Nano Research & Applications
ISSN 2471-9838
Advanced Nano 2017
Notes:
Page 44
September 11-12, 2017 Amsterdam, Netherlands
20
th
International Conference on
Advanced Nanotechnology
Electrical properties of single core-shell
metal oxide nanowires
Florica C, Costas A, Kuncser A, Boni A G, Preda N
and
Enculescu I
National Institute of Materials Physics, Romania
M
etal oxide materials are the focus of many researchers
being often used due to their abundance in nature
and low environmental impact. Topics have been going
recently towards the nanoscale because of the diverse,
yet unique characteristics given by the low dimensions
together with reducing the amount of employed
material. The particular properties of nanowires make
them suitable for applications such as high sensitivity
sensors, catalysis, power generators, etc. ZnO nanowires
have a high surface to volume ratio and exhibit special
electrical properties with applications in field effect
transistors, diodes. However, they are interacting with the
surroundings, even dissolving in the presence of more
acidic environment and in order to affect this occurrence
a shell material is proposed. The ZnO nanowires are
prepared by thermal oxidation in air at 500°C on zinc
foils and on top of it a thin layer of CuO is deposited by
magnetron sputtering. The structural, morphological,
optical and electrical properties of the prepared nanowires
are investigated before and after the shell deposition.
Moreover, the nanowires were transferred in alcohol and
single nanowires were contacted using photolithography
and e-beam lithography and their electrical response was
measured at various temperatures. Differences between
the bare ZnO nanowires and their core-shell counterparts
are evidenced.
Biography
Florica C has completed her PhD at University of Bucharest, Romania. She is a
young researcher with over 25 publications that have been cited over 75 times,
and her publication H-index is 5. She is currently leading a national research
project on the topic of core-shell nanowires.
camelia.florica@infim.roFlorica C et al., Nano Res Appl 2017, 3:3
DOI: 10.21767/2471-9838-C1-002