低温沉积高导电性本征a-SiGe薄膜

C. Ascencio-Hurtado, A. Torres, M. Moreno, R. Ambrosio
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引用次数: 6

摘要

采用低频等离子体增强化学气相沉积(LF PECVD)技术,在200°C下制备了a-SiGe:H薄膜,其电导率有所提高。经过500℃的热处理,这些薄膜的a-SiGe导电性优于PECVD沉积薄膜。薄膜所经受的退火过程计划在避免结晶的同时增强其输运性能。利用红外光谱和拉曼光谱技术对薄膜进行表征后,薄膜的固相在退火后仍为非晶态。室温电导率从2.27E-02提高到2.47 S/cm,提高了约3个数量级。由于所获得的a-SiGe材料的电学和结构性能,它是迄今为止报道的本构a-SiGe材料中电导率最高的材料之一。它的高导电性使其适合在新兴和环境友好型技术,如柔性电子,可穿戴电子和能量收集的潜在应用。
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High conductivity intrinsic a-SiGe films deposited at low-temperature
Thin films of a-SiGe:H deposited by low-frequency plasma-enhanced chemical vapor deposition (LF PECVD) at 200 °C with improved conductivity are demonstrated. After thermal annealing at 500 °C, these films showed a-SiGe even better electrical conductivity than the obtained as PECVD deposited films. The annealing process to which the films were subjected was planned to enhance their transport properties while avoiding crystallization. After characterization by means of FTIR and Raman techniques, the solid phase of the thin film remained amorphous after annealing. The room-temperature electrical conductivity increased about three orders of magnitude from 2.27E-02 up to 2.47 S/cm for the non annealed to the annealed films. Because of the electrical and structural properties measured on the a-SiGe material here obtained, it is one of the best conductivity reached for intrinsic a-SiGe reported up to now. Its high electrical conductivity makes it suitable for its potential application in emerging and environment-friendly technologies such as flexible electronics, wearable electronics, and energy harvesting.
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