Contact
Biography
I am currently a post-doctoral researcher at the University of Nottingham, working with Jason Atkin on the ENGIMA project (Supervisor Control for Enhanced Electrical Energy Management).
Before that, I was a post-doctoral researcher at Institut Mine-Telecom (IMT) Atlantique in Nantes, France.
I obtained my PhD in LAAS-CNRS in Toulouse, France in 2017
Expertise Summary
I am specialized in mathematical modeling of real-life complex systems (for transport, logistics and energy management for example) and their solution using combined methods of mathematical programming and heuristics or matheuristics.
Teaching Summary
I am currently not in charge of teaching.
I used to participate in teaching activities of courses such as Algorithms and Programming, Logic, Parallel and Synchronization for undergraduate and first-year master students in University of Toulouse III Paul Sabatier. I also participated in teaching TSP lab for first-year international master students in IMT Atlantique.
Research Summary
ENIGMA Supervisor Control for Enhanced Electrical Energy Management
The ENIGMA project addresses the development of the Centralized Smart Supervisory (CSS) controller by means of formal and methodological approaches. Mathematical optimization tools has been used to obtain the formulation for the Enhanced Electrical Energy Management (E2-EM) control logics. This will ensure the ability to formally prove the correctness and optimality of the control action by construction. This strategy will provide an optimal management and sharing of available on-board electric power during overloading and failure conditions. This will pave the road towards more efficient, greener aviation.
More details
Recent Publications
Past Research
CRC ON Open Network: Continuous Time Service Network Design and Routing Problem
Inventory Routing Problem with Explicit Energy Consideration
Future Research
Complex system design and management for optimal performance.
With the development of telecommunication systems or sensor networks, the complexity of industrial systems evolves spatiotemporally. Different aspects of a system, which were spatially separated due to lack of information or communication, are now linked. Temporarily, accessibility to historical or real-time data thanks to sensors would require optimization over a much longer (several weeks or months) and much finer (in minutes or hours) time horizon.
This gives huge research opportunity to deepen theoretical insights and develop efficient solution algorithms to ensure the function and optimality of such industrial systems.