Researchers at Cambridge, Imperial and Singapore have developed a method to print ultrathin coatings on next-generation solar cells, allowing them to work in

"What we have is an integrated module that turns sunlight into electricity that drives an electrochemical reaction. It utilizes water and sunlight to get chemical fuels."

"Our perovskite solar cells show no thermal degradation even at 200 degrees Celsius (390 degrees Fahrenheit) for over three days..."

Researchers pinpoint the origin of defects that sap the performance of next-generation solar technology.

Perovskites are in line to replace pricey silicon solar cells, but they break easily. Good news: a little heat can completely heal cracks.

Researchers had all but given up on emerging organic solar cell technology, but chemical tweaks brought them back from the brink. Here's how it worked.

A new kind of semiconductor made from barium zirconium sulfide instead of silicon could pave the way for better solar panels, LEDs, and sensors.

Discovery means simpler and cheaper manufacturing methods are actually beneficial for the material’s use in next-generation solar cells or LED lighting.

A new way to produce perovskite solar cells using inorganic ingredients limits their defects and lets them last for months.

A new method can make organic solar cells more robust and weather-resistant.