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Department of Chemical and Environmental Engineering, University of California, Riverside, USA
E-mail: myung@engr.ucr.edu
; Fax: +1 951 827 7710
; Tel: +1 951 827 7710
Analyst, 2012,137, 2549-2552
DOI:
10.1039/C2AN35168D
Received
06 Feb 2012,
Accepted
21 Mar 2012
First published online
23 Mar 2012
We demonstrate a hybrid ZnO nanoparticle decorated SWNT network device that can conductometrically differentiate between xylene isomers at room temperature with minimal interference from background VOCs. Field effect transistor measurements are conducted to identify the sensing mechanism which is attributed to enhanced SWNT transduction of chemical interaction with ZnO surfaces.
We demonstrate a hybrid ZnO nanoparticle decorated SWNT network device that can conductometrically differentiate between xylene isomers at room temperature with minimal interference from background VOCs. Field effect transistor measurements are conducted to identify the sensing mechanism which is attributed to enhanced SWNT transduction of chemical interaction with ZnO surfaces.
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