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Potential Substitutes for Replacement of Lead in Perovskite Solar Cells: A Review

pmid: 31692982
pmc: PMC6827533
AbstractLead halide perovskites have displayed the highest solar power conversion efficiencies of 23% but the toxicity issues of these materials need to be addressed. Lead‐free perovskites have emerged as viable candidates for potential use as light harvesters to ensure clean and green photovoltaic technology. The substitution of lead by Sn, Ge, Bi, Sb, Cu and other potential candidates have reported efficiencies of up to 9%, but there is still a dire need to enhance their efficiencies and stability within the air. A comprehensive review is given on potential substitutes for lead‐free perovskites and their characteristic features like energy bandgaps and optical absorption as well as photovoltaic parameters like open‐circuit voltage (VOC), fill factor, short‐circuit current density (J SC), and the device architecture for their efficient use. Lead‐free perovskites do possess a suitable bandgap but have low efficiency. The use of additives has a significant effect on their efficiency and stability. The incorporation of cations like diethylammonium, phenylethyl ammonium, phenylethyl ammonium iodide, etc., or mixed cations at different compositions at the A‐site is reported with engineered bandgaps having significant efficiency and stability. Recent work on the advancement of lead‐free perovskites is also reviewed.
- National Physical Laboratory United Kingdom
- Universidade Nova de Lisboa Portugal
- Universidade Nova de Lisboa Portugal
- Universidade NOVA de Lisboa Portugal
- National Physical Laboratory United Kingdom
Technology, Perovskite Solar Cell Technology, Materials Science, Photovoltaic Cells, Reviews, lead‐free perovskites, photovoltaic parameters, Engineering, Chemical engineering, Band gap, FOS: Electrical engineering, electronic engineering, information engineering, Materials Chemistry, Nanotechnology, GE1-350, Electrical and Electronic Engineering, Optoelectronics, Applications of Quantum Dots in Nanotechnology, Perovskite (structure), Halide, Photovoltaic system, FOS: Chemical engineering, Iodide, FOS: Nanotechnology, T, Voltage, Geomorphology, Geology, FOS: Earth and related environmental sciences, stability, Lead (geology), Materials science, Open-circuit voltage, Environmental sciences, Thin-Film Solar Cell Technology, Chemistry, Ammonium iodide, Solar Cell Efficiency, Electrical engineering, Physical Sciences, Energy conversion efficiency, Perovskite Solar Cells, Inorganic chemistry
Technology, Perovskite Solar Cell Technology, Materials Science, Photovoltaic Cells, Reviews, lead‐free perovskites, photovoltaic parameters, Engineering, Chemical engineering, Band gap, FOS: Electrical engineering, electronic engineering, information engineering, Materials Chemistry, Nanotechnology, GE1-350, Electrical and Electronic Engineering, Optoelectronics, Applications of Quantum Dots in Nanotechnology, Perovskite (structure), Halide, Photovoltaic system, FOS: Chemical engineering, Iodide, FOS: Nanotechnology, T, Voltage, Geomorphology, Geology, FOS: Earth and related environmental sciences, stability, Lead (geology), Materials science, Open-circuit voltage, Environmental sciences, Thin-Film Solar Cell Technology, Chemistry, Ammonium iodide, Solar Cell Efficiency, Electrical engineering, Physical Sciences, Energy conversion efficiency, Perovskite Solar Cells, Inorganic chemistry
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