Urea-driven g-C<sub>3</sub>N<sub>4</sub> nanostructures for highly efficient photoreduction of Cr(<scp>vi</scp>) under visible LED light: effects of calcination temperature
Faramarz Safari, Reza Poursalehi, Hamid Delavari
Abstract
are critical factors that impact the photocatalytic performance. Alongside the calcination temperatures, the concentration of citric acid as a hole scavenger, the source of illumination, pH levels, and the recycling ability of the produced specimen at 450 °C were also investigated. Conspicuously, the photocatalyst works better when more citric acid is present and the pH level decreases. Out of all the cases studied regarding the light source, the 400 nm LED light source was found to be the most efficient. Additionally, even after going through the photoreduction process four times, the photocatalyst still remained highly efficient.
Topics & Concepts
CalcinationVisible spectrumNanostructureChemistryUreaNuclear chemistryMaterials sciencePhotochemistryCatalysisNanotechnologyOptoelectronicsOrganic chemistryAdvanced Photocatalysis TechniquesPerovskite Materials and ApplicationsAdvanced Nanomaterials in Catalysis