New electrolyte for nano-crystalline solar cell
A solar cell and electrolyte technology, applied in electrolytic capacitors, circuits, capacitors, etc., can solve the problems of low utilization of sunlight and limit the light conversion efficiency of cells, and achieve the effect of improving the utilization rate and improving the photoelectric conversion efficiency.
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Embodiment 1
[0015] According to the molar concentration ratio of each component, weigh 0.0508g of iodine element, 0.1606g of lithium iodide, 0.4258g of DMPII, 0.3244g of TBP, and 0.0472g of GuSCN into 4ml of acetonitrile solution, fully dissolve to form a liquid electrolyte. Weigh samarium TPTZ complex 2.08×10 -5 g, added to the liquid electrolyte, fully dissolved, and prepared as a new liquid electrolyte of 0.0005%. The electrolyte is used to assemble a nanocrystalline solar cell, the dye is a ruthenium complex N3 dye, and the photoanode is a nano titanium dioxide (P25) film. At room temperature, use a xenon lamp to simulate sunlight, the intensity is 500W, and the effective light receiving area of the battery is 0.25cm 2 , the calculated photoelectric conversion efficiency of the battery is 5.14%.
Embodiment 2
[0017] According to the molar concentration ratio of each component, weigh 0.0508g of iodine element, 0.1606g of lithium iodide, 0.4258g of DMPII, 0.3244g of TBP, and 0.0472g of GuSCN into 4ml of acetonitrile solution, fully dissolve, and fully dissolve to form a liquid electrolyte. Weigh samarium TPTZ complex 20.8×10 -5 g, added to the liquid electrolyte to prepare a 0.005% new liquid electrolyte. The electrolyte is used to assemble a nanocrystalline solar cell, the dye is a ruthenium complex N3 dye, and the photoanode is a nano titanium dioxide (P25) film. At room temperature, use a xenon lamp to simulate sunlight, the intensity is 500W, and the effective light receiving area of the battery is 0.25cm 2 , the calculated photoelectric conversion efficiency of the battery is 6.07%.
Embodiment 3
[0019] According to the molar concentration ratio of each component, weigh 0.0508g of iodine element, 0.1606g of lithium iodide, 0.4258g of DMPII, 0.3244g of TBP, and 0.0472g of GuSCN into 4ml of acetonitrile solution, fully dissolve, and fully dissolve to form a liquid electrolyte. Weigh samarium fluorescein sodium complex 2.08×10 -5 g, added to the liquid electrolyte to prepare a 0.0005% new liquid electrolyte. The electrolyte is used to assemble a nanocrystalline solar cell, the dye is a ruthenium complex N3 dye, and the photoanode is a nano titanium dioxide (P25) film. At room temperature, use a xenon lamp to simulate sunlight, the intensity is 500W, and the effective light receiving area of the battery is 0.25cm 2 , the calculated photoelectric conversion efficiency of the battery is 4.58%.
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