $65 000, and EMV( a3a _ { 3 } ) = $45 000, then EMV* = $160 000.
Question
The objective of a preposterior analysis is to determine whether the value of the prediction is greater or less than the cost of the information.
Question
The expected value of sample information (EVSI) is the difference between the expected monetary value with additional information (EMV´)and the expected monetary value without additional information (EMV*). That is, EVSI = EMV´ - EMV*.
Question
Define the term payoff table.
Question
An opportunity loss is the difference between what the decision maker's profit for an act (alternative) is and what the profit could have been had the best decision been made.
Question
Define the expected monetary value (EMV) of a decision alternative.
Question
Incentive programs for sales staff would be considered a state of nature for a business firm.
Question
The expected payoff with perfect information (EPPI) represents the maximum amount a decision maker would be willing to pay for perfect information.
Question
Define the expected payoff with perfect information (EPPI).
Question
Define expected opportunity loss, EOL.
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Since the expected monetary value decision is always the same as the expected opportunity loss decision, then EMV*( aia _ { i } ) = EOL*( aia _ { i } ), for any alternative aia _ { i } .
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If EOL( a1a _ { 1 } ) = $13 000, EOL( a2a _ { 2 } ) = $25 000 and EOL( a3a _ { 3 } ) = $20 000, then EOL* = $25 000.
Question
In making decisions, we choose the decision with the smallest expected monetary value, or the largest expected opportunity loss.
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Opportunity loss is the difference between what the decision maker's payoff for an act is and what the payoff would have been had the best decision been made.
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In general, the expected monetary values (EMV) do not represent possible payoffs.
Question
Define the expected value of perfect information (EVPI).
Question
Worker safety laws would be considered a state of nature for a business firm.
Question
The prior probabilities determine whether or not sample information should be purchased to revise the posterior probabilities associated with the state of nature.
Question
In general, the branches of a decision tree represent stages of events.
Question
A payoff table is shown below. A payoff table is shown below.   The following prior probabilities are assigned to the states of nature: P(   ) = 0.2, P(   ) = 0.7, P(   ) = 0.1. a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> The following prior probabilities are assigned to the states of nature:
P( A payoff table is shown below.   The following prior probabilities are assigned to the states of nature: P(   ) = 0.2, P(   ) = 0.7, P(   ) = 0.1. a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> ) = 0.2, P( A payoff table is shown below.   The following prior probabilities are assigned to the states of nature: P(   ) = 0.2, P(   ) = 0.7, P(   ) = 0.1. a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> ) = 0.7, P( A payoff table is shown below.   The following prior probabilities are assigned to the states of nature: P(   ) = 0.2, P(   ) = 0.7, P(   ) = 0.1. a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> ) = 0.1.
a. Determine the EMV decision.
b. Set up the opportunity loss table.
c. Determine the EOL decision.
d. What is the expected payoff with perfect information?
e. What is the expected value of perfect information?
Question
The following table displays the payoffs (in thousands of dollars) for five different decision alternatives under three possible states of nature: The following table displays the payoffs (in thousands of dollars) for five different decision alternatives under three possible states of nature:   The prior probabilities of the states of nature are: P(   ) = 0.2, P(   ) = 0.3, P(   ) = 0.5 a. Calculate the expected monetary value for each alternative with present information. What decision should be made using the EMV criterion? b. Calculate the expected payoff with perfect information. c. Calculate the expected value of perfect information. d. Convert the payoff table to an opportunity loss table. e. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion?<div style=padding-top: 35px> The prior probabilities of the states of nature are:
P( The following table displays the payoffs (in thousands of dollars) for five different decision alternatives under three possible states of nature:   The prior probabilities of the states of nature are: P(   ) = 0.2, P(   ) = 0.3, P(   ) = 0.5 a. Calculate the expected monetary value for each alternative with present information. What decision should be made using the EMV criterion? b. Calculate the expected payoff with perfect information. c. Calculate the expected value of perfect information. d. Convert the payoff table to an opportunity loss table. e. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion?<div style=padding-top: 35px> ) = 0.2, P( The following table displays the payoffs (in thousands of dollars) for five different decision alternatives under three possible states of nature:   The prior probabilities of the states of nature are: P(   ) = 0.2, P(   ) = 0.3, P(   ) = 0.5 a. Calculate the expected monetary value for each alternative with present information. What decision should be made using the EMV criterion? b. Calculate the expected payoff with perfect information. c. Calculate the expected value of perfect information. d. Convert the payoff table to an opportunity loss table. e. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion?<div style=padding-top: 35px> ) = 0.3, P( The following table displays the payoffs (in thousands of dollars) for five different decision alternatives under three possible states of nature:   The prior probabilities of the states of nature are: P(   ) = 0.2, P(   ) = 0.3, P(   ) = 0.5 a. Calculate the expected monetary value for each alternative with present information. What decision should be made using the EMV criterion? b. Calculate the expected payoff with perfect information. c. Calculate the expected value of perfect information. d. Convert the payoff table to an opportunity loss table. e. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion?<div style=padding-top: 35px> ) = 0.5
a. Calculate the expected monetary value for each alternative with present information. What decision should be made using the EMV criterion?
b. Calculate the expected payoff with perfect information.
c. Calculate the expected value of perfect information.
d. Convert the payoff table to an opportunity loss table.
e. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion?
