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dc.contributor.author Barati, Darband G. -
dc.contributor.author Lotfi, N. -
dc.contributor.author Aliabadi, A. -
dc.contributor.author Hyun, Suyeon -
dc.contributor.author Shanmugam, Sangaraju -
dc.date.accessioned 2021-10-07T02:30:04Z -
dc.date.available 2021-10-07T02:30:04Z -
dc.date.created 2021-04-26 -
dc.date.issued 2021-06 -
dc.identifier.issn 0013-4686 -
dc.identifier.uri http://hdl.handle.net/20.500.11750/15414 -
dc.description.abstract The emergence of high-performance noble metal-free electrodes in water splitting operations to produce hydrogen is of paramount importance to generate new energy in the future. The oxygen evolution reaction (OER) in water splitting is a slow reaction that consumes much energy to produce hydrogen, and generally, replacing an anodic reaction with less thermodynamic potential can significantly improve the efficiency of hydrogen production. The hydrazine oxidation reaction (HzOR) can be a great alternative to OER. We describe the fabrication of Ni-Cu-P@Ni-Cu nano-micro dendrite using a simple electrodeposition method. The developed Ni-Cu-P@Ni-Cu is used as a bifunctional electrode for hydrogen evolution reaction (HER) and HzOR. The high active electrochemical area, the porous structure and the penetration of electrolyte into the pores, the synergistic effect between Ni and Cu, and the rapid separation of the bubbles created from the surface led to the creation of an electrode with excellent electrocatalytic activity. The HER and HzOR processes required only -70 mV vs.RHE and 3.88 mV vs.RHE potentials in 1.0 M KOH and 1.0 M KOH + 0.5 M N2H4, respectively, to generate a current density of 10 mA.cm−2. Also, a very low potential of 125 mV was required in the hybrid overall water electrolysis system. This study presents a new, cost-effective, versatile, and industrial strategy to fabricate three-dimensional electrocatalysts. © 2021 Elsevier Ltd -
dc.language English -
dc.publisher Pergamon Press Ltd. -
dc.title Hydrazine-assisted electrochemical hydrogen production by efficient and self-supported electrodeposited Ni-Cu-P@Ni-Cu nano-micro dendrite catalyst -
dc.type Article -
dc.identifier.doi 10.1016/j.electacta.2021.138335 -
dc.identifier.wosid 000646253700009 -
dc.identifier.scopusid 2-s2.0-85104067871 -
dc.identifier.bibliographicCitation Electrochimica Acta, v.382, pp.138335 -
dc.description.isOpenAccess FALSE -
dc.subject.keywordAuthor Electrocatalytic activity -
dc.subject.keywordAuthor Electrocatalytic stability -
dc.subject.keywordAuthor Hydrazine oxidation reaction -
dc.subject.keywordAuthor Hydrogen evolution reaction -
dc.subject.keywordAuthor Ni-Cu-P -
dc.subject.keywordPlus Hydrazine oxidation -
dc.subject.keywordPlus Hydrazine oxidation reaction -
dc.subject.keywordPlus Hydrogen evolution reactions -
dc.subject.keywordPlus Ni-Cu-P -
dc.subject.keywordPlus Oxygen evolution -
dc.subject.keywordPlus Water splitting -
dc.subject.keywordPlus Hydrazine -
dc.subject.keywordPlus Anodic oxidation -
dc.subject.keywordPlus Copper compounds -
dc.subject.keywordPlus Cost effectiveness -
dc.subject.keywordPlus Electrocatalysts -
dc.subject.keywordPlus Electrochemical electrodes -
dc.subject.keywordPlus Electrodeposition -
dc.subject.keywordPlus Electrolytes -
dc.subject.keywordPlus Hydrogen evolution reaction -
dc.subject.keywordPlus Hydrogen production -
dc.subject.keywordPlus Nanocatalysts -
dc.subject.keywordPlus Nickel compounds -
dc.subject.keywordPlus Potassium hydroxide -
dc.subject.keywordPlus Precious metals -
dc.subject.keywordPlus Electrocatalytic activity -
dc.subject.keywordPlus Electrocatalytic stability -
dc.subject.keywordPlus Electrochemicals -
dc.citation.startPage 138335 -
dc.citation.title Electrochimica Acta -
dc.citation.volume 382 -
dc.description.journalRegisteredClass scie -
dc.description.journalRegisteredClass scopus -
dc.relation.journalResearchArea Electrochemistry -
dc.relation.journalWebOfScienceCategory Electrochemistry -
dc.type.docType Article -
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Department of Energy Science and Engineering Advanced Energy Materials Laboratory 1. Journal Articles

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