Consider a Prisoners' Dilemma game involving two players, N = {1,2}, each of whommay choose either to co-operate (C) or to defect (D). The payoffs this game areillustrated in the below table. Player 1 receives the first listed payoff in each cell whileplayer 2 receives the second listed payoff in each cell.2с3,34,0D0,41, 1a. Solve for the pure strategy Nash equilibrium of this static game. Are theplayers able to co-operate with one another? Explain why or why not.Suppose now that the above game is repeated infinitely many times and let 8 > 0denote the common discount factor between periods. Suppose that the two playersmake the following agreement:"Play C in every period. If D is ever played, play D in every period thereafter."b. Explain how the one-deviation principle can be used to check whether theabove agreement represents a subgame perfect Nash equilibrium of theinfinitely repeated game.c. Use the method described in part b. of this question to calculate the values ofthe discount factor & for which the above agreement is indeed a subgameperfect Nash equilibrium of the infinitely repeated game.

There are two players in the game : Player 1 & 2 Strategy Set of player 1 = Strategy Set of…

Consider a Prisoners' Dilemma game involving two players, N = {1,2), each of whom may choose either to co-operate (C) or to defect (D). The payoffs in this game are illustrated in the below table. Player 1 receives the first listed payoff in each cell while player 2 receives the second listed payoff in each cell. 2 с 3,3 4,0 D 0,4 1,1 a. Solve for the pure strategy Nash equilibrium of this static game. Are the

Consider a Prisoners' Dilemma game involving two players, N = {1,2), each of whom may choose either to co-operate (C) or to defect (D). The payoffs in this game are illustrated in the below table. Player 1 receives the first listed payoff in each cell while player 2 receives the second listed payoff in each cell. 2 с 3,3 4,0 D 0,4 1,1 a. Solve for the pure strategy Nash equilibrium of this static game. Are the

Microeconomic Theory

12th Edition

ISBN:9781337517942

Author:NICHOLSON

Publisher:NICHOLSON

Chapter15: Imperfect Competition

Section: Chapter Questions

Problem 15.5P

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Suppose two players play a two-period repeated game, where the stage game is the normal-form game shown below. Is there a subgame perfect Nash equilibrium in which the players select (A, X) in the first period? If so, fully describe such equilibrium. If not, explain why not. Player 1 has choice A, B; Player 2 has choice X, Y, Z. Payoff: (A,X)-(5,7), (A,Y)-(2,4), (A,Z)-(3,8), (B,X)-(1,4), (B,Y)-(3,5), (B,Z)-(1,4)
if Y = 4 (a) If ⟨a,d⟩ is played in the first period and ⟨b,e⟩ is played in the second period, what is the resulting (repeated game) payoff for the row player? (b) What is the highest payoff any player can receive in any subgame perfect Nash equilibrium of the repeated game?
Consider the following game. There are two payers, Player 1 and Player 2. Player 1 chooses a row (10, 20, or 30), and Player 2 chooses a column (10/20/30). Payoffs are in the cells of the table, with those on the left going to Player 1 and those on the right going to player 2. For example, a payoff 100/200 would mean Player 1 receives 100 and Player 2 receives 200.What is [are] the Nash Equilibrium [Equilibria] of this game?A) (10/10) and (20/20)B) (30/30)C) (10/20) and (20/10)D) (20/20)E) (30/30)
PLAYER B LEFT RIGHT UP 5 FOR A, 30 FOR B 10 FOR A, 12 FOR B PLAYER A DOWN -2 FOR A, 10 FOR B 8 FOR A, 15 FOR B In the above game, the players are seeking to maximize the number they recieve. They choose at the same time. What is the Nash equillibrium? Player A will choose UP and player B will choose LEFT Player A will UP and player B will choose RIGHT Player A will choose DOWN and player B will choose LEFT Player A will choose DOWN and player B will choose RIGHT Player A will choose LEFT and player B will choose UP Player A will choose LEFT and player B will choose DOWN Player A will choose RIGHT and player B will choose UP Player A will choose RIGHT and player B will choose DOWN
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Suppose Carlos and Deborah are playing a game in which both must simultaneously choose the action Left or Right. The payoff matrix that follows shows the payoff each person will earn as a function of both of their choices. For example, the lower-right cell shows that if Carlos chooses Right and Deborah chooses Right, Carlos will receive a payoff of 7 and Deborah will receive a payoff of 6. The only dominant strategy in this game is for ____ to choose ____ . The outcome reflecting the unique Nash equilibrium in this game is as follows: Carlos chooses ____ and Deborah chooses ____ .
if Y =4 (b) What is the highest payoff any player can receive in any subgame perfect Nash equilibrium of the repeated game?
Consider the following simultaneous move game where player 1 has two types. Player 2 does not know if he is playing with type a player 1 or type b player 1. Find the all the possible Bayesian Nash Equilibriums (BNE) of this game.
Consider the game shown below. In this game, players 1 and 2 must move at the same time without knowledge of the other player’s move. Player 1’s choices are shown in the row headings (A/B), Player 2’s choices are shown in the column headings (C/D). The first payoff is for the row player (Player1) and the second payoff is for the column player (Player 2). Player 2 Player 1 C D A 8, 3 2, 4 B 7, 4 3, 5 Pick the correct answer: Player 1: Has a dominant strategy to choose A Has a dominant strategy to choose B Has a dominant strategy to choose C Has a dominant strategy to choose D Does not have a dominant strategy Player 2: Has a dominant strategy to choose A Has a dominant strategy to choose B Has a dominant strategy to choose C Has a dominant strategy to choose D Does not have a dominant strategy The Nash equilibrium outcome to this game is: A/C A/D B/C B/D There is no pure strategy Nash equilibrium for this game
Consider the following representation of a hockey shootout. The shooter can shoot on their forehand, or deke to their backhand, and the goalie can anticipate either move. The number in each cell in the table below represents the percentage chance that the shooter scores for each pair of pure strategies. Anticipate Forehand Anticipate Backhand Shoot Forehand 20 40 Deke Backhand 40 10 In the mixed strategy Nash equilibrium of this game, what is the percentage chance that the player scores? (ie. An 80% chance should be recorded as 80)
Solving for dominant strategies and the Nash equilibrium Suppose Felix and Janet are playing a game in which both must simultaneously choose the action Left or Right. The payoff matrix that follows shows the payoff each person will earn as a function of both of their choices. For example, the lower-right cell shows that if Felix chooses Right and Janet chooses Right, Felix will receive a payoff of 3 and Janet will receive a payoff of 7. Attached the table The only dominant strategy in this game is for (Janet / Felix) to choose (Left / Right). The outcome reflecting the unique Nash equilibrium in this game is as follows: Felix chooses (Left / Right) and Janet chooses (Left / Right).