Intrinsic Carrier Parameters and Optical Carrier Injection Method in High-Purity Diamonds

I. Akimoto, N. Naka
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Abstract

Diamond attracts increasing attentions as a semiconductor, since high-purity synthesized diamonds have become commercially available in these decades. For appropriate design of any devices, the basic carrier transport parameters should be known. However, it has been difficult to determine carrier parameters in diamond, because the controlled doping and Ohmic contact formation have been hard to achieve. In this chapter, a modern experimental method to measure basic carrier parameters, such as the effective mass, scattering times, and mobility of intrinsic diamonds, is introduced. The method, i.e., nanosecond time-resolved cyclotron resonance (TRCR), is applicable to optically injected carriers in intrinsic diamonds without wire connection. Following the key technique of optical carrier injection, detailed analysis methods for the cyclotron resonance spectra are introduced. The extracted basic parameters of diamond are summarized in comparison to those of silicon and germanium in the same group-IV semiconductor family. This is worthy for triggering further ideas in application-oriented researches using widespread materials.
高纯金刚石的本征载流子参数及光学载流子注入方法
近几十年来,由于高纯度合成金刚石已经商品化,金刚石作为一种半导体越来越受到人们的关注。为了适当地设计任何装置,都应该知道基本的载流子传输参数。然而,由于难以实现可控掺杂和形成欧姆接触,金刚石中载流子参数的确定一直是困难的。在本章中,介绍了一种现代实验方法来测量载流子的基本参数,如有效质量、散射次数和本征金刚石的迁移率。该方法,即纳秒时间分辨回旋共振(TRCR),适用于无线连接的内在金刚石中的光注入载流子。根据光学载流子注入的关键技术,详细介绍了回旋共振谱的分析方法。总结了金刚石的提取基本参数,并与同族半导体中的硅和锗进行了比较。这对于广泛应用材料的应用研究具有启发意义。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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