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Most current agreement with existing customer Low Carbon comprises four projects one of which includes a battery

Innovative TiOx interconnect boosts perovskite-silicon solar cell efficiency to 26.5%, paving the way for cost-effective, scalable, and sustainable solar energy solutions.

The research group from the University of Houston has found a novel catalyst which is likely to help effectively split hydrogen from seawater. This innovation is supposed to considerably advance the seawater electrolysis development for commercial hydrogen production.

Green Genius to build two solar power plants in Lithuania and Latvia with combined capacity of 200 MW. €179m investment to help decentralise energy sources and strengthen energy independence. Construction planned to start in 2024 and be operational in 2025.

Discover how N.C. State and Brookhaven National Labs have developed RoboMapper: a robot technology that automates materials research, leading to improved solar cell efficiency, reduced costs, and energy savings. Validated results show promising performance for converting light into electricity.

Led by the Department of Energy's Oak Ridge National Laboratory as well as the University of Tennessee, Knoxville, a study of a solar-energy product with a bright future revealed a way to reduce phonons, the waves that move heat. The discovery could enhance novel hot-carrier solar cells, which convert sunshine to electrical energy much more effectively than conventional solar cells by harnessing photogenerated fee providers before they lose energy to heat.

The dire assessment from the International Panel on Climate Change (IPCC) made it very clear this past year: To avoid the worst impacts of the climate crisis, a significant shift to clean energy sources must be well underway by 2030.

As a new member of photovoltaic family, antimony trisulfide (Sb2S3) has the satisfactory bandgap of 1.7 eV, profiting the fabrication of the leading absorber layer of tandem solar cells. Because of an unique quasi-one-dimensional framework, it shows benefits of much less dangling bonds. Based upon these advantages, the openings defects upon the surface triggering the recombination of carriers could be minimized dramatically, which assists to resolve the photovoltaic problems in solar cells.

Uncover the key to perovskite solar cell stability: ion-induced field screening. Discover how researchers are revolutionizing next-gen solar technology in Nature Energy.

Revolutionizing solar energy with a world-record efficiency of 27.1%, NUS researchers integrate cyanate into perovskite structure for improved stability and energy efficiency.

Research team from a few German institutes, together with South-China-based University of Technology, breaks a conversion efficiency record for organic photovoltaic modules. The 26 sq cm module consisting of 12 cells shows 12.6 per cent efficiency. The achievement is registered by Fraunhofer ISE.

By causing a suitable electron flow procedure called vectorial transfer, South Korean researchers had the ability to create a solar cell production technique that can produce cells with as much as 60 percent more electron transfer efficiency than traditional cells. The brand-new technique allows photovoltaic cells to manage electron flow in one desired instructions to minimize the loss of electrons throughout power generation.

In a recently-published research, 3-µm-thick readily offered parylene-C was transferred on the top of pre-cleaned glass through chemical vapor deposition (CVD) and after that the flip-over transferring (FOT) process was utilized to make certain a smooth parylene surface.

Discover how researchers from the University of Sydney achieved 100% efficiency in perovskite solar cells after being damaged by proton radiation in low Earth orbit. Learn about their innovative combination of hole transport material and dopant, plus the discovery of fluorine diffusion being the cause of cell degradation.

City University of Hong Kong researchers have created an innovative SAM molecule to improve the thermal robustness of perovskite solar cells, unlocking their potential for use in hot climates and reducing our reliance on fossil fuels.