Publications
Peer-reviewed work across solar photocatalysis, heterojunction nanomaterials, dye and pharmaceutical degradation, adsorption, and water treatment materials.
Research impact
A compact view of how the published research is being referenced across the scientific community.
Google Scholar snapshot, . Yearly chart covers 2022 onward. View current profile.
A focused record of materials chemistry and environmental engineering publications, formatted as project-style research entries.
Developed a laddered Type-1 heterojunction photocatalyst capable of utilizing the full solar spectrum, enabling efficient scavenger-free photocatalytic degradation of pollutants under natural sunlight.
Solar Energy, vol. 240, p. 57, 2022.
Impact Factor 6.0Demonstrated sunlight-driven selective silver deposition on a semiconductor heterojunction to enhance photocatalytic performance through localized surface plasmon resonance.
Materials Research Bulletin, vol. 154, article 111929, 2022.
Impact Factor 5.3Engineered a Co2+-modified laddered heterojunction with significantly improved solar photocatalytic activity for the degradation of pharmaceuticals, dyes, and microplastics.
Materials Research Bulletin, vol. 176, article 112836, 2024.
Impact Factor 5.3Developed reusable zinc-ferrite nanospheres that selectively adsorb dyes across a wide pH range, offering an efficient solution for wastewater treatment and dye recovery.
Journal of Water Process Engineering, vol. 66, article 106013, 2024.
Impact Factor 6.3Designed a plasmon-enhanced hybrid photocatalyst combining Co2+-doped ZnFe2O4 nanospheres with ZnO nanosheets for highly efficient solar degradation of dyes and antibiotic contaminants.
Nanoscale Advances, DOI 10.1039/D4NA00949E, vol. 7, no. 6, pp. 1727-1735, 2025.
Impact Factor 4.6Introduced a biomimetic porous CuO/ZnO S-scheme heterojunction that achieves superior charge separation and rapid sunlight-driven degradation of organic dye pollutants.
ACS Omega, vol. 10, no. 36, pp. 41906-41916, 2025.
Developed a magnetically recoverable bi-junctional photocatalyst capable of efficiently degrading textile dyes and antibiotics under sunlight without requiring chemical scavengers.
Materials Research Bulletin, vol. 181, article 113074, 2025.
Impact Factor 5.3Presented a laddered heterojunction nanocomposite that effectively harnesses solar energy for the rapid degradation of the food dye Allura Red AC, demonstrating its potential for sustainable water remediation.
ACS Omega, vol. 10, no. 50, pp. 61736-61750, 2025.
Discuss characterization results, photocatalysis data, adsorption studies, or manuscript support for your research project.