Simulation of deep level transient spectroscopy using circuit simulator with deep level trap model implemented by Verilog-A language

K. Fukuda, J. Hattori, H. Asai, M. Shimizu, T. Hashizume
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Abstract

A modeling method of deep level transient spectroscopy (DLTS) using circuit simulation with a MOS capacitor compact model which takes into account influences of deep level traps is proposed. In the proposed method, DLTS measurement procedures are described by transient analysis of circuit simulation. Stable numerical convergence is obtained even for the case in which carrier traps with wide range of time scales are included. Through case studies, it is proved that this method is a robust and versatile theoretical tool to predict DLTS signals, which helps to understand DLTS results and to optimize DLTS measurement conditions. Furthermore, the method is applied to several capacitance measurement methods discussed in literatures concerning GaN MIS capacitors, which ensures the practical ability of the proposed simulation approach.
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用电路模拟器模拟深能级瞬态光谱,用Verilog-A语言实现深能级阱模型
提出了一种考虑深能级陷阱影响的MOS电容紧凑模型的电路仿真深能级瞬态光谱建模方法。在该方法中,通过电路仿真的暂态分析来描述DLTS的测量过程。即使在包含大时间尺度载波陷阱的情况下,也能得到稳定的数值收敛性。通过实例研究证明,该方法是一种鲁棒且通用的DLTS信号预测理论工具,有助于理解DLTS结果并优化DLTS测量条件。此外,将该方法应用于文献中讨论的几种关于GaN MIS电容器的电容测量方法,保证了所提出的仿真方法的实用性。
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