Frédérick Bénaben

Visiting Professor


Contact

 George Tower 1215
  Contact
  • Frederick Benaben LinkedIn
  • Frederick Benaben Google Scholar

Education

  • Habilitation Direct Research Information Systems (2012), Toulouse INP
  • Ph.D. Complex Systems (2001), Montpellier University
  • M.S Automated systems and microelectronics (1998), Montpellier University
  • M.Eng. Artificial Intelligence (1998), IMT Mines Ales

Expertise

  • Information System
  • Risk and Crisis Management
  • Model-Driven Engineering
  • Interoperability
  • Artificial Intelligence
  • Service-Oriented and Event-Driven Architectures
  • Decision Support System

About

Tenured Full Professor - IMT Mines Albi - Industrial Engineering Research Center - FRANCE

Visiting Professor - Georgia Tech - H. Milton Stewart School of Industrial and Systems Engineering (since 06/2022) - USA

Frédérick Bénaben is a technology and operations scholar whose research addresses a central question: how can organizations continue to understand, decide, and act when the situations they face evolve faster than their conventional models, processes, and decision structures?

He is a Visiting Professor in the H. Milton Stewart School of Industrial and Systems Engineering at the Georgia Institute of Technology and a tenured Full Professor at IMT Mines Albi, France, currently on secondment to Georgia Tech. Affiliated with ISyE since 2020, initially as an Adjunct Professor, he co-directs the Sentient Immersive Response Network (SIReN) Lab with Professor Benoit Montreuil.

His distinctive contribution is to connect domains that are too often treated separately: artificial intelligence for situation understanding and anticipation; operations and decision sciences; organizational digital twins and adaptive processes; and immersive, human-centered interaction. The resulting decision architectures are designed not merely to predict what may happen, but to help people and organizations interpret evolving situations, explore possible futures, make responsible decisions, and coordinate their implementation.

At IMT Mines Albi, he heads the Digital Systems for Crisis Management and Security research team and directs the IOMEGA VR Lab. He is the originator of the R-IO Suite and Physics of Decision research programs and leads the HITeC immersive education initiative. Over more than two decades, he has transformed scientific concepts into enduring platforms, funded research programs, industrial laboratories, and international collaborations. He has authored or co-authored more than 280 publications, contributed to more than 20 major funded projects, and supervised or mentored 37 doctoral researchers.

Current Research Focus:

  • AI-Enabled Decision Making
  • Human–AI Collaboration
  • Cognitive and Resilient Operations
  • Organizational Digital Twins
  • Immersive Technologies
  • Supply Chain and Manufacturing Systems
  • Risk and Crisis Management
  • Business Process and Knowledge Engineering

Research

Frédérick Bénaben’s research starts from the premise that many contemporary operating environments are not merely uncertain but structurally unstable: actors, objectives, constraints, information, risks, and even the processes through which decisions are made can change while operations are underway. Static models and isolated predictive tools are therefore insufficient.

His research program develops human-centered cognitive operations for resilient manufacturing, supply networks, critical infrastructures, crisis response, and other complex sociotechnical systems. Its long-term objective is Business Sentience: the capacity of an organization to sense meaningful changes, construct a shared understanding of its situation, project alternative trajectories, recognize emerging risks and opportunities, formulate appropriate responses, and coordinate action.

To achieve this, he investigates an integrated chain linking heterogeneous operational data to situation models and organizational digital twins; these models to descriptive, predictive, and prescriptive intelligence; and this intelligence to human–AI decision-making and executable action. His methods combine symbolic, statistical, and generative AI; large language models and multi-agent systems; knowledge and model engineering; business process management and event-driven architectures; simulation, planning, and optimization; and virtual, augmented, and mixed reality.

Rather than seeking to remove people from decision-making, this research studies how machine intelligence can extend human perceptual, analytical, and action capabilities while preserving responsibility, explainability, and organizational agency. Immersive technologies consequently play a deeper role than visualization alone: they create an experiential interface through which decision-makers can inhabit complex digital models, perceive systemic interactions, explore alternative futures, and understand the consequences of possible interventions.

