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F -Discrepancy for Efficient Sampling in Approximate Dynamic Programming.

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    This study introduces an algorithm using F-discrepancy to efficiently select state sample points for Markovian decision problems. The method improves approximate dynamic programming accuracy, outperforming uniform sampling with significantly fewer points.

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    Area of Science:

    • Operations Research
    • Artificial Intelligence
    • Computational Mathematics

    Background:

    • Approximate dynamic programming (ADP) relies on accurate value function approximation.
    • Efficient selection of state sample points is crucial for ADP performance in continuous-state Markovian decision problems.
    • Standard uniform sampling may be inefficient for non-uniformly distributed state trajectories.

    Purpose of the Study:

    • To develop a novel algorithm for selecting efficient state sample points in continuous-state finite-horizon Markovian decision problems.
    • To leverage F-discrepancy for optimizing sample point selection in ADP.
    • To demonstrate improved convergence and accuracy compared to traditional methods.

    Main Methods:

    • Exploitation of F-discrepancy to measure the representativeness of sample points to a probability distribution.
    • Development of an algorithm to automatically select point sets optimized for Markovian processes.
    • Error analysis to prove convergence properties under regularity conditions.

    Main Results:

    • The proposed algorithm demonstrates efficient sample point selection for ADP.
    • Error analysis confirms convergence of the approximate solution.
    • Simulation results on an inventory forecasting problem show superior performance over uniform sampling.
    • The algorithm achieved better results using sample sets up to 50 times smaller than uniform sampling.

    Conclusions:

    • F-discrepancy is a valuable tool for enhancing state sample point selection in ADP.
    • The proposed algorithm offers a more efficient and accurate approach to solving Markovian decision problems.
    • This method has practical implications for optimizing complex decision-making processes.