Question
A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below.
Payoff Table:  Alternative  State of Nature a1a2a3s1s2s380120960130170200140100\begin{array}{ll}&\text { Alternative }\\\text { State of Nature }&\quad a_1\quad\quad a_2\quad\quad a_3\\\begin{array}{ll}s_1\\s_2\\s_3\end{array}&\begin{array}{|lll|}\hline80\quad&120\quad&9\quad \\60&130&170\\200&140&100\\\hline\end{array}\end{array}
Prior Probabilities:
P( s1s _ { 1 } ) = 0.4, P( S2S _ { 2 } ) = 0.5, P( S3S _ { 3 } ) = 0.1.
Likelihood Probabilities: I1I2I3s1s2s30.50.30.20.20.60.20.10.20.7\begin{array}{ll}&\quad I_1\quad\quad I_2\quad\quad I_3\\\begin{array}{ll}s_1\\s_2\\s_3\end{array}&\begin{array}{|lll|}\hline0.5\quad&0.3\quad&0.2\quad \\0.2&0.6&0.2\\0.1&0.2&0.7\\\hline\end{array}\end{array}
A) Use the prior and likelihood probabilities to calculate the posterior probabilities for the experimental outcome I1I _ { 1 } .
B) Use the posterior probabilities from a. to recalculate the expected monetary value of each act, then determine the optimal act and the EMV*.
C) Use the prior and likelihood probabilities to calculate the posterior probabilities for the experimental outcome I2I _ { 2 } .
D) Use the posterior probabilities from c. to recalculate the expected monetary value of each act, then determine the optimal act and the EMV*.
E) Use the prior and likelihood probabilities to calculate the posterior probabilities for the experimental outcome I3I _ { 3 } .
F) Use the posterior probabilities from e. to recalculate the expected monetary value of each act, then determine the optimal act and the EMV*.
G) Use your answers to parts a. to f. to calculate the expected monetary value with additional information.
H) Calculate the expected value of sample information.
Question
Describe how to use a decision tree.
Question
A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below.
Payoff Table: A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.5, P(   ) = 0.1. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> Prior Probabilities:
P( A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.5, P(   ) = 0.1. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> ) = 0.4, P( A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.5, P(   ) = 0.1. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> ) = 0.5, P( A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.5, P(   ) = 0.1. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> ) = 0.1.
Likelihood Probabilities: A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.5, P(   ) = 0.1. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> a. Determine the EMV decision.
b. Set up the opportunity loss table.
c. Determine the EOL decision.
d. What is the expected payoff with perfect information?
e. What is the expected value of perfect information?
Question
A payoff table, the prior probabilities for two states of nature, and the likelihood probabilities are shown below.
Payoff Table: A payoff table, the prior probabilities for two states of nature, and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.6. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> Prior Probabilities:
P( A payoff table, the prior probabilities for two states of nature, and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.6. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> ) = 0.4, P( A payoff table, the prior probabilities for two states of nature, and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.6. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> ) = 0.6.
Likelihood Probabilities: A payoff table, the prior probabilities for two states of nature, and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.6. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> a. Determine the EMV decision.
b. Set up the opportunity loss table.
c. Determine the EOL decision.
d. What is the expected payoff with perfect information?
e. What is the expected value of perfect information?
