The global energy landscape is fundamentally shifting. As we rapidly integrate renewable energy sources like solar photovoltaics and battery storage systems, the modern grid is becoming increasingly "DC-native". Simultaneously, our biggest emerging loads—electric vehicles, data centers, and modern electronics—all run on Direct Current (DC).
Continuing to rely solely on legacy AC infrastructure forces the grid into a massive "conversion bottleneck," wasting immense amounts of energy through constant DC-to-AC and AC-to-DC translations. At the DC Power Laboratory, we are building the foundation for efficient, resilient, and intelligent DC Grids to power the sustainable future.
Developing the critical technologies to make universal DC grids a reality.
We design and analyze high-efficiency, solid-state power converters. These converters act as the intelligent "routers" of the energy internet, managing massive power flows with minimal thermal losses.
Integrating intermittent renewables requires robust control. We research and implement advanced control algorithms and droop control strategies to prevent grid collapse and ensure continuous, rock-solid stability.
For DC grids to scale, equipment from different manufacturers must interoperate safely. We actively contribute to developing international grid codes, standardization protocols, and ultra-fast fault protection systems.
We don't just write papers. We give physical body to our research through a rigorous, hands-on engineering pipeline.
Every innovation begins in the digital twin. We rigorously simulate topologies and control loops to prove mathematical concepts before hardware is ever touched.
We design custom PCBs and physically assemble high-power converters. This forces us to solve real-world engineering challenges like thermal dissipation and parasitic inductance.
Our fully-equipped laboratory allows us to safely test these converters under immense loads, validating our theoretical models against harsh physical realities.
Complex energy problems cannot be solved in isolation. The DC Power Laboratory operates as a unique educational ecosystem that combines the strengths of students across all academic levels.
Bringing essential practical craftsmanship. MBO students execute high-precision soldering, safe assembly of power cabinets, and practical hardware troubleshooting.
The backbone of applied research. HBO students design PCBs, program microcontrollers, run simulations, and integrate the overall system architecture.
Driving the theoretical boundaries. Master students develop complex mathematical models, advanced control algorithms, and pioneer new topological concepts.
"Together, we combine our power in the Power Lab."