Objectifs
Toulouse has one of the greatest concentrations of Embedded Systems industry in Europe with the major aerospace and equipment manufacturers working either for the aeronautical, space or car industry, including Airbus, CNES, Astrium, Continental, Thalès, etc. Embedded Systems have become essential in several kinds of product in daily life. Embedded Systems encompass a broad class of systems and are actively involved in all domains, from transport systems (aeronautics, space, road, rail and sea), to energy sectors (e.g. nuclear and chemical) and also to communication systems (e.g. mobile phones and PDAs). The Embedded Systems Master Program is a oneyear professional course, designed by the ENSEEIHT and ISAE partners, with the support of the embedded systems industry. Aware of the real need for a multidisciplinary approach, the program prepares students with in-depth and comprehensive knowledge of the underlying technologies involved in embedded systems. The program focuses on both theoretical and concrete aspects. It aims at: - developing competencies, at system level design for the development of Embedded-Systems, based on strong basics of complementary subjects, such as electronics, computer science, energy conversion and management, automatic control, telecommunications and networks, - developing the system approach through integrated projects to Master specific methods and tools applied to the following domains: aeronautics, space, automobile or multimedia. The training for this Master’s degree is multidisciplinary. It covers all hardware, software and control issues of Embedded Systems within an integrated system based perspective.
Contenu
Embedded Systems require collaborative training approach with a broad spectrum interweaving experts
from all concerned fields: electronics, energy, computer science, networks and control systems.
The academic session of the Master program consists of a 550-hour program covering the five disciplinary fields while focusing on the architectural aspect:
Initial Part - Standardisation
Laplace and Fourier Transformers, Transfer functions, frequency response, basic principles of stability, Analogic and digital electronic circuits, Distributed circuits and transmission wires, Physical principles of energy conversion, Computer based operations
Part 1 - Computer science
Real time language, Architecture description language, Real time operational systems
Part 2 - Control systems
Design and Validation of DES, Feedback Control, Signal Processing
Part 3 - Electronics
Digital representation of analog signal, Microprocessor and DSP architecture, Architecture and conception of digital integrated systems, Hardware and software co-design, Emission/Reception architecture
Part 4 - Energy
Actuator and converter control, Electromechanical and static energy converters, Autonomous energetic systems, Embedded electrical network
Part 5 - Networks
Embedded networks: an introduction, Specific buses and networks , Real time networks, Design and validation of real time protocols, Architecture of fault-tolerant buses
Part 6 - Embedded systems engineering - Applications
Real time control of a space system, Hybrid Systems, System Engineering, Real time control of a mecatronic system, Networked control systems
Part 7 - Embedded systems engineering - Courses
System Dependability, Certification, Computer Safety, Optimization, Electromagnetic compatibility , Mecatronic integration
Part 8 - ISAE Information system user introduction
Part 9 - Multi-diciplinary project