Question
Three different designs are being considered for a new refrigerator, and profits will depend on the combination of the refrigerator design and market condition. The following payoff table summarises the decision situation, with amounts in millions of dollars. Three different designs are being considered for a new refrigerator, and profits will depend on the combination of the refrigerator design and market condition. The following payoff table summarises the decision situation, with amounts in millions of dollars.   Assume that the following probabilities are assigned to the three market conditions: P(   ) = 0.2, P(   ) = 0.4, P(   ) = 0.4. a. Calculate the expected monetary value for each design with present information. Which design should be selected in order to maximise the firm's expected profit? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each design with present information. Which design should be selected in order to minimise the firm's expected loss? d. Determine the expected payoff that would be realised if perfect information were available. e. What is the most the firm would be willing to pay for a research study designed to reduce its uncertainty about market conditions?<div style=padding-top: 35px> Assume that the following probabilities are assigned to the three market conditions:
P( Three different designs are being considered for a new refrigerator, and profits will depend on the combination of the refrigerator design and market condition. The following payoff table summarises the decision situation, with amounts in millions of dollars.   Assume that the following probabilities are assigned to the three market conditions: P(   ) = 0.2, P(   ) = 0.4, P(   ) = 0.4. a. Calculate the expected monetary value for each design with present information. Which design should be selected in order to maximise the firm's expected profit? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each design with present information. Which design should be selected in order to minimise the firm's expected loss? d. Determine the expected payoff that would be realised if perfect information were available. e. What is the most the firm would be willing to pay for a research study designed to reduce its uncertainty about market conditions?<div style=padding-top: 35px> ) = 0.2, P( Three different designs are being considered for a new refrigerator, and profits will depend on the combination of the refrigerator design and market condition. The following payoff table summarises the decision situation, with amounts in millions of dollars.   Assume that the following probabilities are assigned to the three market conditions: P(   ) = 0.2, P(   ) = 0.4, P(   ) = 0.4. a. Calculate the expected monetary value for each design with present information. Which design should be selected in order to maximise the firm's expected profit? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each design with present information. Which design should be selected in order to minimise the firm's expected loss? d. Determine the expected payoff that would be realised if perfect information were available. e. What is the most the firm would be willing to pay for a research study designed to reduce its uncertainty about market conditions?<div style=padding-top: 35px> ) = 0.4, P( Three different designs are being considered for a new refrigerator, and profits will depend on the combination of the refrigerator design and market condition. The following payoff table summarises the decision situation, with amounts in millions of dollars.   Assume that the following probabilities are assigned to the three market conditions: P(   ) = 0.2, P(   ) = 0.4, P(   ) = 0.4. a. Calculate the expected monetary value for each design with present information. Which design should be selected in order to maximise the firm's expected profit? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each design with present information. Which design should be selected in order to minimise the firm's expected loss? d. Determine the expected payoff that would be realised if perfect information were available. e. What is the most the firm would be willing to pay for a research study designed to reduce its uncertainty about market conditions?<div style=padding-top: 35px> ) = 0.4.
a. Calculate the expected monetary value for each design with present information. Which design should be selected in order to maximise the firm's expected profit?
b. Convert the payoff table to an opportunity loss table.
c. Calculate the expected opportunity loss for each design with present information. Which design should be selected in order to minimise the firm's expected loss?
d. Determine the expected payoff that would be realised if perfect information were available.
e. What is the most the firm would be willing to pay for a research study designed to reduce its uncertainty about market conditions?
Question
A high-school student who started doing photography as a hobby is considering going into the photography business. The anticipated payoff table is: A high-school student who started doing photography as a hobby is considering going into the photography business. The anticipated payoff table is:   The following prior probabilities are assigned to the states of nature: P(poor) = 0.4, P(fair) = 0.4 , P(super) = 0.2. a. Calculate the expected monetary value for each act with present information. What decision should be made using the EMV criterion? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion? d. Review the decisions made in a. and c. Is this a coincidence? Explain. e. What is the expected payoff with perfect information? f. What is the expected value of perfect information? What does it mean?<div style=padding-top: 35px> The following prior probabilities are assigned to the states of nature:
P(poor) = 0.4, P(fair) = 0.4 , P(super) = 0.2.
a. Calculate the expected monetary value for each act with present information. What decision should be made using the EMV criterion?
b. Convert the payoff table to an opportunity loss table.
c. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion?
d. Review the decisions made in a. and c. Is this a coincidence? Explain.
e. What is the expected payoff with perfect information?
f. What is the expected value of perfect information? What does it mean?
Question
A payoff table, the prior probabilities for two states of nature, and the likelihood probabilities are shown below.
Payoff Table:  Alternative  State of Nature a1a2a3s1s20.950.05330.080.9225\begin{array}{ll}&\text { Alternative }\\\text { State of Nature }&\quad a_1\quad\quad a_2\quad\quad a_3\\\begin{array}{ll}s_1\\s_2\end{array}&\begin{array}{|lll|}\hline 0.95 & 0.05&33 \\0.08 & 0.92 &25\\\hline\end{array}\end{array}
Prior Probabilities:
P( s1s _ { 1 } ) = 0.4, P( S2S _ { 2 } ) = 0.6.
Likelihood Probabilities: I1I2s1s20.950.050.080.92\begin{array}{ll}&\quad I_1\quad\quad I_2\\\begin{array}{ll}s_1\\s_2\end{array}&\begin{array}{|ll|}\hline 0.95 & 0.05 \\0.08 & 0.92 \\\hline\end{array}\end{array}
A) Use the prior and likelihood probabilities to calculate the posterior probabilities for the experimental outcome I1I _ { 1 } .
B) Use the posterior probabilities from a. to recalculate the expected monetary value of each act, then determine the optimal act and the EMV*.
