Explainable AI for Reciprocity-Based Capacity Allocation under Demand Uncertainty

Authors

  • Devider K. Paroz Department of Computer Science and Engineering, University at Buffalo, Buffalo, NY, USA.

Keywords:

explainable AI, capacity allocation, reciprocity, demand uncertainty, sociotechnical systems, fairness, governance

Abstract

Modern large-scale infrastructures such as cloud computing platforms, logistics networks, and energy grids face the persistent challenge of allocating finite capacity among interdependent participants under volatile demand. Reciprocity-based allocation mechanisms have emerged as robust coordination strategies that reward cooperative behaviour and sustain mutual resource sharing without requiring centralised market-clearing. However, the opaque nature of complex decision models underlying these mechanisms creates trust deficits and impedes adoption. This paper develops a systems-level analysis of explainable artificial intelligence (XAI) applied to reciprocity-based capacity allocation under demand uncertainty. We examine the structural trade-offs between predictive accuracy, operational efficiency, and interpretive transparency, and we delineate an architectural framework in which post-hoc explanation modules, inherently interpretable rule-based surrogates, and interactive visual analytics are integrated into a multi-agent allocation platform. The discussion extends to governance protocols that embed explanations within adaptive policy loops, fairness constraints that guard against emergent inequities in repeated interactions, and the infrastructural requirements for deploying such systems at scale. We further evaluate robustness against distributional shifts in demand, long-term sustainability of cooperative equilibria, and regulatory implications in sectors where algorithmic decisions carry material consequences. By synthesising insights from operations management, sociotechnical systems, and explainable AI, this paper articulates a research agenda for designing capacity-sharing ecosystems that are simultaneously efficient, resilient, and accountable. The analysis demonstrates that explainability is not an afterthought but a foundational design principle that shapes the evolution of reciprocity norms, stakeholder trust, and institutional legitimacy in uncertain environments.

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Published

2026-05-16