Engineering a light-active CoO/D-CN catalyst for dual-functional enhanced BPA degradation and hydrogen evolution

Sudhansu Sekhar Behera; Alaka Samal; Arundhati Barik; Nigamananda Das

doi:10.1039/d5ra05595d

January 1, 2025RSC AdvancesOpen Access

Engineering a light-active CoO/D-CN catalyst for dual-functional enhanced BPA degradation and hydrogen evolution

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Key Points

BPA degradation and hydrogen evolution are enhanced with a light-active catalyst, indicating significant potential for environmental applications.
The catalyst shows superior performance under visible light illumination, suggesting effective energy use.
Analysis demonstrates robust charge separation and active sites at the heterojunction interface, promoting efficiency.
Such advancements may enable sustainable waste management and energy solutions through photocatalysis.

Implication

This catalyst improves hydrogen evolution in BPA degradation, suggesting a novel approach to waste treatment with light activation.

Abstract

The CoO/D-CN Z-scheme heterojunction exhibits superior photocatalytic performance for H 2 evolution and BPA degradation under visible light illumination, attributed to enhanced charge separation and active heterojunction interface sites.

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Cite This Study

Behera et al. (2025) studied this question.

synapsesocial.com/papers/692b9d831d383f2b2a37978c https://doi.org/10.1039/d5ra05595d

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Engineering a light-active CoO/D-CN catalyst for dual-functional enhanced BPA degradation and hydrogen evolution

Key Points

Implication

Abstract

Discussion

Cite This Study

Engineering a light-active CoO/D-CN catalyst for dual-functional enhanced BPA degradation and hydrogen evolution

Key Points

Implication

Abstract

Discussion

Cite This Study

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