Step 1: Utility functions
Anu's utility function: \[ U^{Anu}(a,b) = a + 2b \] Binu's utility function: \[ U^{Binu}(a,b) = \min\{a,\,2b\} \] Initial endowments: - Anu: \((0,\,12)\) - Binu: \((12,\,0)\) Total resources: \((12,\,12)\).
Step 2: Anu’s preferences
For Anu, the marginal utilities are: \[ MU_a = 1, \quad MU_b = 2 \] So, her marginal rate of substitution (MRS) is: \[ MRS_{Anu} = \frac{MU_a}{MU_b} = \frac{1}{2}. \] This means Anu values bananas twice as much as apricots.
Step 3: Binu’s preferences
Since \[ U^{Binu}(a,b) = \min\{a,2b\}, \] Binu will consume in the fixed proportion: \[ a = 2b. \] Thus her consumption always lies on the line \(a=2b\).
Step 4: Competitive equilibrium
In equilibrium, markets clear: \[ a^{Anu} + a^{Binu} = 12, \quad b^{Anu} + b^{Binu} = 12. \] Also, Binu’s bundle must satisfy \(a^{Binu} = 2b^{Binu}\).
Step 5: Testing feasible allocations for Anu
Candidate allocations for Anu (a,b):
Among these, (9,9) gives the highest utility (27), but violates Binu’s consumption rule since that leaves (3,3) for Binu, which does not satisfy \(a=2b\). The feasible bundle that satisfies Binu’s proportion condition is **(6,9)**, leaving (6,3) for Binu, which lies on her \(a=2b\) line.
Final Answer:
Anu’s optimal consumption bundle in competitive equilibrium is: \[ \boxed{(6 \;\; \text{apricots}, \; 9 \;\; \text{bananas})} \]
Eight students (P, Q, R, S, T, U, V, and W) are playing musical chairs. The figure indicates their order of position at the start of the game. They play the game by moving forward in a circle in the clockwise direction.
After the 1st round, the 4th student behind P leaves the game.
After the 2nd round, the 5th student behind Q leaves the game.
After the 3rd round, the 3rd student behind V leaves the game.
After the 4th round, the 4th student behind U leaves the game.
Who all are left in the game after the 4th round?

The following figures show three curves generated using an iterative algorithm. The total length of the curve generated after 'Iteration n' is:

Two players \( A \) and \( B \) are playing a game. Player \( A \) has two available actions \( a_1 \) and \( a_2 \). Player \( B \) has two available actions \( b_1 \) and \( b_2 \). The payoff matrix arising from their actions is presented below:

Let \( p \) be the probability that player \( A \) plays action \( a_1 \) in the mixed strategy Nash equilibrium of the game.
Then the value of p is (round off to one decimal place).
Here are two analogous groups, Group-I and Group-II, that list words in their decreasing order of intensity. Identify the missing word in Group-II.
Abuse \( \rightarrow \) Insult \( \rightarrow \) Ridicule
__________ \( \rightarrow \) Praise \( \rightarrow \) Appreciate
The 12 musical notes are given as \( C, C^\#, D, D^\#, E, F, F^\#, G, G^\#, A, A^\#, B \). Frequency of each note is \( \sqrt[12]{2} \) times the frequency of the previous note. If the frequency of the note C is 130.8 Hz, then the ratio of frequencies of notes F# and C is: