Large Language Models for Negotiation and Reciprocity Analysis in Collaborative Production Networks

Authors

  • Kasper James Department of Computer Science, Colorado State University, Fort Collins, CO, USA.
  • Krish Mahajan Department of Electrical Engineering and Computer Science, University of Missouri, Columbia, MO, USA.
  • Vikter M. Diez Department of Computer Science, University of North Texas, Denton, TX, USA.

Keywords:

large language models, negotiation, reciprocity, collaborative production networks, socio-technical systems, trust, capacity sharing

Abstract

Collaborative production networks represent complex adaptive systems in which autonomous firms pool capacities, coordinate manufacturing workflows, and jointly respond to volatile market demands. Sustaining such networks requires continuous negotiation over resource allocation, scheduling, and risk sharing, processes that are deeply embedded in social mechanisms of trust and reciprocity. Traditional negotiation support relies on game-theoretic models and structured multi-agent protocols that often fail to capture the linguistic nuance, contextual reasoning, and relational dynamics underlying real-world coordination. The emergence of large language models opens a transformative opportunity to re-architect negotiation and reciprocity analysis within these networks. This paper provides a system-level examination of the integration of large language models as mediators, analysts, and governance instruments in collaborative production environments. It explores the structural trade-offs involved in designing such infrastructures, including centralization versus federation, transparency versus strategic opacity, and computational cost versus responsiveness. The discussion extends to architectural choices that combine neural language capabilities with knowledge graphs, constraint solvers, and federated learning, thereby enabling context-aware proposal generation, reciprocity detection, and trust calibration. The paper further investigates fairness concerns, the risk of emergent collusion, and the sustainability implications of operating large-scale models at the network edge. Governance frameworks that balance algorithmic autonomy with human oversight are critically evaluated, alongside the policy challenges of cross-organizational data sharing and liability. By synthesizing insights from multi-agent systems, socio-technical theory, supply chain management, and AI ethics, the article outlines a research agenda for building negotiation infrastructures that are not only efficient but also robust, explainable, and aligned with cooperative norms.

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Published

2026-07-07