新一代700 V BCD技术,集成了具有最佳特定导通电阻的四层复路LDMOS

M. Qiao, Dican Hou, Yue Gao, Dingxiang Ma, Jiawei Wang, Bo Zhang
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引用次数: 0

摘要

本文报道了新一代700 V双极cmos - dmos (BCD)技术,该技术集成了具有同类最佳特定导通电阻($R_{\text{on},\text{sp}}$)的四极cmos - dmos。通过在漂移区引入PNPN层,局部增加深n型井(DNW)的掺杂浓度,并提供更低导通电阻的导通路径,具有PNPN层的四层重熔LDMOS (PNPN LDMOS)可以实现62.5 m的低$R_{\text{on},\text{sp}}$ Ω。击穿电压(BV)高达739 V,其$R_{\text{on},\text{sp}}$比量产的三路复极LDMOS低40.8%。相应的PNPN LDMOS分析硅极限为$R_{\text{on},\text{sp}}= 5.93\乘以10^{-6}\乘以153\乘以BV^{1。在500 ~ 700 V击穿水平下的模拟和实测结果很好地验证了这一结论。此外,还采用BCD技术制备了具有竞争饱和漏极电流($I_{\text{Dsat}}$)的寄生或独立JFET。测量结果表明,所制备的JFET可以达到具有竞争力的66.5µA/µm。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A New Generation 700 V BCD Technology that Integrates Quadruple-RESURF LDMOS with Best-in-Class Specific On-Resistance
A new generation 700 V Bipolar-CMOS-DMOS (BCD) technology is reported in this work, which integrates quadruple-RESURF LDMOS with best-in-class specific on-resistance ($R_{\text{on},\text{sp}}$). By introducing PNPN layer in the drift region to locally increase the doping concentration of deep N-type well (DNW) and provide lower on-resistance conduction paths, the quadruple-RESURF LDMOS with PNPN layer (PNPN LDMOS) can achieve low $R_{\text{on},\text{sp}}$ of 62.5 m Ω.cm2 and high breakdown voltage (BV) of 739 V, whose $R_{\text{on},\text{sp}}$ is 40.8% lower than that of the mass-produced triple-RESURF LDMOS. The corresponding analytical silicon limit of PNPN LDMOS is derived as $R_{\text{on},\text{sp}}= 5.93\times 10^{-6}\times 153\times BV^{l.67}$, which is well verified by simulated and measured results at 500 to 700 V breakdown level. Besides, parasitic or independent JFET with competitive saturation drain current ($I_{\text{Dsat}}$) is also fabricated in the BCD technology. The measured results indicate that the fabricated JFET can achieve competitive $I_{\text{Dsat}}$ of 66.5 µA/µm.
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