I currently hold a Teaching and Research Associate position in Computer Science at LAAS-CNRS (Laboratory for Analysis and Architecture of Systems) and INSA Toulouse (national institute of applied sciences).
I obtained my PhD in Computer Science from the University of Bordeaux (France) in October 2016 (advisors: Arnaud Casteigts, Serge Chaumette and Colette Johnen). I then held an ATER position (Teaching and Research Associate) at the University of Bordeaux: LaBRI (Bordeaux CS dept.) and INP ENSEIRB-MATMECA (teaching institution) and a Postdoc position at the IRIT lab (University of Toulouse 1 Capitole). I am mainly interested in dynamic networks and distributed algorithms.
Laboratory: LAAS-CNRS - Laboratory for Analysis and Architecture of Systems
Research group: SARA - Services and Architectures for Advanced Networks
Teaching institution: INSA-Toulouse
Past affiliation :
Laboratory: IRIT - Toulouse Institute of Computer Science Research
Research group: SMAC - Cooperative Multi-Agent Systems
2013 - 2017
Laboratory: LaBRI - Bordeaux Computer Science Research Laboratory
Research groups: Distributed computing & COMET - COntext-aware Management of mEdia and neTworks
Teaching institution: Bordeaux INP ENSEIRB-MATMECA
I am currently working within the SARA team at the LAAS-CNRS lab on dynamic network analysis and modeling, with the aim to understand what really characterizes these networks.
I am interested, more generally, in dynamic graphs and distributed algorithms in dynamic networks. Dynamic networks consist of entities making contact over time with one another. A major challenge in dynamic networks is to predict dynamics patterns and decide whether the evolution of the topology satisfies requirements for the success of given algorithms. The types of dynamics resulting from these networks are varied in scale and nature. For instance, some of these networks remain connected at all times; others are always disconnected but still offer some kind of connectivity over time and space (temporal connectivity); others are recurrently connected, periodic,etc. All of these contexts can be represented as dynamic graph classes corresponding to necessary or sufficient conditions for given distributed problems or algorithms. Given a dynamic graph, a natural question to ask is to which of the classes this graph belongs. I mainly worked on the automation of dynamic graphs classification, proposing strategies for dynamic graph analysis, and developing frameworks and algorithms for testing relevant properties and computing parameters in dynamic graphs. I also attempt to understand what can still be done in a context where no property on the network is guaranteed and no assumption on the evolution of the network dynamics is made through the study of distributed problems.
The slides used during my defense are also available [pdf].