一种具有超低能耗和超强鲁棒性的新型横向功率MOSFET

Junji Cheng, Tao Zhong, B. Yi, Haimeng Huang, Keqiang Ma, Xinkai Guo, Hongqiang Yang, Zhiming Wang, Guoyi Zhang
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引用次数: 0

摘要

提出了一种具有四倍电荷补偿的横向双扩散金属氧化物半导体场效应晶体管(LDMOS)。该器件的第一个特点是p埋层和表面高k (HK)膜共同对漂移区进行全方位补偿。第二个特点是,HK薄膜还有助于抵抗电荷偏差带来的不利影响。因此,由于上述两个特征,所提出的器件不仅能够获得优异的性能,而且具有良好的鲁棒性。仿真结果表明,与传统的单电荷补偿、双电荷补偿和三电荷补偿的LDMOS相比,所提方案的导通电阻分别降低了48%、37%和17%。其优点系数达到15.7 MW/cm2,优于现有技术。此外,该器件对电荷偏差和接口电荷具有较好的抗扰性。
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A Novel Lateral Power MOSFET with Ultra-low Energy Consumption and Extraordinary Robustness
A novel lateral double-diffused metal-oxide-semiconductor field-effect transistor (LDMOS) with fourfold charge-compensation is proposed. The first feature of the proposed device is that a P-bury layer and a surface high-$k$ (HK) film jointly compensate the drift region in an all-round way. The second feature is that the HK film is also contributed to resisting the adverse effects caused by charge deviations. Hence, due to the above two features, the proposed device is able to obtain not only excellent performance but also good robustness. According to the simulation results, in comparison with the conventional LDMOS with single, double and triple charge-compensation, the proposed one gets a specific on-resistance reduced by 48%, 37% and 17%, respectively. Its figure of merit reaches 15.7 MW/cm2, which is superior to the prior art. Moreover, the proposed device presents much better immunity to the charge deviations and the interface charges.
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