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Stochastic Controls: Hamiltonian Systems and HJB Equations: 43 (Stochastic Modelling and Applied Probability, 43) - Tapa dura

Libro 2 de 30: Stochastic Modelling and Applied Probability

Yong, Jiongmin; Zhou, Xun Yu

 
9780387987231: Stochastic Controls: Hamiltonian Systems and HJB Equations: 43 (Stochastic Modelling and Applied Probability, 43)

Sinopsis

As is well known, Pontryagin's maximum principle and Bellman's dynamic programming are the two principal and most commonly used approaches in solving stochastic optimal control problems. * An interesting phenomenon one can observe from the literature is that these two approaches have been developed separately and independently. Since both methods are used to investigate the same problems, a natural question one will ask is the fol­ lowing: (Q) What is the relationship betwccn the maximum principlc and dy­ namic programming in stochastic optimal controls? There did exist some researches (prior to the 1980s) on the relationship between these two. Nevertheless, the results usually werestated in heuristic terms and proved under rather restrictive assumptions, which were not satisfied in most cases. In the statement of a Pontryagin-type maximum principle there is an adjoint equation, which is an ordinary differential equation (ODE) in the (finite-dimensional) deterministic case and a stochastic differential equation (SDE) in the stochastic case. The system consisting of the adjoint equa­ tion, the original state equation, and the maximum condition is referred to as an (extended) Hamiltonian system. On the other hand, in Bellman's dynamic programming, there is a partial differential equation (PDE), of first order in the (finite-dimensional) deterministic case and of second or­ der in the stochastic case. This is known as a Hamilton-Jacobi-Bellman (HJB) equation.

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Acerca del autor

Weijun Meng currently is engaging in her postdoctoral research at Academy of Mathematics and Systems Science, Chinese Academy of Sciences, P. R. China. She had a PhD degree from Shandong University, P. R. China. Her main research interests include stochastic optimal control, delayed stochastic systems and Stackelberg stochastic differential games. Jingtao Shi currently is a professor at Shandong University, P. R. China. He had a PhD degree from Shandong University, P. R. China. His main research interests include stochastic optimal control, differential games, leader-follower games, delayed stochastic systems, forward-backward stochastic systems and mathematical finance. Jiongmin Yong currently is a professor at University of Central Florida, USA. He had a PhD degree from Purdue University, USA. His main research interests include optimal control, stochastic differential/integral equations, and mathematical finance.

De la contraportada

As is well known, Pontryagin's maximum principle and Bellman's dynamic programming are the two principal and most commonly used approaches in solving stochastic optimal control problems. * An interesting phenomenon one can observe from the literature is that these two approaches have been developed separately and independently. Since both methods are used to investigate the same problems, a natural question one will ask is the fol­ lowing: (Q) What is the relationship betwccn the maximum principlc and dy­ namic programming in stochastic optimal controls? There did exist some researches (prior to the 1980s) on the relationship between these two. Nevertheless, the results usually werestated in heuristic terms and proved under rather restrictive assumptions, which were not satisfied in most cases. In the statement of a Pontryagin-type maximum principle there is an adjoint equation, which is an ordinary differential equation (ODE) in the (finite-dimensional) deterministic case and a stochastic differential equation (SDE) in the stochastic case. The system consisting of the adjoint equa­ tion, the original state equation, and the maximum condition is referred to as an (extended) Hamiltonian system. On the other hand, in Bellman's dynamic programming, there is a partial differential equation (PDE), of first order in the (finite-dimensional) deterministic case and of second or­ der in the stochastic case. This is known as a Hamilton-Jacobi-Bellman (HJB) equation.

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