“Envisioning, designing, and deploying sustainable and responsible systems for the industry of tomorrow.”
The “Industry of the Future” area of excellence represents a new way of thinking about and organizing businesses, drawing heavily on key principles, resources, and technologies whose impact extends to organizational, methodological, and technological spheres. Many industries are involved: transportation (automotive, aerospace, rail, and marine); energy (wind power, nuclear, decommissioning, etc.); aerospace and defense; robotics and mobile machinery (construction, agricultural, etc.); machine tools and specialized machinery; medical technology; the food processing, chemical, and petrochemical industries; home automation and consumer products, etc.
The “Industry of the Future” area of excellence comprises 5 specialized tracks and trains nearly 200 students each year. It draws on the resources of the CERIS research center and the Mechatronics Platform.
Through a teaching approach focused on learning by doing and hands-on experience via collaborative group projects for each teaching module and elective specialization; numerous scientific and industrial projects, practical labs, and application-based tutorials—all conducted in close collaboration with faculty researchers and industry professionals using professional environments and tools—the program’s curriculum enables students to become “architects of innovative technologies who contribute to industrial and societal progress.”
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Study routes are offered in the Industry of the Future field of excellence
General engineer
At the end of the common core of the generalist engineer training, two options are offered in the field of excellence.
JEAN-SAMUEL WIENIN
Manager
Generalist Engineer, Mechatronic Systems option :
Mechatronics is based on the synergistic integration of mechanics, electronics, automation, and computer science. When applied
to the design and manufacture of products, this interdisciplinary approach makes it possible to improve and optimize their performance and functionality. It lies at the heart of technological advances in embedded systems, robotics, and additive manufacturing, and supports developments in rapidly expanding fields such as drones, robotics, and autonomous vehicles.
This track trains engineers to adopt a mechatronics approach to design, develop, and deploy
high-performance, intelligent, and connected solutions. This versatile program opens the door to a wide range of careers, such as research and development, design offices, product engineering, project management, and business engineering. It finds applications in numerous industrial sectors, including energy, transportation, aerospace, mechanical engineering, healthcare, and defense.
Program of the option :
The syllabi are currently being updated and are subject to change.
1:00 = 55 min
Systems engineering: technical processes - 64H
- Principle of systems engineering
- Requirements engineering
- Architecture engineering
System engineering: support processes - 52H
- Dependability
- Verification, validation and IVTV
- System evaluation
Modelling - 72H
- CAD Projects
- Multidomain Modeling
- Problem Solving
- Business Information Tools
Robotics, Automation, and Cybersecurity - 66H
- Robotics and Cobotics
- Automation: Nonlinear Systems
- Cybersecurity
The syllabi are currently being updated and are subject to change.
1:00 = 55 min
Mechanics and Materials - 76H
- Vibration of structures
- Properties and selection of materials
Modelling methods - 53H
- EFI method
- Model-Driven Design (MBD)
Sensors and Actuators - 66H
- Actuators for Mechatronics
- Sensors and Interfaces
- Analog Electronics
Industrial Computing & Computer Science - 40H
- Development languages
- Microcontroller Architecture
Mechatronic Design - 81H
- Mechatronics Project Management
- Interdisciplinary Industrial Development Project
Computer Science for Intelligent Systems - 50H
- Artificial Intelligence
- Internet of Things
Elective Course - 200H
Application project - 120H
- Machining and prototyping
- Interdisciplinary Industrial Development Project
Pierre COUTURIER
Manager
Generalist Engineer, Industrial Engineering and Digital Transition option
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The objective of this option is to train engineers with the culture required to master the tools and challenges of the digital transformation of the company and their impact on the company's information system.
They will be able to join multidisciplinary teams for the deployment and implementation of technical processes (engineering, integration, production, etc.) and management processes (steering, configuration management, MCO, etc.)
They are called upon to evolve towards functions and roles of leadership and then team management: systems engineer, production engineer or systems architect.
Program of the option :
The syllabi are currently being updated and are subject to change.
1:00 = 55 min
Systems engineering: technical processes - 64H
- Principle of systems engineering
- Requirements engineering
- Architecture engineering
System engineering: support processes - 52H
- Operational Safety
- Verification, Validation, and IVTV
- System Assessment
Modelling - 72H
- CAO Project
- Multi-domain modelling
- Problem Solving
- Information tools for the company
Robotics, Automation, and Cybersecurity - 66H
- Robotics and cobotics
- Automation: non-linear systems
- Cybersecurity
The syllabi are currently being updated and are subject to change.
1:00 = 55 min
System Engineering: Modelling and deployment - 30H
- Integrated logistic support
- Deployment of systems engineering in companies
Modelling and simulation of industrial systems - 56H
- SysML Modelling
- Simulation
ROBAFIS Challenge - 72H
Transformation of corporate information systems - 39H
- Advanced Planning System (APS)
- Interoperability and Integration
Operational Excellence - 73H
- Decision support and approaches to business management
- Lean Management
- 6 Sigma Method
Intelligent Systems Computing - 50H
- Artificial Intelligence
- Internet of Things
Interoperability of systems - 40H
- Enterprise Operating System
- Enterprise Resource Planning (ERP) and Supply Chain Management (SCM)
Applied Project - 120H
GRÉGORY ZACHAREWICZ
Manager
DUAL DEGREE PROGRAM
Science and Digital Technology for Health
At the end of the second year, students can complete their final year in the Master’s program in Science and Digital Technology for Health at the University of Montpellier, which offers two tracks:
- Biomedical Physics
- Healthcare Device Engineering
This program allows students to deepen their skills in digital sciences applied to the healthcare field and to earn both an engineering degree and a Master’s degree.
Mechanical Modeling
At the end of the second year, students have the option to complete their final year in the Master’s in Mechanics program at the University of Montpellier, with a specialization in Computation and Simulation in Mechanical Engineering or in Biomechanics.
DOCTORATE
Doctorate in the Risk Sciences Laboratory research unit