C) Use the prior and likelihood probabilities to calculate the posterior probabilities for the experimental outcome I2I _ { 2 } .
D) Use the posterior probabilities from c. to recalculate the expected monetary value of each act, then determine the optimal act and the  EMV \text { EMV } ^ { * } .
E) Use your answers to parts a. to d. to calculate the expected monetary value with additional information.
F) Calculate the expected value of sample information.
Question
A company must decide whether or not to change its packaging to a more environmentally safe material. The impact of the decision on profits depends on which of the following three possible scenarios develops in the future.
Scenario 1:
The media do not focus heavily on concerns about packaging, and no new laws requiring changes in packaging are passed. Under this scenario, the company will make $35 million if they change their packaging now, but will make $75 million if they do not change their packaging now.
Scenario 2:
The media focus heavily on concerns about packaging, and no new laws requiring changes in packaging are passed. Under this scenario, the company will make $50 million if they change their packaging now, but will make $55 million if they do not change their packaging now.
Scenario 3:
The media focus heavily on concerns about packaging, and new laws requiring changes in packaging are passed. Under this scenario, the company will make $60 million if they change their packaging now, but will make only $15 million if they do not change their packaging now.
The prior probabilities of the three scenarios are 0.3, 0.5 and 0.2, respectively.
a. Develop a payoff table for this decision situation.
b. What decision will be made to maximise expected payoff?
c. What is the most the company should be willing to pay for a research study designed to reduce its uncertainty about media and legal developments concerning packaging?
d. Set up the opportunity loss table.
e. Which decision has the minimum expected opportunity loss?
Question
A payoff table is shown below: A payoff table is shown below:   The following prior probabilities are assigned to the states of nature: P(   ) = 0.3, P(   ) = 0.7. a. Calculate the expected monetary value for each act with present information. What decision should be made using the EMV criterion? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion? d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> The following prior probabilities are assigned to the states of nature:
P( A payoff table is shown below:   The following prior probabilities are assigned to the states of nature: P(   ) = 0.3, P(   ) = 0.7. a. Calculate the expected monetary value for each act with present information. What decision should be made using the EMV criterion? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion? d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> ) = 0.3, P( A payoff table is shown below:   The following prior probabilities are assigned to the states of nature: P(   ) = 0.3, P(   ) = 0.7. a. Calculate the expected monetary value for each act with present information. What decision should be made using the EMV criterion? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion? d. What is the expected payoff with perfect information? e. What is the expected value of perfect information?<div style=padding-top: 35px> ) = 0.7.
a. Calculate the expected monetary value for each act with present information. What decision should be made using the EMV criterion?
b. Convert the payoff table to an opportunity loss table.
c. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion?
d. What is the expected payoff with perfect information?
e. What is the expected value of perfect information?
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Deck 25: Decision Analysis
1
Salaries for employees would be considered a state of nature for a business firm.
False
2
A payoff table lists the monetary values for each possible combination of:

A) mean and median.
B) mean and standard deviation.
C) event (state of nature) and act (alternative).
D) None of these choices are correct
C
3
We calculate the expected payoff with perfect information (EPPI) by multiplying the probability of each state of nature by the largest payoff associated with that state of nature, and then summing the products.
True
4
In decision analysis, the alternatives are referred to as events and the states of nature are referred to as acts.
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5
Which of the following would be considered a state of nature for a business firm?

A) Inventory levels.
B) Salaries for employees.
C) Site for new plant.
D) Worker safety laws.
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6
The expected value of perfect information (EVPI) is always the same as the expected opportunity loss for the best alternative. That is, EVPI = EOL*.
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7
The expected value of perfect information (EVPI) is the difference between the expected payoff with perfect information (EPPI) and the expected monetary value (EMV*). That is,
EVPI = EPPI - EMV*.
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8
Which of the following statements is correct?

A) The EMV criterion selects the act with the smallest expected monetary value.
B) The EOL criterion selects the act with the smallest expected opportunity loss.
C) The expected value of perfect information (EVPI) equals the largest expected opportunity loss.
D) All these choices are correct.
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9
Which of the following best describes the expected value of sample information (EVSI)?

A) EVSI is the expected payoff with perfect information (EPPI) and the expected monetary value for the best decision (EMV*).
B) EVSI is the expected monetary value with additional information (EMV´) and the expected monetary value for the best decision (EMV*).
C) EVSI is the posterior probabilities and the prior probabilities of the states of nature.
D) EVSI is the expected value of perfect information (EVPI) and the smallest expected opportunity loss (EOL*).
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10
In most business situations, the choice of the best alternative will be made under conditions of risk and ignorance.
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11
Which of the following statements is correct?

A) The expected value of perfect information (EVPI) equals the largest expected monetary value (EMV*).
