Suppose a risk neutral principal wants to hire an agent to do a project. The output .Y is either 1 (if successes) or 0 (if not). The probability of success depends on the agent's effort e ε [0, 1].
i. e., Pr(X = 1) = e.
The cost of effort is c(e) = 1/2e^2. Because the principal cannot directly observe e, he will write a contract on the outcome X, i. e., the principal pays the agent w_1 if it succeeds, and w_0 = 0 otherwise. The agent's monetary utility is u(w) = 3 w^1/3. The agent's outside reservation utility is assumed to be zero.
1. What's the first best effort level and contract?
2. Derive the optimal contract under moral hazard.

Answer for the question :

Suppose a risk neutral principal wants to hire an agent to do a project. The output .Y is either 1 (if successes) or 0 (if not). The probability of success depends on the agent's effort e ε [0, 1].

i.e., Pr(X = 1) = e.

The cost of effort is c(e) = 1/2e^2. Because the principal cannot directly observe e, he will write a contract on the outcome X, i.e., the principal pays the agent w_1 if it succeeds, and w_0 = 0 otherwise. The agent's monetary utility is u(w) = 3 w^1/3. The agent's outside reservation utility is assumed to be zero.

1. What's the first best effort level and contract?

2. Derive the optimal contract under moral hazard.

is given in the attachment.

Step-by-step explanation:

54 kilometers per hour

step-by-step explanation:

according to rules:

1 km = 1000 meter

which means that 1 meter = 1/1000 km

1 hour = 3600 second [ as 1 hour = 60 min = 60 *60 seconds ]

which means that 1 second = 1/3600 hour

therefore, 1 kilometer/hour =

thus to convert 15 meter per second to kilometer per hour, we multiply 15 to 3.6 kilometer/hour.

15 meter/second=   which is the required answer.