Electrical Engineering for Renewable Energy and Smart Grids
An advanced graduate program preparing students to design, operate and optimize the intelligent energy systems of tomorrow.
The program develops strong foundations in electrical engineering, renewable energy, smart grids and technical project management.
Students learn how to design, size, install, monitor, control, manage, optimize and maintain modern electrical and renewable energy systems.
The program responds to major energy challenges including the modernization of electrical networks, deployment of renewable energies, optimization of decentralized production and security of energy supply.
Its multidisciplinary structure combines electrical systems, renewable technologies, energy storage, industrial automation, artificial intelligence and sustainable development.
Key Learning Areas
Students develop the scientific, technical and managerial skills required to support the energy transition and modernize electrical infrastructure.
Renewable Energy Technologies
Explore renewable energy production technologies and their integration into modern energy systems.
Electrical Networks
Understand the operation, modernization and optimization of conventional and intelligent electrical networks.
Smart Grids
Study intelligent electricity networks combining digital monitoring, decentralized production and advanced control.
Energy Storage
Discover energy storage technologies, hydrogen systems and Power-to-X solutions for flexible energy management.
Electrical Machines
Develop expertise in electrical machines, static converters and electrotechnical systems.
Automation and Control
Apply industrial regulation, advanced control and automation to electrical and energy systems.
Energy Efficiency
Conduct energy audits and develop efficiency and energy-management strategies for buildings and industry.
AI for Smart Grids
Use digitalization and artificial intelligence to improve energy forecasting, supervision and grid performance.
Curriculum Structure
Click on each semester to explore the modules and progression of the program.
S1 First Year — Semester 1 Scientific and electrical engineering foundations
- M111Applied Mathematics and Numerical Analysis
- M112Signals, Systems and Industrial Instrumentation
- M113Heat Transfer and Heat Exchangers
- M114Electrotechnical Systems
- M115Thermodynamics and Energetics
- M116Foreign Languages: French and English
- M117Personal Skills
S2 First Year — Semester 2 Renewable technologies, conversion and control
- M121Renewable Energy Technologies
- M122Static Converters
- M123Electrical Machines
- M124Industrial Regulation and Advanced Control
- M125Energy Transition and Sustainable Development
- M126Foreign Languages: French and English
- M127Digital Culture
S3 Second Year — Semester 3 Smart grids, storage and intelligent energy management
- M231Hydrogen, Power-to-X and Energy Storage
- M232Electrical Networks and Smart Grids
- M233Energy Audit, Efficiency and Energy Management
- M234Industrial Automation, Digitalization and AI for Smart Grids
- M235Research, Innovation, Project Management and Entrepreneurship
- M236Foreign Languages: French and English
- M237Cultural and Artistic Skills
S4 Second Year — Semester 4 Professional preparation and final project
- M241Professional Skills
- PFEFinal Project, equivalent to six disciplinary modules
Projects and Practical Training
The program includes extensive experimentation on advanced technical platforms that reproduce different energy and industrial contexts.
Advanced Technical Platforms
Students experiment with electrical, renewable energy and smart-grid equipment in environments designed to reproduce real technical and industrial conditions.
Electrical System Design
Practical work develops the ability to design, size, install, monitor and maintain electrical and renewable energy systems.
Smart Energy Management
Students apply control, optimization, digitalization and artificial intelligence to energy networks and decentralized production.
Final Master Project
The final semester includes a major professional project equivalent to six disciplinary modules, allowing students to address a complex energy or electrical engineering challenge.
Career Pathways
Graduates are prepared for technical and managerial roles supporting renewable energy deployment, electrical infrastructure modernization and the development of smart energy systems.
Admissions and Application
Review the admission conditions and prepare your application for the current academic intake.
Check your eligibility
Confirm the academic prerequisites, selection criteria, teaching location and current application deadline.
Prepare your application
Gather the academic records and supporting documents requested in the official admission call.
Apply online
Complete the application form and submit all requested documents through the official UM6P platform.
Complete the selection process
Shortlisted candidates may be invited to complete an academic assessment or an admission interview.