B) The expected value of perfect information (EVPI) equals the smallest expected opportunity loss (EOL*).
C) The expected value of perfect information (EVPI) equals the expected payoff with perfect information (EPPI).
D) All of these choices are correct.
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12
The expected monetary value (EMV) of a decision alternative is the sum of the products of the payoffs and the state-of-nature probabilities.
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13
Which of the following would not be considered a state of nature for a business firm?

A) ASIC regulations.
B) OH&S regulations.
C) The number of employees to hire
D) Minimum wage regulations.
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14
The expected value of perfect information (EVPI) equals the largest expected opportunity loss (EOL*).
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15
In most business situations, the choice of the best alternative will be made under conditions of:

A) ignorance.
B) uncertainty.
C) risk.
D) business cycles.
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16
The payoff table is a table in which the rows are states of nature, the columns are decision alternatives, and the entry at each intersection of a row and column is a numerical payoff such as a profit or loss.
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17
The number of administration staff to employ would be considered a state of nature for a business firm.
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18
Which of the following best describes a decision tree?

A) A decision tree is a useful device for calculating probabilities.
B) A decision tree uses branches to represent both acts and states of nature.
C) The payoffs are shown at the end of branches of a decision tree.
D) All of these choices are correct.
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19
Which of the following statements is the same as the expected opportunity loss for the best alternative?

A) The expected monetary value for the best alternative.
B) The expected monetary value for the worst alternative.
C) The expected opportunity loss for the worst alternative.
D) The expected value of perfect information.
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20
The expected monetary value (EMV) decision is always the same as the expected opportunity loss (EOL) decision, simply because the opportunity loss table is produced directly from the payoff table.
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21
We can use the payoff table to calculate the expected monetary value (EMV) and the expected opportunity loss (EOL) of each act (alternative).
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22
If EMV( a1a _ { 1 } ) = $50 000, EMV( a2a _ { 2 } ) = $65 000, and EMV( a3a _ { 3 } ) = $45 000, then EMV* = $160 000.
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23
The objective of a preposterior analysis is to determine whether the value of the prediction is greater or less than the cost of the information.
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24
The expected value of sample information (EVSI) is the difference between the expected monetary value with additional information (EMV´)and the expected monetary value without additional information (EMV*). That is, EVSI = EMV´ - EMV*.
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25
Define the term payoff table.
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26
An opportunity loss is the difference between what the decision maker's profit for an act (alternative) is and what the profit could have been had the best decision been made.
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27
Define the expected monetary value (EMV) of a decision alternative.
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28
Incentive programs for sales staff would be considered a state of nature for a business firm.
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29
The expected payoff with perfect information (EPPI) represents the maximum amount a decision maker would be willing to pay for perfect information.
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30
Define the expected payoff with perfect information (EPPI).
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31
Define expected opportunity loss, EOL.
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32
Since the expected monetary value decision is always the same as the expected opportunity loss decision, then EMV*( aia _ { i } ) = EOL*( aia _ { i } ), for any alternative aia _ { i } .
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33
If EOL( a1a _ { 1 } ) = $13 000, EOL( a2a _ { 2 } ) = $25 000 and EOL( a3a _ { 3 } ) = $20 000, then EOL* = $25 000.
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34
In making decisions, we choose the decision with the smallest expected monetary value, or the largest expected opportunity loss.
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35
Opportunity loss is the difference between what the decision maker's payoff for an act is and what the payoff would have been had the best decision been made.
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36
In general, the expected monetary values (EMV) do not represent possible payoffs.
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37
Define the expected value of perfect information (EVPI).
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38
Worker safety laws would be considered a state of nature for a business firm.
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39
The prior probabilities determine whether or not sample information should be purchased to revise the posterior probabilities associated with the state of nature.
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40
In general, the branches of a decision tree represent stages of events.
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41
A payoff table is shown below. A payoff table is shown below.   The following prior probabilities are assigned to the states of nature: P(   ) = 0.2, P(   ) = 0.7, P(   ) = 0.1. a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? The following prior probabilities are assigned to the states of nature:
P( A payoff table is shown below.   The following prior probabilities are assigned to the states of nature: P(   ) = 0.2, P(   ) = 0.7, P(   ) = 0.1. a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? ) = 0.2, P( A payoff table is shown below.   The following prior probabilities are assigned to the states of nature: P(   ) = 0.2, P(   ) = 0.7, P(   ) = 0.1. a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? ) = 0.7, P( A payoff table is shown below.   The following prior probabilities are assigned to the states of nature: P(   ) = 0.2, P(   ) = 0.7, P(   ) = 0.1. a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? ) = 0.1.
a. Determine the EMV decision.
b. Set up the opportunity loss table.
c. Determine the EOL decision.
d. What is the expected payoff with perfect information?
e. What is the expected value of perfect information?
