Dynamic Benefit Allocation in Public Technology Service Platform Coalitions in China: A Multi-Agent Shapley-Adjusted Q-Learning Approach

Public technology service platforms (PTSPs) increasingly rely on coalition structures to deliver complex services, yet achieving equitable benefit allocation remains a critical challenge for sustained collaboration. To address the allocation challenges across different evolutionary phases of PTSP coalitions, this study develops a stage-contingent governance framework that maps allocation mechanisms onto the platform lifecycle: transitioning from classical Shapley values during initial coalition formation, to Owen values under sub-coalition emergence, and ultimately to a Shapley-adjusted Q-Learning (SHAQ) framework during dynamic scaling. SHAQ integrates cooperative behavioral Q-learning with coalition-based allocation rules, enabling members to dynamically align incentives, reward high contributors, and discourage disengagement. MATLAB2023a simulations demonstrate that SHAQ consistently outperforms static allocation methods in terms of distributional fairness, core stability, and economic efficiency. By offering a robust and adaptive allocation mechanism, this study presents a practical pathway to strengthen trust and sustainability in PTSP coalitions.

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Publication Details

Journal
Systems
Published
2026-10-28
DOI
https://doi.org/10.3390/systems14111367
Primary Topic
Game Theory and Voting Systems
Type
article
Field-Weighted Citation Impact
0.00

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article

Dynamic Benefit Allocation in Public Technology Service Platform Coalitions in China: A Multi-Agent Shapley-Adjusted Q-Learning Approach

Ruguo Fan, Rongkai Chen, Zhixiang Yin, Ziqiang Lu et al.
Systems
Game Theory and Voting Systems
article

Dynamic Benefit Allocation in Public Technology Service Platform Coalitions in China: A Multi-Agent Shapley-Adjusted Q-Learning Approach

Ruguo Fan, Rongkai Chen, Zhixiang Yin, Ziqiang Lu, Xiaoyu Wang
article en

Abstract

Public technology service platforms (PTSPs) increasingly rely on coalition structures to deliver complex services, yet achieving equitable benefit allocation remains a critical challenge for sustained collaboration. To address the allocation challenges across different evolutionary phases of PTSP coalitions, this study develops a stage-contingent governance framework that maps allocation mechanisms onto the platform lifecycle: transitioning from classical Shapley values during initial coalition formation, to Owen values under sub-coalition emergence, and ultimately to a Shapley-adjusted Q-Learning (SHAQ) framework during dynamic scaling. SHAQ integrates cooperative behavioral Q-learning with coalition-based allocation rules, enabling members to dynamically align incentives, reward high contributors, and discourage disengagement. MATLAB2023a simulations demonstrate that SHAQ consistently outperforms static allocation methods in terms of distributional fairness, core stability, and economic efficiency. By offering a robust and adaptive allocation mechanism, this study presents a practical pathway to strengthen trust and sustainability in PTSP coalitions.

SystemsVol. 14(11)
Wuhan University (CN), Renmin University of China (CN)
National Social Science Fund of China
Openalex Percentile: Top 8%
Game Theory and Voting Systems
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Dynamic Benefit Allocation in Public Technology Service Platform Coalitions in China: A Multi-Agent Shapley-Adjusted Q-Learning Approach — Ruguo Fan, Rongkai Chen, et al. · Systems (2026) | TGRS Research Map | TGRS