ENSTA Bretagne : formation en robotique mobile et systèmes embarqués
Julien Ogor

Embedded systems

In this specialization path, the co-operative (apprentice) engineers learn to design and programme complex digital systems by using high-level languages.
Objectives

ENSTA Bretagne’s specialization in embedded systems trains you in developing and enhancing these complex electronic architectures combining software, electronic hardware, specialist algorithms and telecommunications.

Program
  • Automatics
  • Computer technology
  • Electronic systems
  • Information processing
  • ...

Cell phones, cars, ships, planes, rockets, robots…there are embedded systems hidden in the most common and complex products. They have to contend with key considerations (bearing on autonomy, weight, robustness and security for example) and are becoming ever more complex.

The first two years are spent learning a knowledge set in Information and Communication Science and Technology (mathematics, automation, signal, computer science, analog and digital electronics).

In the final year, teaching will be geared towards helping students to grasp the programming methods for real-time embedded systems and high-performance computing, design of artificial intelligence and the mechanisms of software-defined radio and networks of sensors.

Graduates will be able to find work in a range of sectors where these embedded systems are driving innovation: the defense industry, medicine, shipbuilding, aeronautics, automobile industry and energy.

The strengths of the training program
An engineering course in embedded systems design that stands out for its experience, the scope of its skills and the quality of its partners.

A pioneering engineering school for co-operative courses in embedded systems. 

For 50 years, ENSTA Bretagne has been training high-level engineers in the field of embedded systems. It has innovated by offering co-operative courses since 2006: ENSTA Bretagne is now recruiting its 18th "Embedded Systems" engineers class.

Our graduates are all employed, recognized in industry and some have even become in-company trainers for our students. 
 

A specialized, ambitious and strategic engineering degree

The engineering course in the field of embedded systems is an engineering degree accredited by the CTI and specialized in the design and development of complex electronic architectures that combine software, electronic hardware and business algorithms.

Embedded systems are central to complex system interactions: detecting, deciding and taking action are the main tasks of an embedded system. Their design requires general knowledge of electronic and computer system modeling.

  • ENSTA Bretagne has a long tradition of courses in these fields (sensor chains, control systems, electronic engineering and software engineering) and has been involved for several years in the development of autonomous robotics, Artificial Intelligence and cyber security: all disciplines involved in the development of embedded systems, as a strategic and rapidly changing engineering field.
A multitude of industrial fields

The course in embedded systems leads to a new level of perspective: the scientific methods and technologies covered during the course apply to all industrial fields, whether civil or defense. The school is also fortunate to have many professionals, who are engineers in these fields, who are involved in teaching. This gives our graduates the ability to work in a wide range of industries. These include the following areas:

  • electronics,
  • computer technology,
  • aeronautics and space,
  • naval,
  • mobility and transport (automotive, rail and public transport management and control),
  • telecommunications,
  • energy,
  • agriculture,
  • sustainable development.
A school that produces research in the field of embedded systems

ENSTA Bretagne is a school in the Brittany network of high digital technologies and a member of many expert networks such as IRT Bcom (a research and technology institute for digital innovation), the cyber excellence cluster (a reference cluster for France based in Brittany), CominLabs (a laboratory of excellence in information and communication sciences), the Groupement Bretagne Télédétection (a scientific consortium for space technologies and applications) and the competitiveness clusters for the maritime sector (the Brittany Atlantic Sea cluster), the automotive industry (ID4CAR), Images and networks, the industry of the future (EMC2), the aerospace sector (Aerospace valley) and many scientific and technological networks for the defense sector.

The performance of embedded systems is increasing with the appearance of new computer languages and new programming methods, and the development of new electronic components, to provide ever more services, data, reliability, security and adaptability. ENSTA Bretagne's research teams (Lab-STICC laboratory) are involved in these major scientific and technological advances.
 

A reference school in the defense field

The design of weapons systems and that of electronic warfare systems are also a long-established areas of excellence for the school, which is supervised by the French defense procurement agency, Direction Générale de l’Armement, i.e. the department that decides on the systems to be developed for the armed forces of tomorrow.

ENSTA Bretagne is the reference school for training engineers (civil and military) for the French Ministry of the Armed Forces, for many companies in the field and for the French defense innovation agency (AID). These organizations are the largest investors in France in new technologies and are involved in the innovation dynamics of many companies.

ENSTA Bretagne : projet Deepdart de reconnaissance d'objets par des robots (intelligence artificielle)

Spotlight on the Deepdart project

The Deepdart project was created by Théo Lagrue and Tony Calvez, two co-operative (apprentice) engineers specializing in "embedded systems".
For several weeks, they worked on artificial intelligence for robot recognition.

Their project included different phases:

  • Learning: 12,000 images were acquired for the database, the numerous calculations being accomplished by a super-computer.
  • Execution: the execution algorithm enables the images to be analyzed (each image being divided into different segments which are analyzed and compared to the data acquired in the previous phase).
  • Detection: when several parts of the image are recognized, an algorithm standardizes the different zones to detect the complete object.

This project was a real experiment in the field of intelligence and embedded systems. It was a challenge to accomplish so many calculations on Nintendo Switch architecture and the result was way above our expectations.

 

Claire’s testimony, Scrum Master, 2015 co-operative engineer graduate, specializing in embedded systems.

Examples of final year projects accomplished (6 month mission in company)

  • application in the automobile sector : "Development of electromagnetically compatible, risk analysis and design rule definition assistance tools" for PSA Group,
  • application in robotics : "Study and optimization of robotic systems to localize and identify underwater mines" for DGA Techniques Navales,
  • application in the naval sector : "Study of the operation reliability and safety progress path for a submarine program" for Naval Group