
Short Biography
After an electronic and automation education, I obtained an engineer graduation in Automation and Electronic with a specialization in safety critical embedded systems at INSA Toulouse. I pursued a PhD at ONERA Toulouse focused on the application of SAT and SMT to safety assessment and safe architecture synthesis with Claire Pagetti and Remi Delmas. Since then, I am working as a research engineer at the ONERA Toulouse lab, my main research topics are:
- the use of formal methods to assist design and certification of embedded systems
- safety assessment methodologies for autonomous systems
- the development of model-based safety assessment methods and tools
- safety-driven architecture optimization relying on IA based methods
Research
Design and certification of embedded systems
Projects
- PHYLOG (2016-2020) Certifiability of multi and many-cores architectures
Conference committee
- PC: ERTS2020
Safety assessment of autonomous systems
Projects
Conference committee
- PC: ERTS2020
Development of model-based safety assessment methods and tools
Safety-driven architecture optimization relying on IA based methods
Students
Current Post-Docs
Current PhDs
Current trainees
Teaching
Safety assessment of critical systems
- Introduction to safety assessment of static and dynamic systems at ISAE 3A, SEN and EMS masters
- Safety assessment of static systems at ENSEEIHT 2A
Education
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2017-2014: PhD thesis at ONERA Toulouse on the development environments and methods for synthesis of predictable and fault tolerant systems . Short abstract: Safety is one of the main guidelines for system design. Designers are in charge to develop architectures that comply with the safety requirements. We propose an automatic hardening method based on the exploration of possible designs to build safe systems. The method uses the state-of-the-art safety analysis methods and SMT solver to propose an efficient resolution of safety driven exploration problem.
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2014--2009: Engineer graduation in automation, electronic and safety critical embedded systems at INSA Toulouse
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2009: High School Diploma received at Lycee Toulouse Lautrec
Experience
- Now - January 2018: Research engineer at ONERA Toulouse, main research topics are:
- the development of model-based safety assessment methods and tools
- the use of formal methods to perform safety assess
- safety-driven architecture optimization relying on IA based methods
- new safety assessment methodologies for autonomous systems
- December 2017--November 2014: PhD thesis at ONERA Toulouse on the development environments and methods for synthesis of predictable and fault tolerant systems .
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February 2014: Master Internship at ONERA Toulouse on the conception of fault tolerant multi periodic longitudinal controller on many core target:
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Survey of classical fault tolerance techniques
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Suggestion of development cycle for controller conception
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Formalization of automatic hardening techniques and implementation of a demonstrator on Matlab with Cecilia OCAS interface
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Application of hardening on longitudinal controller and simulation with SchedMCore tool
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June 2013: Bachelor Internship at MyFox Labege, conception of communication card for ZigBee Home Automation wireless protocol:
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Auto training on ZigBee Home Automation standard
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Hardware and software solution designer (TI CC2530)
Computer skills
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System Modelling: AADL, Matlab, Simulink, UML
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Safety Modelling: Altarica, HipHOPS, GRIF
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Program Languages: C, Java, Scala, Android, SCADE, Lustre , Prelude
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Text-Processing: Word, OpenOffice, Latex
The KCR Analyser Tool
The KCR analyser is a model-based safety analysis tool for static systems described in the KCR language. This tool is a an implementation of the methods developped in my PhD on "Automatic Synthesis of Fault tolerant Architectures " tutored by Claire Pagetti and Remi Delmas. The manuscript is available here and the presentation slides are available here.
The KCR analyser provides the following safety analyses using SMT-based and BDD-based techniques.
- computation of reliability
- computation of minimal cutsets (called MCS)
- computation of minimal cardinality of MCS (without computing them)
- check cardinality requirement on MCS (without computing it)
- check system monotony
- check reliability requirement
- solve exploration problem
And the following extra features are provided
- dot export of the Binary Decision Diagram of the structure function
- package management
- syntax highlighting for emacs