Organic molecule-functionalized Zn sub(3)P sub(2) nanowires for photochemical H sub(2) production: DFT and experimental analyses

Hydrogen production via photochemical reactions in water/methanol solutions containing Zn sub(3)P sub(2) nanowires functionalized with an organic molecular layer is shown to be between 217 and 405 times higher than that obtained in absence of the molecular layer. Combined surface characterization an...

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Veröffentlicht in:International journal of hydrogen energy 2014-12, Vol.39 (35), p.19887-19898
Hauptverfasser: Ramos-Sanchez, G, Albornoz, M, Yu, Y-H, Cheng, Z, Vasiraju, V, Vaddiraju, S, Mellouhi, FEl, Balbuena, P B
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container_end_page 19898
container_issue 35
container_start_page 19887
container_title International journal of hydrogen energy
container_volume 39
creator Ramos-Sanchez, G
Albornoz, M
Yu, Y-H
Cheng, Z
Vasiraju, V
Vaddiraju, S
Mellouhi, FEl
Balbuena, P B
description Hydrogen production via photochemical reactions in water/methanol solutions containing Zn sub(3)P sub(2) nanowires functionalized with an organic molecular layer is shown to be between 217 and 405 times higher than that obtained in absence of the molecular layer. Combined surface characterization and theoretical analyses are used to elucidate aspects of the photochemical reaction process. It is found that the protective layer exerts a passivation role decreasing the rate of nanowire degradation, while facilitating electron transfer for the hydrogen evolution reaction.
doi_str_mv 10.1016/j.ijhydene.2014.10.028
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source Elsevier ScienceDirect Journals Complete
subjects Hydrogen evolution
Hydrogen production
Hydrogen-based energy
Methyl alcohol
Nanowires
Photochemical
Photochemical reactions
Surface properties
title Organic molecule-functionalized Zn sub(3)P sub(2) nanowires for photochemical H sub(2) production: DFT and experimental analyses
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