Issue 31, 2014

Controllable Cu2O–Cu nanoparticle electrodeposition onto carbon paper and its superior photoelectrochemical performance

Abstract

Cu2O–Cu was successfully electrodeposited onto a carbon paper substrate through a potentiostatic procedure with a three-electrode configuration. The results demonstrate that the Cu2O–Cu, electrodeposited at a potential of −0.4 V, evenly and uniformly grows on the carbon paper and displays octahedron shaped nanoparticles with an average edge length of 100 nm. Moreover, the photocurrent density of Cu2O–Cu electrodeposited at a potential of −0.4 V can reach up to 1.2 mA cm−2. In this Cu2O–Cu, the interface between the Cu2O and Cu is suggested as the location of photoinduced electron–hole pair separation, and thus it hinders the rapid surface and bulk recombination of the photoinduced electron–hole pairs. Consequently, the photogenerated electrons can be easily transferred through the Cu metal .

Graphical abstract: Controllable Cu2O–Cu nanoparticle electrodeposition onto carbon paper and its superior photoelectrochemical performance

Article information

Article type
Communication
Submitted
21 Jan 2014
Accepted
17 Feb 2014
First published
18 Feb 2014

RSC Adv., 2014,4, 16380-16384

Controllable Cu2O–Cu nanoparticle electrodeposition onto carbon paper and its superior photoelectrochemical performance

J. Tu, Y. Yuan, H. Jiao and S. Jiao, RSC Adv., 2014, 4, 16380 DOI: 10.1039/C4RA00592A

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