Exploring the Photocatalytic and Supercapacitive Potential of CuZr2S4 Thin Films: A Key to Cleaner and Safer Environments

• Published in: Physica status solidi. A, Applications and materials science Applications and materials science, 2024-03, Vol.221 (6), p.n/a
• Main Authors: Gul, Mahwash Mahar, Ahmad, Khuram Shahzad, Thomas, Andrew Guy, Habila, Mohamed A.
• Format: Article
• Language: English
• Subjects: Bimetals; Chemical bonds; Chemical composition; Contaminants; Crystallites; Electrochemical analysis; Energy storage; energy storages; metal sulfides; Optical properties; photocatalysts; Photoelectrons; supercapacitors; Thin films; Zirconium
• ISSN: 1862-6300; 1862-6319
• DOI: 10.1002/pssa.202300986

In this research, an extensive exploration of bimetallic sulfide, CuZr2S4, is delved into. It involves the utilization of diethyldithiocarbamate as a sulfur source. The resulting thin film exhibits a well‐defined crystalline structure, characterized by an average crystallite size of 33 nm, indicating a commendable crystallinity of 87%. Bandgap energy through optical characterization is unveiled to be 2.5 eV, shedding light on the metal sulfide optical behavior. Furthermore, the elemental composition and chemical bonding of the thin film are elucidated using X‐ray photoelectron spectroscopy, revealing distinctive core‐level peaks associated with Cu 2p, Zr 3d, and S 2p. Electrochemical evaluations employing voltammetry measurements showcase remarkable specific capacitive performance, achieving an impressive value of 479 Fg−1. The thin film demonstrates exceptional stability over multiple cycles, underscoring its immense potential for diverse energy‐storage applications. A thorough assessment of the synthesized material's photocatalytic capabilities, namely its ability to degrade several types of environmental contaminants, is conducted. A bimetallic sulfide, CuZr2S4 thin film, is synthesized through physical vapor deposition. Thin film possesses remarkable properties resulting in exceptional performance. An impressive specific capacitance is exhibited portraying its energy‐storage potential. Moreover, the photocatalytic properties of the thin film also display its ability to degrade several environmental contaminants.