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This paper introduces Transport REINFORCE, a novel model-free policy gradient method designed to address the missing mean-field contribution in standard estimators for discrete-time mean-field control problems. By utilizing transport maps to perturb population distributions within probability simplices or Gaussian mixture manifolds, the approach achieves improved performance on benchmarks while maintaining theoretical consistency and bounded error. The work represents a significant advancement in reinforcement learning algorithms for large-scale systems where individual actions influence both dynamics and aggregate population states.
Randomized Transport Maps for Model-Free Policy-Gradient Mean-Field Control
arXiv:2610.11619v1 Announce Type: cross Abstract: We develop a model-free policy gradient method for discrete-time mean-field control (MFC). In MFC, the policy affects the objective both through the controlled dynamics and through the population distribution. Standard REINFORCE estimators capture the first effect but not the second. We introduce Transport REINFORCE, a transport map-based approach that perturbs a suitable transformation of the population distribution to estimate this missing mean-field contribution. The method applies to both finite and continuous state spaces. In finite state spaces, we perturb the population distribution directly on the probability simplex through a convex combination of the current population weights and random weights. In continuous state spaces, we project the population distribution onto the manifold of Gaussian mixtures, and then randomize it via a transport map that ensures the perturbed law remains within this manifold. We prove consistency of the perturbed objective and gradient as the perturbation vanishes, and derive bias and mean-square error bounds for the resulting sample-based gradient estimator. Numerical experiments on several MFC benchmarks show that Transport REINFORCE improves over standard REINFORCE.
Abstract:We develop a model-free policy gradient method for discrete-time mean-field control (MFC). In MFC, the policy affects the objective both through the controlled dynamics and through the population distribution. Standard REINFORCE estimators capture the first effect but not the second. We introduce Transport REINFORCE, a transport map-based approach that perturbs a suitable transformation of the population distribution to estimate this missing mean-field contribution. The method applies to both finite and continuous state spaces. In finite state spaces, we perturb the population distribution directly on the probability simplex through a convex combination of the current population weights and random weights. In continuous state spaces, we project the population distribution onto the manifold of Gaussian mixtures, and then randomize it via a transport map that ensures the perturbed law remains within this manifold. We prove consistency of the perturbed objective and gradient as the perturbation vanishes, and derive bias and mean-square error bounds for the resulting sample-based gradient estimator. Numerical experiments on several MFC benchmarks show that Transport REINFORCE improves over standard REINFORCE.
Optimization and Control (math.OC); Machine Learning (cs.LG)
arXiv:2610.11619 [math.OC]
(or arXiv:2610.11619v1 [math.OC] for this version)
https://doi.org/10.48550/arXiv.2610.11619 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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