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42
The following table displays the payoffs (in thousands of dollars) for five different decision alternatives under three possible states of nature: The following table displays the payoffs (in thousands of dollars) for five different decision alternatives under three possible states of nature:   The prior probabilities of the states of nature are: P(   ) = 0.2, P(   ) = 0.3, P(   ) = 0.5 a. Calculate the expected monetary value for each alternative with present information. What decision should be made using the EMV criterion? b. Calculate the expected payoff with perfect information. c. Calculate the expected value of perfect information. d. Convert the payoff table to an opportunity loss table. e. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion? The prior probabilities of the states of nature are:
P( The following table displays the payoffs (in thousands of dollars) for five different decision alternatives under three possible states of nature:   The prior probabilities of the states of nature are: P(   ) = 0.2, P(   ) = 0.3, P(   ) = 0.5 a. Calculate the expected monetary value for each alternative with present information. What decision should be made using the EMV criterion? b. Calculate the expected payoff with perfect information. c. Calculate the expected value of perfect information. d. Convert the payoff table to an opportunity loss table. e. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion? ) = 0.2, P( The following table displays the payoffs (in thousands of dollars) for five different decision alternatives under three possible states of nature:   The prior probabilities of the states of nature are: P(   ) = 0.2, P(   ) = 0.3, P(   ) = 0.5 a. Calculate the expected monetary value for each alternative with present information. What decision should be made using the EMV criterion? b. Calculate the expected payoff with perfect information. c. Calculate the expected value of perfect information. d. Convert the payoff table to an opportunity loss table. e. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion? ) = 0.3, P( The following table displays the payoffs (in thousands of dollars) for five different decision alternatives under three possible states of nature:   The prior probabilities of the states of nature are: P(   ) = 0.2, P(   ) = 0.3, P(   ) = 0.5 a. Calculate the expected monetary value for each alternative with present information. What decision should be made using the EMV criterion? b. Calculate the expected payoff with perfect information. c. Calculate the expected value of perfect information. d. Convert the payoff table to an opportunity loss table. e. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion? ) = 0.5
a. Calculate the expected monetary value for each alternative with present information. What decision should be made using the EMV criterion?
b. Calculate the expected payoff with perfect information.
c. Calculate the expected value of perfect information.
d. Convert the payoff table to an opportunity loss table.
e. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion?
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43
A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below.
Payoff Table:  Alternative  State of Nature a1a2a3s1s2s380120960130170200140100\begin{array}{ll}&\text { Alternative }\\\text { State of Nature }&\quad a_1\quad\quad a_2\quad\quad a_3\\\begin{array}{ll}s_1\\s_2\\s_3\end{array}&\begin{array}{|lll|}\hline80\quad&120\quad&9\quad \\60&130&170\\200&140&100\\\hline\end{array}\end{array}
Prior Probabilities:
P( s1s _ { 1 } ) = 0.4, P( S2S _ { 2 } ) = 0.5, P( S3S _ { 3 } ) = 0.1.
Likelihood Probabilities: I1I2I3s1s2s30.50.30.20.20.60.20.10.20.7\begin{array}{ll}&\quad I_1\quad\quad I_2\quad\quad I_3\\\begin{array}{ll}s_1\\s_2\\s_3\end{array}&\begin{array}{|lll|}\hline0.5\quad&0.3\quad&0.2\quad \\0.2&0.6&0.2\\0.1&0.2&0.7\\\hline\end{array}\end{array}
A) Use the prior and likelihood probabilities to calculate the posterior probabilities for the experimental outcome I1I _ { 1 } .
B) Use the posterior probabilities from a. to recalculate the expected monetary value of each act, then determine the optimal act and the EMV*.
C) Use the prior and likelihood probabilities to calculate the posterior probabilities for the experimental outcome I2I _ { 2 } .
D) Use the posterior probabilities from c. to recalculate the expected monetary value of each act, then determine the optimal act and the EMV*.
E) Use the prior and likelihood probabilities to calculate the posterior probabilities for the experimental outcome I3I _ { 3 } .
F) Use the posterior probabilities from e. to recalculate the expected monetary value of each act, then determine the optimal act and the EMV*.
G) Use your answers to parts a. to f. to calculate the expected monetary value with additional information.
H) Calculate the expected value of sample information.
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44
Describe how to use a decision tree.
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45
A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below.
Payoff Table: A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.5, P(   ) = 0.1. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? Prior Probabilities:
P( A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.5, P(   ) = 0.1. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? ) = 0.4, P( A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.5, P(   ) = 0.1. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? ) = 0.5, P( A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.5, P(   ) = 0.1. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? ) = 0.1.
