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Chlorophyll(<i>a</i>)/Carbon Quantum Dot Bio-Nanocomposite Activated Nano-Structured Silicon as an Efficient Photocathode for Photoelectrochemical Water Splitting

Krishnendu Roy, Dibyendu Ghosh, K Sarkar, Pooja Devi, Praveen Kumar

2020ACS Applied Materials & Interfaces50 citationsDOI

Abstract

) compared to pristine SiNW PC at 1.07 V vs reversible hydrogen electrode (RHE). The efficiency reaches ∼7.86%, which is comparably the highest reported for hybrid Si-based photocathodes. Hydrogen evaluation rate was measured to be ∼113 μmol/h at 0.8 V vs RHE under 1 sun illumination. With Si-process line compatibility, this new finding opens a new direction toward the development of Si-based efficient and stable PCs at a large scale for commercial applications.

Topics & Concepts

Materials sciencePhotocathodePhotocurrentNanocompositeWater splittingQuantum dotQuantum efficiencyHydrogen productionHeterojunctionOptoelectronicsSiliconNanotechnologyEnergy conversion efficiencyHydrogenChemical engineeringPhotocatalysisChemistryElectronQuantum mechanicsBiochemistryOrganic chemistryEngineeringPhysicsCatalysisAdvanced Photocatalysis TechniquesQuantum Dots Synthesis And PropertiesCarbon and Quantum Dots Applications
Chlorophyll(<i>a</i>)/Carbon Quantum Dot Bio-Nanocomposite Activated Nano-Structured Silicon as an Efficient Photocathode for Photoelectrochemical Water Splitting | Litcius