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  5. Thermal and electrical characterization of zn-cu ferrites thin films
 
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Thermal and electrical characterization of zn-cu ferrites thin films

Journal
Solid State Phenomena
ISSN
10120394
Date Issued
2018-01-01
Author(s)
Hoong L.J.
Keat Y.C.
Chik A.
Leng T.P.
DOI
10.4028/www.scientific.net/SSP.280.90
Handle (URI)
https://hdl.handle.net/20.500.14170/12096
Abstract
The effects of Zn and Cu on the thermoelectric properties of ferrite thin films were studied in this paper. The Zn-Cu ferritethin film was fabricated using ink-jet printing method. A minimum of 50 print cycles was required to obtain continuous film with approximately 9 μm thick thin films. The thickness of Zn-Cu ferrite thin films was decreased with increasing sintering temperature from 200 ºC (9.21 µm) to 400 ºC (5.48 µm). The XRD traces of Znx Cu1-x Fe2 O4 exhibit as plane reflection for cubic spinel phase of Znx Cu1-x Fe2 O4 and there were no impurity peaks detected with increasing Zn content and sintering temperature. The electrical conductivity of Znx Cu1-x Fe2 O4 thin film decreased from 1.18x10-3 S/cm (x=0.0) to 0.48x10-3 S/cm (x=1.0) with increasing Zn content. Positive Seebeck values were observed for all the samples, which indicated the samples were p-type. The Seebeck coefficient of Znx Cu1-x Fe2 O4 thin film increased from 6.36 µV/K (x=0.0) to 17.46 µV/K (x=1.0) with increasing Zn content.
Subjects
  • Ink-jet printing | Th...

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