Likelihood Probabilities: A payoff table, the prior probabilities for three states of nature and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.5, P(   ) = 0.1. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? a. Determine the EMV decision.
b. Set up the opportunity loss table.
c. Determine the EOL decision.
d. What is the expected payoff with perfect information?
e. What is the expected value of perfect information?
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46
A payoff table, the prior probabilities for two states of nature, and the likelihood probabilities are shown below.
Payoff Table: A payoff table, the prior probabilities for two states of nature, and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.6. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? Prior Probabilities:
P( A payoff table, the prior probabilities for two states of nature, and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.6. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? ) = 0.4, P( A payoff table, the prior probabilities for two states of nature, and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.6. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? ) = 0.6.
Likelihood Probabilities: A payoff table, the prior probabilities for two states of nature, and the likelihood probabilities are shown below. Payoff Table:   Prior Probabilities: P(   ) = 0.4, P(   ) = 0.6. Likelihood Probabilities:   a. Determine the EMV decision. b. Set up the opportunity loss table. c. Determine the EOL decision. d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? a. Determine the EMV decision.
b. Set up the opportunity loss table.
c. Determine the EOL decision.
d. What is the expected payoff with perfect information?
e. What is the expected value of perfect information?
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47
Three different designs are being considered for a new refrigerator, and profits will depend on the combination of the refrigerator design and market condition. The following payoff table summarises the decision situation, with amounts in millions of dollars. Three different designs are being considered for a new refrigerator, and profits will depend on the combination of the refrigerator design and market condition. The following payoff table summarises the decision situation, with amounts in millions of dollars.   Assume that the following probabilities are assigned to the three market conditions: P(   ) = 0.2, P(   ) = 0.4, P(   ) = 0.4. a. Calculate the expected monetary value for each design with present information. Which design should be selected in order to maximise the firm's expected profit? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each design with present information. Which design should be selected in order to minimise the firm's expected loss? d. Determine the expected payoff that would be realised if perfect information were available. e. What is the most the firm would be willing to pay for a research study designed to reduce its uncertainty about market conditions? Assume that the following probabilities are assigned to the three market conditions:
P( Three different designs are being considered for a new refrigerator, and profits will depend on the combination of the refrigerator design and market condition. The following payoff table summarises the decision situation, with amounts in millions of dollars.   Assume that the following probabilities are assigned to the three market conditions: P(   ) = 0.2, P(   ) = 0.4, P(   ) = 0.4. a. Calculate the expected monetary value for each design with present information. Which design should be selected in order to maximise the firm's expected profit? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each design with present information. Which design should be selected in order to minimise the firm's expected loss? d. Determine the expected payoff that would be realised if perfect information were available. e. What is the most the firm would be willing to pay for a research study designed to reduce its uncertainty about market conditions? ) = 0.2, P( Three different designs are being considered for a new refrigerator, and profits will depend on the combination of the refrigerator design and market condition. The following payoff table summarises the decision situation, with amounts in millions of dollars.   Assume that the following probabilities are assigned to the three market conditions: P(   ) = 0.2, P(   ) = 0.4, P(   ) = 0.4. a. Calculate the expected monetary value for each design with present information. Which design should be selected in order to maximise the firm's expected profit? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each design with present information. Which design should be selected in order to minimise the firm's expected loss? d. Determine the expected payoff that would be realised if perfect information were available. e. What is the most the firm would be willing to pay for a research study designed to reduce its uncertainty about market conditions? ) = 0.4, P( Three different designs are being considered for a new refrigerator, and profits will depend on the combination of the refrigerator design and market condition. The following payoff table summarises the decision situation, with amounts in millions of dollars.   Assume that the following probabilities are assigned to the three market conditions: P(   ) = 0.2, P(   ) = 0.4, P(   ) = 0.4. a. Calculate the expected monetary value for each design with present information. Which design should be selected in order to maximise the firm's expected profit? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each design with present information. Which design should be selected in order to minimise the firm's expected loss? d. Determine the expected payoff that would be realised if perfect information were available. e. What is the most the firm would be willing to pay for a research study designed to reduce its uncertainty about market conditions? ) = 0.4.
a. Calculate the expected monetary value for each design with present information. Which design should be selected in order to maximise the firm's expected profit?
b. Convert the payoff table to an opportunity loss table.
c. Calculate the expected opportunity loss for each design with present information. Which design should be selected in order to minimise the firm's expected loss?
d. Determine the expected payoff that would be realised if perfect information were available.
e. What is the most the firm would be willing to pay for a research study designed to reduce its uncertainty about market conditions?
