solar cell

Experience the breakthrough of thin-film tandem solar cells: Researchers at Empa, NUS and HI ERN achieve record efficiency of 29.9%, lower electricity costs & 2000 Wh/m2 daily.

Discover how researchers from the University of Rome, ENEA, and CNR-ISM developed a protective buffer layer to mitigate sputtering damage in perovskite solar cells for better performance and efficiency. Up to 16.44% efficiency, with no visible transmission loss.

Discover how a breakthrough process using kinetic temperature and duration control produces ultra-pure 2D Perovskite crystals with ideal quantum well thickness. Unlock the potential of optoelectronic and photovoltaic technologies with higher n-values and cost-effective materials.

Revolutionary record-breaking efficiency of 27% achieved in GaAs heterojunction solar cell by scientists at NREL. Combining computational and experimental methods to optimize doping and bandgap reduced the effects of defects. This breakthrough is applicable to multiple materials and levels of defect concentrations.

Groundbreaking design for perovskite solar cells boosts performance and stability, with 25.3% power-conversion efficiency measured in the lab and 95% of peak performance after 1000 hours of testing. Unlock the potential of PSCs for commercial applications!

Discover the latest breakthrough material developed by researchers at University College London - a phosphorus-arsenic nanoribbon. With potential applications in quantum computing, batteries, supercapacitors, solar cells and more, this revolutionary technology could revolutionize energy storage and electrical efficiency.

Cosmos Innovation has raised $19.7M to build self-learning fab in the solar and semiconductor space. Experience a 10x acceleration in process recipes with top semiconductor companies and capture energy from the sun more efficiently with perovskite silicon tandem solar cells.

This research team has designed a large-area two-terminal tandem solar cell that boasts a 25.2% efficiency with over 10 cm2 in area. Learn more about the lithium fluoride interlayer that helps overcome common PV cell issues.

Exciting new research reveals perovskite photovoltaic cells with improved optoelectronic properties and reduced optical losses. Nanoimprinting method employed to create efficient, cost-effective anti-reflective layer compatible with tandem configurations. Possibility of producing entire devices on a large scale in a single process!

Unlock the power of the sun with a new, ultra-efficient solar cell from the University of Tübingen. Boasting 18% efficiency and cost-effectiveness, this revolutionary technology could revolutionize energy production and reduce CO2 emissions.

Unlock potential of tandem photovoltaic cell: Researchers design & simulate all-inorganic lead-free CIGS & perovskite cells for 38.39% efficiency.

Discover the remarkable power of MIT's ultralight fabric solar cells- 18x more efficient than traditional solar panels, capturing energy from any surface and resistant to 500+ cycles of rolling & unrolling. Embark on a greener future with sustainable energy generation.

Organic solar cells that can detect circularly polarised light in the entire visible spectrum? Linköping University researchers have made it possible. Now self-driving cars and other uses have become more reliable. Learn how the material's chirality, lightweight design, and simple manufacturing process make it a great choice for small and cheap sensors.

Discover how a new nanoscale coating of aluminum oxide on metal halide perovskite significantly improves energy output of perovskite solar cells, bringing us closer to global net zero targets. Researchers from University of Surrey, University of Warwick and UNSW explain.

Discover how Fraunhofer Institute for Solar Energy Systems ISE achieved a record open circuit voltage of >2.8 V in their perovskite-based triple-junction solar cell. Understand how optimizations in interlayers and gas quenching methods enabled this success and how this could lead to more efficient solar energy generation in the future.