Comparison of theoretical limits between superjunction and field plate structures

W. Saito
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引用次数: 32

Abstract

This paper reports that theoretical limits for the superjunction (SJ) and field plate (FP) structures and the optimum application voltage range is discussed with the previous experimental data. The specific on-resistance limit of the SJ structure is as same as that of the FP structure and inverse proportional to the cell aspect ratio γSJ and γFP (= drift thickness/lateral cell pitch). The cell aspect ratio can be easily increased with the breakdown voltage due to the drift thickness. On the other hand, at the low voltage device, the aspect ratio is determined by the lateral cell pitch due to the process technology. At the FP structure, the insulator thickness interferes to increase the aspect ratio. From the viewpoints of the aspect ratio limit and the output capacitance stored energy (Eoss), the SJ structure is effective for high voltage MOSFETs and the FP structure is effective for low voltage ones. The border of the optimum application voltage is 100-200 V.
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超结结构与场极板结构的理论极限比较
本文结合以往的实验数据,讨论了超结(SJ)和场极板(FP)结构的理论极限和最佳应用电压范围。SJ结构的通阻极限与FP结构相同,且与胞长比γSJ和γFP(=漂移厚度/胞侧间距)成反比。由于漂移厚度的影响,电池宽高比可以随击穿电压的增加而增加。另一方面,在低压器件中,由于工艺技术的原因,纵横比由侧电池间距决定。在FP结构中,绝缘子厚度的干扰增加了长径比。从宽高比限制和输出电容储能(Eoss)的角度来看,SJ结构适用于高压mosfet, FP结构适用于低压mosfet。最佳应用电压边界为100- 200v。
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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