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| Chapter Two | Overview |
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- Exercise 2.1: The statement of the problem is that F is homogeneous of degree one and strictly quasi-concave. The proof proceeds by assuming that F is strictly concave. The missing step in the argument is provided by the answer to Exercise 4.8.
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| Chapter Three | Mathematical Preliminaries |
| Chapter Four | Dynamic Programming Under Certainty |
| Chapter Five | Applications of Dynamic Programming Under Certainty |
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- Exercise 5.1: Bobenrieth H., Eugenio S.A., Juan R.A. Bobenrieth H., and Brian D. Wright. 2006.
"Strict concavity of the value function for a family of dynamic accumulation models."
University of California - Berkely Working Paper.
- Exercise 5.5: Cheremukhin, Anton. 2006.
"Problem 5.5: Tree Cutting." University of California - Los Angeles.
- Exercise 5.14: Kawakami, Kei. 2008.
"Problem 5.14: Inventory Control in Discrete Time." University of California - Los Angeles.
- Exercise 5.15: Kawakami, Kei. 2008.
"Problem 5.15: Inventory Control in Continuous Time." University of California - Los Angeles.
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| Chapter Six | Deterministic Dynamics |
| Chapter Seven | Measure Theory and Integration |
| Chapter Eight | Markov Processes |
| Chapter Nine | Stochastic Dynamic Programming |
| Chapter Ten | Applications of Stochastic Dynamic Programming |
| Chapter Eleven | Strong Convergence of Markov Processes |
| Chapter Twelve | Weak Convergence of Markov Processes |
| Chapter Thirteen | Applications of Convergence Results for Markov Processes |
| Chapter Fourteen | Laws of Large Numbers |
| Chapter Fifteen | Pareto Optima and Competitive Equilibria |
| Chapter Sixteen | Applications of Equilibrium Theory |
| Chapter Seventeen | Fixed-Point Arguments |
| Chapter Eighteen | Equilibria in Systems with Distortions |