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Synthesis, Structural Characterization, and Electronic Structure of Single-Crystalline CuxV2O5 Nanowires
Published
Author(s)
Daniel A. Fischer, C Patridge, Cherno Jaye, H Zhang, Amy Marschilok, E Takeuchi, S Banerjee
Abstract
Single-crystalline copper vanadium oxide nanowires β'-CuxV2O5 (x ~ 0.60) have been synthesized by the hydrothermal reduction of bulk CuV2O6 using small-molecule aliphatic alcohols as reducing agents. The prepared copper vanadium bronze nanowires are metallic in nature and exhibit aspect ratios as high as 300. The recent discovery of superconductivity and charge disproportionation in bulk β'-CuxV2O5 has lead to renewed interest in these 1D metallic systems. Scaling these systems to nanoscale dimensions offers the potential for further tunability of electronic transport and Li-ion intercalation kinetics. A combination of spectroscopic and electrical measurement methods has been used to provide evidence for the metallic nature and the presence of room-temperature charge disproportionation in these nanowires.
Fischer, D.
, Patridge, C.
, Jaye, C.
, Zhang, H.
, Marschilok, A.
, Takeuchi, E.
and Banerjee, S.
(2009),
Synthesis, Structural Characterization, and Electronic Structure of Single-Crystalline CuxV2O5 Nanowires, Inorganic Chemistry, [online], https://tsapps.nist.gov/publication/get_pdf.cfm?pub_id=901684
(Accessed October 11, 2025)