Dye sensitized solar cell efficiency improvement using nanodiamond anti-reflect layer

Simple and Convenient Interface Modification by Nanosized Diamond for Carbon Based All-Inorganic CsPbIBr2 Solar Cells

“…38 Much simpler is it that the NDs can be deposited on FTO glass to act as an antireflection coating. 39 Additionally, hydrogenated NDs could play the roles of donor in ND/perylene diimide composite 40 and an acceptor in ND/porphyrin composite, 41 supporting the study of photodynamics and photoelectrochemical properties in donor−acceptor composite systems. In this work, the spin-coated ND particles were first adopted to modify the CsPbIBr 2 /carbon interface in the typical one-step solution-processed CsPbIBr 2 planar PSCs.…”

“…Also the light absorption and photoconversion efficiency of DSSCs can be enhanced by employing the TiO 2 –3 wt % NDs nanocomposites photoanode . Much simpler is it that the NDs can be deposited on FTO glass to act as an antireflection coating . Additionally, hydrogenated NDs could play the roles of donor in ND/perylene diimide composite and an acceptor in ND/porphyrin composite, supporting the study of photodynamics and photoelectrochemical properties in donor–acceptor composite systems.…”

Fabrication of ZnO/CuBr1-x I x microstructural transparent solar cells with buffer layer

“…Hence, the introduction of an anti-reflective layer is expected to improve P max by increasing the UV absorption and improve the transparency of the TSC by increasing the transmittance in the visible region. 36,37) Table I shows the parameters of the TSC without BL, the TSC with ZnO BL, and the TSC with MgO BL. In summary, the TSCs exhibit power generation under AM1.5, 100 mW cm −2 irradiation; the TSC with MgO BL has the highest P max of 7.3 nW cm −2 with a V OC of 42 mV, J SC of 0.64 μA cm −2 , fill factor of 26.7%, and transmittance of over 70% in a range greater than 500 nm.…”