4.7 Article

Sustainability Consolidated Ln3+(Ce3+-Pr3+-Nd3+):SnO2 System for Variegated Electrochemical and Photovoltaic Applications

Journal

ADVANCED SUSTAINABLE SYSTEMS
Volume -, Issue -, Pages -

Publisher

WILEY-V C H VERLAG GMBH
DOI: 10.1002/adsu.202300118

Keywords

ambient air stability; Nyquist plot; perovskite solar cells; specific capacitance; super-capacitors

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This study develops and utilizes a novel cerium-praseodymium-neodymium oxide co-doped tin oxide system for various energy applications. The synthesized material exhibits excellent optical, compositional, crystalline, and morphological properties, making it effective for energy-related micro-electrochemical applications. The development of electro-catalyst with this material shows superior energy production and charge storage potential, while the application in cesium-based solar cells demonstrates high efficiency and durability. Ln(3+)(Ce3+-Pr3+-Nd3+):SnO2 is an effective material with a perfect bandgap for diverse energy applications marked by sustainability and economic viability.
This work for the first time develops and employs the novel cerium-praseodymium-neodymium oxide co-doped tin oxide (Ln(3+)(Ce3+-Pr3+-Nd3+):SnO2) system for varied energy applications including electro-catalytic, super-capacitive, and photovoltaic conversion potential. The outstanding optical, compositional, crystalline, and morphological aspects of the synthesized material express its effectiveness for energy related micro-electrochemical applications. Bandgap narrowing due to lanthanide doping and acquiring cassiterite crystalline phase results in the auspicious output. O-2 and H-2 evolution of the developed electro-catalyst expresses superior energy production with lower overpotential values of 95 mV for O-2 and 131 mV toward H-2. Fabricated electrode expresses an impressive charge storage potential with the specific capacitance of 151.62 F g(-1). Also, this electrode has an extended service life for 100 min showing its ultra-durability for commercial applications. Ln(3+)(Ce3+-Pr3+-Nd3+):SnO2 is used as an electron transport layer in the cesium based solar cells with the power conversion efficiency of 12.49%, short circuit current of 19.63 mA cm(-1), and open circuit voltage of 1.2 V under artificial sun with negligible hysteresis. Ln(3+)(Ce3+-Pr3+-Nd3+):SnO2 is an effective material with the perfect bandgap tuned exceeding the pristine material for diverse energy applications marked by profound sustainability and economic viability.

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