EU invests €3.5M in a project to convert carbon and nitrogen emissions into valuable resources
A new era in solar fuels: our hybrid PV-battery-electrochemical (PV-B-EC) approach pushes PV-driven CO₂ reduction beyond its limits by overcoming the intermittency challenges of photovoltaic energy. By combining short-term battery storage with electrochemical conversion of CO₂ into fuels and chemicals for long-term energy storage, the PV-B-EC operates continuously under realistic conditions without complex control electronics. The battery stabilizes PV power fluctuations and significantly enhances solar-to-chemical conversion efficiency compared with conventional PV-EC concept, offering a simple and scalable pathway toward efficient solar fuel production.
Persistent CO2 reduction performance of an Ag nanoparticle gas diffusion electrode in realistic dynamic PV-driven operation
High-Efficiency Silver-Free Silicon Heterojunction (SHJ) Solar Cells: Revealing Cu paste based Metallization's Potential
Photoluminescence in halide perovskite films with shallow traps
Rapid Analysis Method Bridging Electrochemistry and Photovoltaics
Coupling photovoltaics (PV) with electrochemical (EC) water splitting is an established concept for storage of excess PV energy via production of green hydrogen.