Scientists in Mexico have conceived a new solar module cooling tech that can reportedly improve PV power generation by up to 2%. The system uses nanofluids embedded in an aluminum single-channel attached to the back of the panel.
Scientists have simulated dozens of electron transport layer-free cell structures and have identified the optimal design with a Zr:In2O3 front transparent electrode, a CuSCN hole transport layer, and a NAN rear transparent electrode. They have also optimized its thickness and bandgap.
Scientists have tested several machine-learning algorithms to predict the optimal tilt angle (OTA) of solar projects in 37 Indian cities, leading to improvements of up to 90%.
The novel technique is based on the VarifocalNet deep-learning object detection framework, which was reportedly tweaked to achieve quicker and more accurate results. Compared to other such methods, the new approach was found to be the most accurate and third quickest.
Scientists used a year’s worth of data from East China to analyze what weather conditions affect abnormal, high, and low PV output days. They also constructed a simple extreme output prediction model and examined the atmospheric circulation anomalies corresponding to extreme output events.
The Israeli Ministry of Energy and Infrastructure has presented three scenarios for its 2050 green goals, changing in accordance with developments in solar, hydrogen, and nuclear power production. In the most solar-focused scenario, the country would have a PV capacity of 108 GW.
SolaX has released a new 215 kWh storage system featuring 280 Ah lithium iron phosphate (LFP) battery cells, with 100 kW of rated AC power and a maximum efficiency of 98%.
Researchers have created a novel model that can help developers assess corn growth in agrivoltaic facilities. They also proposed to use spatiotemporal shadow distribution (SSD) to optimize crop yield and power production.
Bslbatt says it has developed a new storage system for commercial and industrial applications, offering up to 241 kWh of capacity and supporting 100 kW or 125 kW of solar.
Dyness has developed a new small-scale storage system in 71 kWh, 86 kWh, and 100 kWh variants for commercial and industrial (C&I) applications. The Chinese manufacturer says the product is based on lithium iron phosphate (LFP) cells.
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