Reinforcement Learning for Continuous Stochastic Actions : An Approximation of Probability Density Function by Orthogonal Wave Function Expansion(Nonlinear Problems)
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概要
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A function approximation based on an orthonormal wave function expansion in a complex space is derived. Although a probability density function (PDF) cannot always be expanded in an orthogonal series in a real space because a PDF is a positive real function, the function approximation can approximate an arbitrary PDF with high accuracy. It is applied to an actor-critic method of reinforcement learning to derive an optimal policy expressed by an arbitrary PDF in a continuous-action continuous-state environment. A chaos control problem and a PDF approximation problem are solved using the actor-critic method with the function approximation, and it is shown that the function approximation can approximate a PDF well and that the actor-critic method with the function approximation exhibits high performance.
- 一般社団法人電子情報通信学会の論文
- 2006-08-01
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- Reinforcement Learning for Continuous Stochastic Actions : An Approximation of Probability Density Function by Orthogonal Wave Function Expansion(Nonlinear Problems)