Small molecule dopant-free dual hole transporting material for conventional and inverted perovskite solar cells
Materials Chemistry Frontiers Royal Society of Chemistry 7:18 (2023) 4019-4028
Abstract:
Interfacial layers play very important roles in perovskite solar cells and the enormous diversity of reported materials has contributed to the outstanding progress of these photovoltaic devices. Nevertheless, the interfacial materials are commonly developed to be used in solar cells with a specific architecture, either conventional (n-i-p) or inverted (p-i-n). We report the exceptional performance of a small molecule, whose structural features, based on hydrogen bond-directed self-assembly, allow its application as hole transporting layer (HTL) in n-i-p and p-i-n perovskite solar cells with the same efficiency. This particularity has been investigated through a comparative study with a very similar molecule that cannot self-assemble, evidencing the benefits of the structural integrity of hydrogen bonded HTLs in terms of charge extraction and recombination, independently on the device architecture.Publisher Correction: Regulating surface potential maximizes voltage in all-perovskite tandems
Nature Springer Nature 620:7973 (2023) e15-e15
Suppressed phase segregation for triple-junction perovskite solar cells
Nature Springer Nature 618:7963 (2023) 74-79
Optical Simulation-Aided Design and Engineering of Monolithic Perovskite/Silicon Tandem Solar Cells
ACS Applied Energy Materials American Chemical Society (ACS) 6:10 (2023) 5217-5229
3D Perovskite Passivation with a Benzotriazole-Based 2D Interlayer for High-Efficiency Solar Cells
ACS Applied Energy Materials American Chemical Society (ACS) 6:7 (2023) 3933-3943