Empowering the Energy Transition and Ensure Access to
Affordable, Reliable, Sustainable and Modern Energy for All
The main challenge of the major transitions in our society is massive, cleaner and more sustainable electrification. The United Nations’ 7th Sustainable Development Goal (SDG) calls for commitments to enable a clean electrification future while maintaining reliability and affordability. The EPE’25 conference in Paris will focus on the energy transition as well as on the SDG 7 demonstrating how research can empower and accelerate it.
Electricity was established first as a major qualitative energy vector and then, together with power electronics, as a quasi-exclusive vector of information and communication systems whose massive digitalization is underway. Nowadays, limiting global warming involves a future sustainable decarbonized energy mix based mainly on renewable sources whose natural variability requires the implementation of new means of managing the supply/demand balance involving flexibilities and storage systems. With regard to mobility, the electrification of future aircraft, ship, and road vehicles has intensified over the past 10 to 15 years, with the “more electric transport”. Furthermore, work is being carried out on batteries and in particular on new thermal management and aging prevention systems up to recycling, improving fuel cell efficiency, and the use of multi-source systems where the design of energy management becomes central. The increasing use of electricity, assuming that it is produced in a green manner, with processes with a low environmental footprint over their entire life cycle, contributes to the decarbonization of energy and therefore has a beneficial impact on the environment. Across all the domains cited, there are many scientific challenges and often at the interfaces of several sciences: electrical, mechanical, thermal-energy, fluidic, physics and chemistry, digital, automatic, computer science, etc. Research will have to focus on understanding multi-scale phenomena (spatial and/or temporal), moving from upstream concepts developed under laboratory conditions to industrial level, combining experimental, theoretical and numerical approaches, introducing multiparametric studies requiring diagnostic approaches, statistical tools and those derived from artificial intelligence. All the above challenges require rethinking the technological options available to us in order to reconcile needs, sobriety and reduction of environmental impact. With the user at the heart of these questions, the humanities and social sciences have a major role to play. Therefore, current research integrates new challenges at the crossroads of electric energy and related sectors in hard sciences but also humanities, economic sciences, and environmental sciences.
The EPE’25 conference in Paris will specifically focus on the following challenging topics, not only in dedicated lecture and dialogue sessions of the conference but also in keynotes, the exhibition, panel discussions, tutorials, and technical visits. Paper submissions in line with these Focus Topics are highly encouraged.
Topic 1: Electromobility – the Powerful Factor in Reducing CO2
Topic 2: Smart Grids and Renewable Energy
Topic 3: Energy Storage Systems
Topic 4: Digitalization: the Powerful Fusion of AI and IoT for Sustainability
Topic 5: Sustainable and Affordable Power Electronics
Topic 6: Energy Transition and Societal Change
I - FOCUS TOPICS
TOPIC 1: ELECTROMOBILITY – THE POWERFUL FACTOR IN REDUCING CO2
1.a) Electric Road Vehicles (Light- and Heavy-Duty and their Drivetrain Components) 1.b) Electric Rail Vehicles (incl. Battery and Hydrogen Green Traction) 1.c) Electric Aircraft, Aerospace and Drones (incl. Drivetrain Components) 1.d) Electric Ships (Inland, Sea, Ferries) 1.e) Electric Off-Road and Non-Conventional Vehicles 1.f) Power-Electronic Devices and Integration for Electromobility
TOPIC 2: SMART GRIDS AND RENEWABLE ENERGY
2.a) Smart Grids, DC Networks and Components, Hybrid AC/DC Networks 2.b) Renewable and New Energy Sources 2.c) Power Electronics and Devices for Grid Applications 2.d) Railway Network Systems 2.e) Green Hydrogen and “X”: Electrolyzers and Plants 2.f) Multi-Vector Power Grids: Electricity, Gas, Heat, etc.
