A potential-based method for finite-stage Markov Decision Process
Qing‐Shan Jia
Abstract
Qing‐Shan Jia
Abstract
Finite-stage Markov decision process (MDP) supplies a general framework for many practical problems when only the performance in a finite duration is of interest. Dynamic programming (DP) supplies a general way to find the optimal policies but is usually practically infeasible, due to the exponentially increasing policy space. Approximating the finite-stage MDP by an infinite-stage MDP reduces the search space but usually does not find the optimal stationary policy, due to the approximation error. We develop a method that finds the optimal stationary policies for the finite-stage MDP. The method is based on performance potentials, which can be estimated through sample paths and thus suits practical application.
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Finite-stage Markov decision process (MDP) supplies a general framework for many practical problems when only the performance in a finite duration is of interest. Dynamic programming (DP) supplies a general way to find the optimal policies but is usually practically infeasible, due to the exponentially increasing policy space. Approximating the finite-stage MDP by an infinite-stage MDP reduces the search space but usually does not find the optimal stationary policy, due to the approximation error. We develop a method that finds the optimal stationary policies for the finite-stage MDP. The method is based on performance potentials, which can be estimated through sample paths and thus suits practical application.
Key concepts: Markov decision process, Mathematical optimization, Markov process, Dynamic programming, Computer science, Process (computing), Space (punctuation), Finite state