Collaborative Intelligence in Operations Research: Models, Methods, and Applications

Editors

  • Madjid Tavana, La Salle University
  • Olga Battaïa, KEDGE Business School
  • Yasser Dessouky, San Jose State University
  • Masood Fathi, University of Skövde
  • Reza Zanjirani Farahani, Paris School of Business

Description

The increasing complexity of modern decision-making demands advanced Operations Research (OR) models that integrate Collaborative Intelligence—the synergy between human expertise, Artificial Intelligence (AI)-driven decision support, and distributed problem-solving frameworks. This paradigm enhances adaptability, efficiency, and resilience in complex operations by leveraging multi-agent coordination, human-AI collaboration, decentralized optimization, and machine learning-enhanced decision-making.

Traditional OR methodologies, despite their strengths in static environments, struggle with the dynamic, interconnected, and uncertain nature of modern decision-making. As Russell Ackoff noted in his 1956 article, "The Aging of a Young Profession," OR was already showing signs of stagnation, becoming overly preoccupied with mathematical techniques rather than addressing real-world problems holistically. By 1979, in "The Future of Operational Research is Past," he further criticized OR for prioritizing optimization within narrow constraints instead of embracing a systemic, interdisciplinary approach. Modern applications like logistics, production, service systems, and emergency response require more adaptive and interactive OR models. Collaborative Intelligence offers a transformative approach, enabling real-time interaction among humans, AI agents, and mathematical models to optimize problem-solving and system performance.

The rapid advancements in AI have revolutionized decision-making across OR domains. However, fully autonomous AI systems face challenges in handling uncertainty, ethical considerations, and interpretability, particularly in high-stakes environments. Collaborative Intelligence bridges this gap by combining the computational power of AI with human intuition, adaptability, and ethical reasoning, fostering trust and robustness in decision-making.

This special issue explores cutting-edge methodologies, theoretical advancements, and practical applications of Collaborative Intelligence in OR. We invite high-quality contributions that address how human expertise and AI can collaboratively enhance decision-making, improve system resilience, and optimize complex operational environments. We welcome original research contributions that propose innovative mathematical models, algorithms, and applications of OR for collaborative decision-making, resilience planning, decentralized optimization, and dynamic problem-solving in complex operational environments. Submissions should demonstrate theoretical rigor and practical relevance, focusing on advancing the state of the art in Collaborative Intelligence.

This special issue aims to provide a platform for researchers and practitioners to share insights, methodologies, and case studies that highlight the transformative potential of Collaborative Intelligence in OR.

Potential topics

  • Designing OR models that facilitate seamless interaction and information exchange between human decision-makers and AI agents
  • The framework for integrating human judgment, preferences, and ethical considerations into AI-driven decision-making
  • Techniques for visualizing and interpreting AI outputs to enhance human understanding and trust
  • Novel optimization algorithms and game-theoretic frameworks for coordinating and optimizing decisions in multi-agent environments
  • Models addressing diverse objectives, capabilities, and interactions among multiple agents
  • Approaches to managing conflicts, uncertainties, and strategic behaviors in multi-agent decision-making
  • OR frameworks capable of dynamically adapting to real-time changes and uncertainties
  • Decentralized optimization algorithms and control strategies for distributed systems
  • Online learning and adaptive control techniques to improve system responsiveness and resilience
  • Leveraging machine learning and data analytics to extract insights and patterns for OR applications
  • Learning-based optimization algorithms that improve performance through data feedback
  • Predictive analytics and simulation techniques for enhanced decision-making and risk management