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Drift Region Effects of Power MOSFETs

机译:功率MOSFET的漂移区效应

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Improvement in process technology helps choose different materials in addition to shrinking devices. The power MOS device and laterally diffused metal oxide semiconductor device (LDMOS) designed in this paper was simulated by semiconductor process simulation software, and manufactured by using process machine parameters of National Nano Device Laboratories (NDL). In the paper, it also explores that the device drift region length variation affected on breakdown voltage of the device. In device design, the 3:4 aspect ratio shallow trench isolation device architecture was used for simulation to achieve a device with 10.4V (BV) breakdown voltage. Based on these parameter obtained, the power MOS device made can actually withstand high voltage with measured breakdown voltage at 8.5V. However, regard to laterally diffuse metal oxide semiconductor device, we will explore the epitaxial layer thickness effect on the device''s ability to withstand voltage. When epitaxial layer thickness is increased, the ability to withstand voltage been enhanced up to 50%. By contrast, the ability to withstand voltage been reduced up to 44% when epitaxial layer thickness is decreased.
机译:加工技术的进步,除收缩设备外,还有助于选择其他材料。本文设计的功率MOS器件和横向扩散金属氧化物半导体器件(LDMOS)通过半导体工艺仿真软件进行仿真,并使用美国国家纳米器件实验室(NDL)的工艺机器参数进行制造。本文还探讨了器件漂移区长度的变化会影响器件的击穿电压。在器件设计中,采用3:4长宽比浅沟槽隔离器件架构进行仿真,以实现击穿电压为10.4V(BV)的器件。基于获得的这些参数,制成的功率MOS器件实际上可以承受8.5V的击穿电压而承受的高压。但是,对于横向扩散的金属氧化物半导体器件,我们将探讨外延层厚度对器件耐电压能力的影响。当增加外延层的厚度时,耐电压能力提高到50%。相反,当减小外延层厚度时,耐电压能力降低至44%。

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