Thermoelectric power of ternary semiconductor Se10Sb10Te80 thin films
- 1 August 1995
- journal article
- conference paper
- Published by AIP Publishing in Journal of Applied Physics
- Vol. 78 (3) , 1751-1756
- https://doi.org/10.1063/1.360719
Abstract
Thin films of different thicknesses in the range 400–1600 Å have been vacuum deposited on clean glass substrates held at room temperature by very fast evaporation of the Se10Sb10Te80 bulk alloy. The thermoelectric power of these films has been measured as a function of temperature during heating and cooling cycles by the integral method. It is found that the thermoelectric power of these films is slightly different during the heating and the cooling cycles which is ascribed to slight reorientation of microcrystallites as also evidenced by x‐ray diffraction. It is further found that the thermoelectric power (at a constant temperature) is a function of film thickness; it varies nearly linearly with reciprocal thickness. From these data, the nature of carrier scattering in the films has been ascertained. From the energy‐dispersive x‐ray analysis patterns of the films the semiquantitative content of the constituent elements Sb, Se, and Te has been determined.This publication has 8 references indexed in Scilit:
- In situ electrical conductivity and amorphous-crystalline transition in vacuum-deposited thin films of Se20Te80 alloyJournal of Materials Science, 1988
- Size and temperature effects on thermoelectric power of β-tin thin filmsJournal of Applied Physics, 1983
- The thermoelectric power and the temperature coefficient of resistivity of thin metal filmsThin Solid Films, 1978
- A theoretical description of grain boundary electron scattering by an effective mean free pathThin Solid Films, 1978
- The Mayadas-Shatzkes conduction model treated as a Fuchs-Sondheimer modelThin Solid Films, 1977
- Thermoelectric power and temperature coefficient of resistivity of thin metal filmsThin Solid Films, 1977
- Thermoelectric power of metallic films in the Mayadas-Shatzkes modelThin Solid Films, 1977
- Orientation Determination and Location of Dislocation Sites in Bismuth by Etch PitsJournal of Applied Physics, 1970