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48
A high-school student who started doing photography as a hobby is considering going into the photography business. The anticipated payoff table is: A high-school student who started doing photography as a hobby is considering going into the photography business. The anticipated payoff table is:   The following prior probabilities are assigned to the states of nature: P(poor) = 0.4, P(fair) = 0.4 , P(super) = 0.2. a. Calculate the expected monetary value for each act with present information. What decision should be made using the EMV criterion? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion? d. Review the decisions made in a. and c. Is this a coincidence? Explain. e. What is the expected payoff with perfect information? f. What is the expected value of perfect information? What does it mean? The following prior probabilities are assigned to the states of nature:
P(poor) = 0.4, P(fair) = 0.4 , P(super) = 0.2.
a. Calculate the expected monetary value for each act with present information. What decision should be made using the EMV criterion?
b. Convert the payoff table to an opportunity loss table.
c. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion?
d. Review the decisions made in a. and c. Is this a coincidence? Explain.
e. What is the expected payoff with perfect information?
f. What is the expected value of perfect information? What does it mean?
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49
A payoff table, the prior probabilities for two states of nature, and the likelihood probabilities are shown below.
Payoff Table:  Alternative  State of Nature a1a2a3s1s20.950.05330.080.9225\begin{array}{ll}&\text { Alternative }\\\text { State of Nature }&\quad a_1\quad\quad a_2\quad\quad a_3\\\begin{array}{ll}s_1\\s_2\end{array}&\begin{array}{|lll|}\hline 0.95 & 0.05&33 \\0.08 & 0.92 &25\\\hline\end{array}\end{array}
Prior Probabilities:
P( s1s _ { 1 } ) = 0.4, P( S2S _ { 2 } ) = 0.6.
Likelihood Probabilities: I1I2s1s20.950.050.080.92\begin{array}{ll}&\quad I_1\quad\quad I_2\\\begin{array}{ll}s_1\\s_2\end{array}&\begin{array}{|ll|}\hline 0.95 & 0.05 \\0.08 & 0.92 \\\hline\end{array}\end{array}
A) Use the prior and likelihood probabilities to calculate the posterior probabilities for the experimental outcome I1I _ { 1 } .
B) Use the posterior probabilities from a. to recalculate the expected monetary value of each act, then determine the optimal act and the EMV*.
C) Use the prior and likelihood probabilities to calculate the posterior probabilities for the experimental outcome I2I _ { 2 } .
D) Use the posterior probabilities from c. to recalculate the expected monetary value of each act, then determine the optimal act and the  EMV \text { EMV } ^ { * } .
E) Use your answers to parts a. to d. to calculate the expected monetary value with additional information.
F) Calculate the expected value of sample information.
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50
A company must decide whether or not to change its packaging to a more environmentally safe material. The impact of the decision on profits depends on which of the following three possible scenarios develops in the future.
Scenario 1:
The media do not focus heavily on concerns about packaging, and no new laws requiring changes in packaging are passed. Under this scenario, the company will make $35 million if they change their packaging now, but will make $75 million if they do not change their packaging now.
Scenario 2:
The media focus heavily on concerns about packaging, and no new laws requiring changes in packaging are passed. Under this scenario, the company will make $50 million if they change their packaging now, but will make $55 million if they do not change their packaging now.
Scenario 3:
The media focus heavily on concerns about packaging, and new laws requiring changes in packaging are passed. Under this scenario, the company will make $60 million if they change their packaging now, but will make only $15 million if they do not change their packaging now.
The prior probabilities of the three scenarios are 0.3, 0.5 and 0.2, respectively.
a. Develop a payoff table for this decision situation.
b. What decision will be made to maximise expected payoff?
c. What is the most the company should be willing to pay for a research study designed to reduce its uncertainty about media and legal developments concerning packaging?
d. Set up the opportunity loss table.
e. Which decision has the minimum expected opportunity loss?
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51
A payoff table is shown below: A payoff table is shown below:   The following prior probabilities are assigned to the states of nature: P(   ) = 0.3, P(   ) = 0.7. a. Calculate the expected monetary value for each act with present information. What decision should be made using the EMV criterion? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion? d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? The following prior probabilities are assigned to the states of nature:
P( A payoff table is shown below:   The following prior probabilities are assigned to the states of nature: P(   ) = 0.3, P(   ) = 0.7. a. Calculate the expected monetary value for each act with present information. What decision should be made using the EMV criterion? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion? d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? ) = 0.3, P( A payoff table is shown below:   The following prior probabilities are assigned to the states of nature: P(   ) = 0.3, P(   ) = 0.7. a. Calculate the expected monetary value for each act with present information. What decision should be made using the EMV criterion? b. Convert the payoff table to an opportunity loss table. c. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion? d. What is the expected payoff with perfect information? e. What is the expected value of perfect information? ) = 0.7.
a. Calculate the expected monetary value for each act with present information. What decision should be made using the EMV criterion?
b. Convert the payoff table to an opportunity loss table.
c. Calculate the expected opportunity loss for each act with present information. What decision should be made using the EOL criterion?
d. What is the expected payoff with perfect information?
e. What is the expected value of perfect information?
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