FOR2ENSICS

FOR²ENSiCS (Future Oriented Renewable and Reliable Energy SIC Solutions) is an innovative research project dedicated to advancing the design and performance of power electronic converters for future energy systems. The project focuses on developing scalable, efficient, and fault-tolerant converter architectures that support the integration of renewable energy and enhance the reliability of electrical networks. The core ambition of FOR²ENSiCS is to address the growing demand for flexible and robust power conversion solutions in a rapidly evolving energy landscape. By leveraging ultra-high voltage Silicon Carbide (SiC) semiconductor technology to manufacture the first European 15 kV SiC IGBT, the project aims to push the boundaries of converter efficiency, thermal performance, and operational resilience. These advancements are crucial for applications such as DC grids, renewable energy integration, and high-performance industrial systems.

A key highlight of the project is the development of a modular converter demonstrator that embodies the principles of flexibility, reliability, and future-readiness. This prototype showcases novel topologies, advanced control algorithms, and intelligent fault management strategies. It is designed to operate across +/-10 kV to +/1,5 kV and 250/500 kW, making it adaptable to various use cases—from grid-connected renewable sources to isolated industrial systems.

FOR²ENSiCS also emphasizes system-level optimization, including thermal management, electromagnetic compatibility, and digital monitoring. These features contribute to improved converter lifespan, reduced maintenance needs, and enhanced safety. The project’s outcomes are expected to accelerate the adoption of SiC-based solutions in mainstream energy infrastructure.

Through collaboration with research institutions and industry stakeholders, FOR²ENSiCS fosters innovation and knowledge transfer, supporting Europe’s transition toward a more sustainable and resilient energy future. The project not only delivers technological breakthroughs but also contributes to strategic goals in decarbonization, electrification, and digitalization.

In essence, FOR²ENSiCS represents a forward-looking approach to power electronics—one that combines cutting-edge materials, intelligent design, and system-level thinking to shape the converters of tomorrow.