A dual S-scheme TiO₂@In₂Se₃@Ag₃PO₄ heterojunction for efficient photocatalytic CO₂ reduction

Research output: Journal Publications and Reviews › RGC 21 - Publication in refereed journal › peer-review

Overview

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Material Science

Heterojunction Material Science

Carbon Dioxide Material Science

Titanium Dioxide Material Science

Photocatalysts Material Science

Nanosphere Material Science

Indium Material Science

S-Scheme Heterojunc... Material Science

Chemistry

Titanium Dioxide Chemistry

Photocatalytic CO2 ... Chemistry

Photocatalyst Chemistry

specific surface ar... Chemistry

Carbon Dioxide Redu... Chemistry

Photocatalytic Acti... Chemistry

Electric Field Chemistry

Methane Chemistry

Methanol Chemistry

Indium Chemistry

Photocatalytic Chemistry

Meso Porosity Chemistry

Nanosphere Chemistry

Selenide Chemistry

Carbon Dioxide Chemistry

stability Chemistry

S-Scheme Heterojunc... Chemistry

Chemical Engineering

Titanium Dioxide Chemical Engineering

Photocatalytic CO2 ... Chemical Engineering

Carbon Dioxide Redu... Chemical Engineering

Indium Chemical Engineering

Nanosphere Chemical Engineering

Methanol Chemical Engineering

S-Scheme Heterojunc... Chemical Engineering

Heterojunction Phot... Chemical Engineering

Photogenerated Hole... Chemical Engineering

CO2 Capture Capacit... Chemical Engineering

Research OutputsResearch Output authored by A dual S-scheme TiO2@In2Se3@Ag3PO4 heterojunction for efficient photocatalytic CO2 reduction is tagged with the concept

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