Question

Problem 1. Consider the problem of an agent at date t, who marimizes the utility function に0 subject to a sequence of budget constraint, where B is the discount factor, c+k is consumption in period t+ k and 1/η is the intertemporal elasticity of substitution Let P+k be the price level prevailing at date t+k, i.e. Pt+k Dollar buy 1 unit of the consumption good in period t +k. Among the various assets that the agent can trade at date t are k-period discount bonds, who promise to pay 1 Dollar in period t +k and nothing else. Denote the date-t Dollar price of such a bond by Qtt+k. Assume that the agent can both buy and sell at that price. Let stt+k be the quantity of these k-period discount bonds, which the agent buys in period Some more notation. Let δ--log(β) be the discount rate of the agent. where here and everywhere else, log denotes the natural logarithm (not the log- arithm to the basis of 10). Let 9+log(u) - log(k-1) klog(c+k)-log(c+k-1) denote the grouth rate of consumption from t +k-1 to tk. Let be the corresponding inflation rate. Define ytt+k as t,t+k We assume throughout that Qtt+k is reasonably close to 1 and that gt+k and Tt+k are reasonably close to zero

Suppose consumption grouth is constant gesg and that infation is increasing π1+k+1 > πt+k: all k. What do you find for the nominal and real yields?

0 0
Add a comment Improve this question Transcribed image text
Answer #1
  • A nominal interest rate is the interest rate that does not take inflation into account.It is the interest rate that is quoted on bonds and loans.The disadvantage of the nominal interest rate is that it does not adjust for the inflation rate.
  • A real interest rate is the interest rate that does take inflation into account.As opposed to the nominal interest rate ,the real interest rate adjust for the inflation and gives the real rate of loan or a bond.To calculate the real interest rate you first need the real interest rate.
Add a comment
Know the answer?
Add Answer to:
Problem 1. Consider the problem of an agent at date t, who marimizes the utility function...
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for? Ask your own homework help question. Our experts will answer your question WITHIN MINUTES for Free.
Similar Homework Help Questions
  • Problem 1. Consider the problem of an agent at date t, who marimizes the utility function...

    Problem 1. Consider the problem of an agent at date t, who marimizes the utility function に0 subject to a sequence of budget constraint, where B is the discount factor, c+k is consumption in period t+ k and 1/η is the intertemporal elasticity of substitution Let P+k be the price level prevailing at date t+k, i.e. Pt+k Dollar buy 1 unit of the consumption good in period t +k. Among the various assets that the agent can trade at date...

  • 1. 2. Problem 1. Consider the problem of an agent at date t, who marimizes the...

    1. 2. Problem 1. Consider the problem of an agent at date t, who marimizes the utility function に0 subject to a sequence of budget constraint, where B is the discount factor, c+k is consumption in period t+ k and 1/η is the intertemporal elasticity of substitution Let P+k be the price level prevailing at date t+k, i.e. Pt+k Dollar buy 1 unit of the consumption good in period t +k. Among the various assets that the agent can trade...

  • Problem 2. Consider an overlapping generations model with money, where t = 1,2,3,.... So, every period...

    Problem 2. Consider an overlapping generations model with money, where t = 1,2,3,.... So, every period t, a generation of two-period lived agents are born. Their preferences are . They are endowed with ey units of the consumption good, when young, and e° units of the consumption good, when old. Assume that ey > eo > 0. The consumption good is perishable The initial old also have a quantity M of intrinsically valueless fiat money. Trading takes place as described...

  • Problem 2. Consider an overlapping generations model with money, where t = 1,2,3,.... So, every period...

    Problem 2. Consider an overlapping generations model with money, where t = 1,2,3,.... So, every period t, a generation of two-period lived agents are born. Their preferences are ,+1log()log(+i). They are endowed with ey units of the consumption good, when young, and e° units of the consumption good, when old. Assume that e' > e > 0. The consumption good is perishable The initial old also have a quantity M of intrinsically valueless fiat money. Trading takes place as described...

  • Problem 1 Consider the following two-period utility maximization problem. This utility function belongs to the CRRA...

    Problem 1 Consider the following two-period utility maximization problem. This utility function belongs to the CRRA (Constant Relative Risk Aversion) class of functions which can be thought of as generalized logarithmic functions. An agent lives for two periods and in both receives some positive income. subject to +6+1 4+1 = 3+1 + (1 + r) ar+1 where a > 0,13 € (0, 1) and r>-1. (a) Rewrite the budget constraints into a single lifetime budget constraint and set up the...

  • Consider the Solow growth model. Output at time t is given by the production function Y-AK3...

    Consider the Solow growth model. Output at time t is given by the production function Y-AK3 Lš where K, is total capital at time t, L is the labour force and A is total factor productivity. The labour force and total factor productivity are constant over time and capital evolves according the transition equation KH = (1-d) * Kit It: where d is the depreciation rate. Every person saves share s of his income and, therefore, aggregate saving is St-s...

  • Consider the Solow growth model. Output at time t is given by the production function Yt...

    Consider the Solow growth model. Output at time t is given by the production function Yt = AK 1 3 t L 2 3 where Kt is total capital at time t, L is the labour force and A is total factor productivity. The labour force and total factor productivity are constant over time and capital evolves according the transition equation Kt+1 = (1 − d) ∗ Kt + It , where d is the depreciation rate. Every person saves...

  • Consider a Diamond model, where we set the productivity factor At to unity (1) in all periods. Th...

    Consider a Diamond model, where we set the productivity factor At to unity (1) in all periods. The working population. Lt, grows at rate n, i.e., Lt+1-(1 + n) Lt. Lower-case letters denote per-worker terms, e.g earned (from labor) in the first period of life (wi) is spent on saving (St) and first-period consumption (C1t). The first-period budget constraint can thus be written Ki/Lt. Agents live for two perioo In retirement, the same agent consumes C2t+1, consisting of savings from...

  • Consider the Solow growth model. Output at time t is given by the production function Yt...

    Consider the Solow growth model. Output at time t is given by the production function Yt = AKt3 L3 , where A is total factor productivity, Kt is total capital at time t and L is the labour force. Total factor productivity A and labour force L are constant over time. There is no government or foreign trade and Yt = Ct + It where Ct is consumption and It is investment at time t. Every agent saves s share...

  • Consider the Solow growth model that we developed in class. Output at time t is given...

    Consider the Solow growth model that we developed in class. Output at time t is given by the production function Y AK Lt, where A is total factor productivity, Kt is total capital at timet and L is the labour force. Total factor productivity A and labour force L are constant over time. There is no government or foreign trade and Y, + 1, where Ct is consumption and I is investment at tim. Every agent saves s share of...

ADVERTISEMENT
Free Homework Help App
Download From Google Play
Scan Your Homework
to Get Instant Free Answers
Need Online Homework Help?
Ask a Question
Get Answers For Free
Most questions answered within 3 hours.
ADVERTISEMENT
ADVERTISEMENT
ADVERTISEMENT