半导体势垒结构电容瞬态信号的迭代自适应数字处理

V. Krylov, K. Tatmyshevskiy, A. Bogachev, Maksim Yudin
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引用次数: 0

摘要

解决深能级瞬态光谱的应用问题,需要提高测量精度。在使用频率-温度扫描方法和对相对于噪声较弱的电容瞬态信号进行数字处理时,这对样品温度保持的准确性提出了更高的要求。本文提出了一种基于深能级填充脉冲重复率函数的电容暂态信号数字处理迭代自适应算法。该算法对测量的样品温度行为使用分段连续逼近,然后在迭代期间对频率扫描进行数字校正。因此,有可能将深层活化能和指数前因子测量的精度提高约两倍。
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Iterative Adaptive Digital Processing of Semiconductor Barrier Structures Capacitance Transient Signals
Solving the problems of applied deep-level transient spectroscopy is associated with the need to improve the measurement accuracy. This imposes increased requirements on the accuracy of sample temperature maintaining while using the frequency-temperature scanning method and digital processing of capacitance transient signals that are weak with respect to noise. This report proposes an iterative adaptive algorithm for digital processing of the converted capacitance transient signal as a function of the repetition rate of deep-level filling pulses. The algorithm uses a piecewise continuous approximation for the measured sample temperature behavior, followed by a digital correction of the frequency scan during the iteration. As a result, it is possible to increase the accuracy of the deep-level activation energy and the pre-exponential factor measurements approximately twofold.
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