A solar panel on display at a science museum in the Netherlands is one of 2,748 modules that were used for the country’s oldest PV system. The module has an efficiency of around 9% and a power output of 18W. It was manufactured by Germany-based AEG-Telefunken in 1982.
The device achieved the highest efficiency and fill factor ever reported for an all-polymer solar cell based on polymerized small molecular acceptors. The cell was built with a top donor material known as PBDB-T and an electron acceptor made of the polymer PYT.
Florida utility FPL has been mulching solar panel packaging – cardboard boxes and pallets – to save approximately $130,000 per 75 MW (AC) site, compared to standard disposal practices.
Elsewhere, French renewable hydrogen startup Lhyfe has announced it is building an electrolyzer in eastern Germany, and Los Angeles-based Southern California Gas has launched a hydrogen-powered drone to monitor its gas grid.
The cell may be potentially used as a top subcell in tandem crystalline silicon-based devices. It was built with CdSe thin film with a direct bandgap of 1.72 eV.
A Japanese group has developed a storage system with potential applications in residential storage, electric vehicles, drones and Internet-of-Things devices.
Scientists in the United States have proposed to use a thermochemical energy storage (TCES) technique that stores energy in chemical bonds to recover the heat produced during air compression operations. According to them, this innovation may increase the round-trip efficiency of compressed air energy storage to 60%.
The Australian Renewable Energy Agency has announced AUD 40 million ($28.7 million) of research and development funding across two streams. Stream 1 consists of cells and modules, while Stream 2 is focused on balance of system, along with operations and maintenance. It is hoped the additional funding will spur Australia’s pioneering solar research to push for the federal government’s “ultra low-cost solar” target of AUD 15/MWh.
The solar arm of oil major BP is proposing to build an agrivoltaic project in the Upper Hunter region big enough to provide 4% of New South Wales’ (NSW) electricity demand. The project will include 296 MW of storage capacity.
The investment is planned to support development and construction of Hydrostor’s 1.1GW, 8.7GWh of Advanced Compressed Air Energy Storage projects that are well underway in California and Australia, and help expand Hydrostor’s project development pipeline globally.
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