Autonomous vehicle (Renault): Performance improvement of the Renault autonomous prototype Technical environments: Ubuntu 16, Docker, ROS, C++
Autonomous vehicle (confidential client): Realise autonomous driving on an electric vehicle for a demonstration purpose o Realise unit validation and system validation Technical environments: Matlab/Simulink, RTMaps, C++
Autonomous vehicle (ICONIQ motors): Conception of autonomous connected vehicle level 4 o Propose functional architecture o Define use cases
Steer-by-Wire (Renault): Develop an electro-mechanic system that replaces the mechanical link between the steering wheel and the directional wheels o Define functional requirements for the system o Validate a car model for control law development o Define system components o Develop the system control law o Define test scenario for the control system Technical environments: Matlab/Simulink 2013b, Model Based Design
Truck platooning (confidential client): Research technical solution for a platoon which can operate on different terrains without neither predefined trajectory nor GPS o Define functional requirements for the service o Study sensor configuration o Generate the trajectory for the follower vehicles based on the position estimation of the leader truck o Develop longitudinal control laws Technical environments: Matlab/Simulink 2017b
AUTOPILOT project (European project - Develop autonomous small electric cars for using in a tourism area): Realise the platooning service o Define operational requirements and operational scenarios for the platoon o Develop the platoon longitudinal control law Technical environments: Matlab/Simulink 2013b Project partners: VEDECOM, CAE, Renault, YOGOKO, ESTECH, FAAR Industry
Simulation of Autonomous Vehicle (SystemX): Modelling autonomous system components on Matlab/Simulink for system validation o Develop a functional model of a long range radar o Simulate the Adaptive Cruise Control using the radar model Technical environments: Matlab/Simulink 2013b, SCANeR Project partners: IRT SystemX, OKTAL, Renault, Continental, Valeo
PACAERO project (Zodiac Aerospace): Realise the control law for fuel cell applied to the plane kitchen o Develop the power regulation for the fuel cell based on the Model Based Design o Develop system supervisory controller o Validate the controlled system o Generate and validate C code Technical environments: Matlab/Simulink 2013b, Model Based Design, DO178C
o Model complex systems o Develop control laws for complex systems based on neural network, fuzzy logic and adaptive control o Realise the control laws via the card I/O ARDUNO o Develop the Adaptive Cruise Control which operates from 0km/h, applicable for controlling the speed of the autonomous vehicle. The ACC controller is tested by many traffic situations and it is demonstrated to be robust, safe and comfort for the passenger o Technical environments: Matlab/Simulink, DSpace
Realise unmanned vehicle prototypes for an autonomous “taxi service” o Contribute to the autonomous vehicle functional concept o Realise the Supervisory control of the autonomous system: requirements, use cases, C++ development, documents o Analyse technical requirements for radars used in the project o Test and valid the operation of radars and cameras used for the prototype Technical environments: o Matlab/Simulink, State Machine, JAU, Visual Studio 2010, C++, CANalyzer, Ethernet - TCP/IP, Artisan Studio, ISO26262 o Renault Fluence, Passerelle CAN, MicroAutoBox, Camera, Radar, PC Windows
o Apply dynamic neuron network to build models of multi-motion complex systems on Matlab/Simulink o Develop numerical card to control two direct current motors leading a common load o Program the control law for the microprocessor o Technical environments: o Matlab/Simulink, C, CCS, Microprocessor PIC, HIL
o Design a recurrent neural network to model nonlinear dynamic systems o Develop training algorithm to obtain a dynamic model of the system based on the input-output data o Develop leaning control law that can deal with the uncertainties of the system o Illustrate the stability of the controlled system o Apply to modelling and control of a robot manipulator Technical environment: o Matlab/Simulink student version