Research interests

My research is focused on clean hydrogen energy integration. Keywords related to my research in this area include:

  • Energy management, renewable energy integration, resilience, sizing, demand response
  • Hydrogen energy, fuel cells and electrolyzers integration, diagnostics and prognostics
  • Microgrids, electric power systems, multi-energy systems, cyber-physical energy systems
  • Agent-based control systems, optimization, real-time simulation, co-simulation


See my Google Scholar profile.

Selected current projects

I am involved in the following projects, as a project coordinator or as a scientific participant.

Hydrogen gas turbines

  • Funding: General Electric (GE)
  • Partners: GE, UTBM / UFC / FEMTO-ST

This project, part of the UTBM-GE chair program, aims to design combustion turbines running on hydrogen.


This project will focus on the integration of hydrogen energy in islands weakly and not interconnected to larger electric grids, with the goal of enabling 100% carbon-free electricity supply. It will investigate the technical, economic and societal challenges related to this integration, while studying the possible solutions at both the neighborhood and island levels. Three case studies will be carried out: Corsica, La Réunion and French Polynesia.


This project investigates the use of fuel cells to decarbonize the backup supply of datacenters, traditionally done with diesel generators. Two demonstrators will be installed in Extendo’s datacenter in Belfort.


  • Funding: French energy agency (ADEME), 2019-2025
  • Partners: STORENGY, AREVA H2Gen, Electrochaea, Engie Green, Engie Lab, SDEY, Yonne Energie, FEMTO-ST
  • Website (not yet available)

This project aims to prove the techno-economic feasibility and replicability of a power-to-gas plant coupled to a wind farm and waste-based biogas plant. The produced methane will either be injected in the gas grid or used for mobility. It will also investigate how a MW-scale electrolyzer can provide flexibility in the provision of several services to the plan and/or the grid.


This project is a continuation of the DATAZERO project. It mainly focuses on uncertainty management and mitigation, infrastructure reconfiguration, and IT and power resources scheduling.


The goal of this project is to design and test an isolated micro-grid for cogeneration of electricity and cold. The system aims to intelligently integrate renewable generation, hydrogen energy storage and thermochemical process for the supply of electricity and cold. A pilot demonstrator will be installed in French Polynesia.


This project aims to install a 2.5 MW PEM electrolyzer in the Raggovidda wind farm in Norway, whose growth is limited by grid bottlenecks. Several business models (energy storage, mini-grid, fuel production) will be evaluated for the use of the produced hydrogen. A particularity of the wind farm is that it is difficult to access and is operating in arctic conditions, which requires remote monitoring and control capabilities, as well as minimal maintenance. Our technical focus in the project is on the diagnostics and prognostics of the system. We also lead the dissemination work package.

Finished projects


The goal of this project is to design a 1 MW datacenter entirely powered by renewable energy. This is achieved through a negotiation between the IT side and the electrical side, which is expected to help find a tradeoff between IT quality of service, costs and reliability. On the electric side, we consider PV panels, wind turbines, batteries and hydrogen storage in the form of an electrolyzer and a fuel cell. Our work is on system structure and interactions, modeling the microgrid with a focus on aging, and energy management.


This project is a European training network, which aims at training 11 PhD researchers in the field of smart grid metrology. Each PhD student, also called early stage researcher or ESR, is based at an institution and spends several months at three secondment institutions. He/she also participates in multiple dedicated training events. The work of the ESR is focused on supraharmonics, which are harmonics in the range of 2 to 150 kHz. The final aim is to design a calibration platform for the measurement of such signals.

Other finished projects

  • Passivity-based control of hydrogen-based microgrids
  • Coordination of interconnected microgrids in collaboration with CIAD
  • Sizing and energy management of hydrogen-based microgrids
  • Innovative pricing schemes for residential demand-side management, in collaboration with Colorado State University and South Dakota State University
  • Energy management in smart neighborhoods with local energy trading, in collaboration with Colorado State University
  • Agent-based control system for gas turbines power plants, in collaboration with GE Power & Water
  • Agent-based battery management system for large battery packs, in collaboration with LE2I



  • Dr. Hanqing Wang (2020)
  • Dr. Meiling Yue (2019-2020)
  • Dr. Raffaele Petrone (2019)
  • Dr. Berk Celik (2017-2018)

PhD students:

  • Fatimatou Wade (since 2022)
  • Agnès François (since 2021)
  • Daniel Harzon Medina (since 2020)
  • Corey Duncan (since 2020)
  • Qian Li (since 2019)
  • Hugo Lambert (since 2019)
  • Dr. Suyao Kong (2016-2020)
  • Dr. Jin Wei (2015-2019)
  • Dr. Deepak Amaripadath (2016-2019)
  • Dr. Bei Li (2015-2018)
  • Dr. Berk Celik (2014-2017)
  • Dr. Feng Yang (2014-2017)

Interns (Master’s):

  • Corey Duncan (2020)
  • Francesco Vitale (2019-2020)
  • Suyao Kong (2016)


As FCLAB members, we have access to its facilities for safe, long term tests using hydrogen equipment, such as fuel cells and electrolyzers. In addition to that, we also have a kW-scale DC microgrid we use for some of our research (see figure below), as well as other extensive hardware-in-the-loop equipment from Typhoon HIL.