Aug 2026· IEEE Transactions on Neural Networks and Learning Systems· Vol PP, pp. 1-15· 0 citations
Medicine
TL;DR
This article addresses the challenge of inefficient online strategy training with incomplete offline data by introducing a novel method called online policy tuning based on offline policy self-organization (OTOS), which has been extensively validated across four distinct football scenarios, consistently demonstrating superior performance.
Abstract
The inefficiency of online learning poses a significant challenge in multiagent reinforcement learning (MARL). Offline-to-online learning can improve efficiency by learning from available offline data, which can provide important prior insights. However, this approach is often obstructed by the issue of incomplete offline data, which are a prevalent problem in practical scenarios. In these cases, offline data collection does not cover complete state or action trajectories for some or all agents. This article addresses the challenge of inefficient online strategy training with incomplete offline data by introducing a novel method called online policy tuning based on offline policy self-organization (OTOS). OTOS comprises two main modules: offline policy augmentation learning based on policy self-organization (OFS) and online policy automatic tuning (ONT). To address the limitations of incomplete datasets, OFS employs offline policy augmentation learning inspired by a famous self-organization model for swarm intelligence, i.e., the boid model. This approach encompasses three essential components: intention aggregation, policy alignment, and policy separation, corresponding to the three basic self-organization rules in the boid model. For the policy and evaluation networks trained offline, ONT leverages the actor-network learned offline to initialize the actor-network for online training. In addition, the offline critic network provides supplementary value signals to enhance the stability and efficiency of the online learning process. To further optimize learning, an automatic optimal temperature adjustment factor is designed, which dynamically adjusts the weight of these supplementary value signals. The proposed OTOS method has been extensively validated across four distinct football scenarios, consistently demonstrating superior performance.
A hybrid offline-online multi-agent reinforcement learning framework based on decision transformers that incorporates return-weighted sampling, a critic conditioned on neighbors' actions, and neighborhood-correlated exploration that achieves quality-of-service (QoS) performance comparable to centralized methods.
Yi-Ming Zhang, Kun Yang, Cong Shen et al.· 0 citations
This work proposes Multi-Agent Flow-Pretrained Policy Optimization (MA-FPPO), which uses online fine-tuning to improve the cooperative behavior of models pretrained with flow matching through new interactions with the environment.
Guo-Wei Zou, Hao-Nan Chen, Hai-Tao Wang et al.· 0 citations
This article analyzes the optimal containment control problem of discrete-time multiagent systems (MASs) and proposes an online off-policy multistep PG algorithm that achieves optimal control performance under completely unknown system dynamics and accommodates asynchronous policy updates among agents.
Kai-Tian Chen, Huai-Cheng Yan, Qi-Wei Liu et al.· IEEE Transactions on Cyberne...· 0 citations
The Job Shop Scheduling Problem (JSSP) is a fundamental combinatorial optimization problem in industrial optimization. This work introduces Pretrained Offline Reinforcement Learning (PORL), a hybrid approach that combines simulation-based online pretraining with offline fine-tuning on production-specific data. Reinforc...
Mateo Toro Diz, Jonathan Hoss, Noah Klarmann· 0 citations
Critic-Free Pretraining is introduced: an efficient paradigm that completely abandons the approach of offline critic training, allowing a freshly initialized critic to adapt without inheriting biased estimates.
Daoyi Li, Yi-Xian Zhang, Wen-Bo Ding et al.· 0 citations
This paper proposes a distributed bandit online feedback optimization algorithm that relies solely on real-time input-output data and establishes a sublinear dynamic regret bound that depends on a temporal variation measure of system non-stationarity.
Xia Jiang, Lu Liu, Gang Feng· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.