TOPIC 3: ENERGY STORAGE SYSTEMS
3.a) Energy Storage and Management Systems 3.b) Battery Aging, Reliability, and Safety 3.c) Smart Charging, V2G, V2H, Charging Infrastructure and Grid Integration for Electromobility 3.d) Energy Storage for Grid Applications including Industrial Solutions 3.e) Fuel Cells and Stacks, Electrolyzer Cells and Stacks and Associated Power Electronics 3.f) Hybridization of Energy-Storage Units for Energy-Transition Applications
TOPIC 4: DIGITALIZATION: THE POWERFUL FUSION OF AI AND IoT FOR SUSTAINABILITY
4.a) Digital Twins and Real-Time Simulation 4.b) Use of AI in Power-Electronics Applications 4.c) Cyber-Physical Security 4.d) Data-Driven and Physics-Based Techniques 4.e) Machine Learning 4.f) Evolution of Power Electronics with the Introduction of AI
TOPIC 5: SUSTAINABLE AND AFFORDABLE POWER ELECTRONICS
5.a) Design of Sustainable and/or Frugal Power Converters 5.b) Dynamic Life Cycle Analysis and Assessment 5.c) Recycling: Challenges and Methodologies 5.d) Circular Economy 5.e) State of Health: Online Monitoring, Failure Diagnosis and Prognosis, Remaining Useful Life Prediction
TOPIC 6: ENERGY TRANSITION AND SOCIETAL CHANGE
6.a) Smart Electromobility and Sustainable Development (Government Policies and Incentives related to E-Mobility Adoption) 6.b) Energy Efficiency, Environmental Impact and Acceptability of Energy Sobriety 6.c) Policy Instruments and Institutional Regimes for the Complete Decarbonization of Energy Systems 6.d) Energy Transition Economy and Social Sustainability of the Energy Transition 6.e) New Paradigms in the Use of Electrical Energy (New Consumers) 6.f) Sustainable Power Electronics Engineering Education
II - POWER ELECTRONICS COMPONENTS AND CONVERTERS
Topic 7: Semiconductor Devices and Packaging
7.a) Active Devices and Components 7.b) Integration and Packaging 7.c) Cooling Circuits and Thermal Management 7.d) Reliability and Life-Cycle Assessment
Topic 8: Components linked to Power Electronics
8.a) Magnetic Components – Inductors and Transformers 8.b) Dielectric and Interconnecting Components – Capacitors, Insulators, Cables, PCBs, Bus Bars 8.c) Electrochemical Components – Batteries 8.d) To- and from X Components – Fuel Cells/Stacks, Electrolyzer Cells/Stacks and Solar Cells 8.e) Shielding Components 8.f) Other Components – Resistors, Fuses, Contactors
Topic 10: Converter Modelling, Design and Low-level Control
10.a) Converter Design and Optimisation 10.b) Converter Modelling and Low-level Control, including Gate-Drives 10.c) EMI/EMC in Power Electronics including HF Phenomena 10.d) Thermal Optimization and Reliability Considerations
Topic 11: Measurement, Supervision and Control for Power Converters
11.a) Modulation and Control Methods 11.b) Estimation, Identification and Optimisation Methods 11.c) Measurement Techniques, Sensors and State Observers 11.d) Algorithms and Methods for Condition Monitoring and Life-Time Prediction
III - POWER ELECTRONICS APPLICATIONS
Topic 12: Electrical Machines and Drive Systems
12.a) Electrical Machines and Actuators 12.b) System Design and Optimization of Adjustable-Speed Drives 12.c) Control of Electric Drives 12.d) Algorithms and Methods for Condition Monitoring and Life-Time Prediction
Topic 13: Power Supplies and Industry-specific Power Electronics
13.a) Power Supplies and UPS 13.b) Lighting: Solid-State Lighting and Electronic Ballasts 13.c) Contactless (Wireless) Power Supply 13.d) Industry-Specific Applications (Cement, Steel, Paper, Textile, Mining, etc.) 13.e) Applications in Physics Research and Related Areas
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