The R-IO Suite provides the experimental backbone for transforming fragmented data into situation awareness, decision support, and coordinated execution. POD (Physics of Decision) develops a complementary formal perspective in which organizational performance is represented as a trajectory through a multidimensional space, while risks, opportunities, events, and decisions act as forces capable of altering that trajectory.

Crisis environments serve as demanding test beds for this research because they concentrate uncertainty, time pressure, interdependence, and human responsibility. The resulting principles are transferred to manufacturing, supply chains, industrial operations, and other systems that must preserve performance and recover, adapt, or reconfigure under disruption.

His vision is to combine industrial and systems engineering, artificial intelligence, and immersive technologies to enable organizations to understand, anticipate, and act in complex and unstable environments—ultimately advancing what he calls Business Sentience.

Teaching

Frédérick Bénaben’s teaching is built on a simple premise: students learn to manage complex operations not only by mastering analytical methods, but by experiencing the systemic consequences of decisions.

His courses connect performance management, business intelligence, supply chain engineering, artificial intelligence, and decision support. Students are asked to move continuously between data and interpretation, models and organizational reality, local decisions and second- or third-order effects, technological possibilities and human responsibility. Industrial problems, scenario-based learning, digital twins, generative AI, and immersive environments are used to develop both analytical rigor and managerial judgment.

Through HITeC—the Hybrid Immersive Teaching Campus—he is developing a shared experimental learning environment connecting Georgia Tech and IMT Mines Albi. Students and instructors can enter common virtual situations, explore industrial and supply-chain systems from within, test alternative decisions, observe their cascading effects, and collaborate across geographical and disciplinary boundaries.

This approach makes teaching a continuation of research rather than a separate activity. Students do not simply learn how to apply existing tools: they learn how to frame unfamiliar problems, challenge models and AI-generated recommendations, integrate multiple stakeholder perspectives, make defensible decisions, and translate those decisions into action.

Representative Publications

Taken together, these publications trace the evolution of his research from modeling instability and resilience to developing AI-enabled, human-centered decision systems for complex operations and supply chain networks. They reflect an integrated research trajectory spanning theory, predictive analytics, intelligent agents, immersive environments, and the management of cascading effects in sociotechnical systems.

  1. Bénaben, F., Faugère, L., Montreuil, B., Lauras, M., Moradkhani, N., Cerabona, T., Gou, J., & Mu, W. (2022). Instability is the norm! A physics-based theory to navigate among risks and opportunities. Enterprise Information Systems, 16(6), 980–1007.
  2. Cerabona, T., Bénaben, F., Montreuil, B., Lauras, M., Faugère, L., Campos, M., & Jeany, J. (2024). The Physics of Decision approach: A physics-based vision to manage supply chain resilience. International Journal of Production Research, 62(5), 1783–1802.
  3. Zhang, T., Lauras, M., Zacharewicz, G., Rabah, S., & Bénaben, F. (2024). Coupling simulation and machine learning for predictive analytics in supply chain management. International Journal of Production Research, 62(23), 8397–8414.
  4. Bénaben, F., Congès, A., & Fertier, A. (2025). A prospective vision of the evolution of immersive technologies: Towards a definition of metaverse. Technovation, 140, 103154.
  5. Congès, A., Fertier, A., Salatgé, N., Rebière, S., & Bénaben, F. (2026). R-IO SUITE: Integration of LLM-based AI into a knowledge management and model-driven based platform dedicated to crisis management. Software and Systems Modeling, 25, 25–50.
  6. Sarr, L. A., Barthe-Delanoë, A.-M., Bork, D., Ayite, K., Macé-Ramète, G., & Bénaben, F. (2026). From chat to process: A conversational agent framework for social business process management. Information Processing & Management, 63(8), 104940.
  7. Li, J., Evain, A., Le Duff, C., Zhang, T., Panzoli, D., Fertier, A., Montreuil, B., & Bénaben, F. (2026, in press). Unravelling cascading phenomena in sociotechnical systems: A systematic review and modelling framework. Systems Research and Behavioral Science.
  8. Quan, Y., Liu, Z., Bénaben, F., & Montreuil, B. (2026, in press). Leveraging large language models to enhance multi-agent risk assessment in supply chain networks. International Journal of Production Research.