A High-Performance and Low HCI Degradation LDMOS Device With a Hybrid Field Plate

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS ACS Applied Bio Materials Pub Date : 2024-07-25 DOI:10.1109/JEDS.2024.3433442
Shaoxin Yu;Rongsheng Chen;Weiheng Shao;Weiming Yu;Xiaoyan Zhao;Zheng Chen;Weizhong Shan;Jenhao Cheng
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Abstract

In this paper, a high-performance and low-HCI (Hot carrier injection) degradation LDMOS (Lateral double diffused metal oxide semiconductor) device is introduced. It consists of an additional mini LOCOS (Local oxidation of silicon) field plate combined with a mini STI (Shallow trench isolation) field plate without an additional complex fabrication process. A series of devices have been fabricated, and the field plate corner profile is optimized. The proposed hybrid FP(Field plate) can effectively reduce the electric field peak, and the BV (Breakdown voltage) achieves as high as 78.9V while the ${R}_{{on}{,}{sp}}$ (Specific on-resistance) is as low as $69.1~{{\mathrm { m}}\Omega \cdot }{mm}^{2}$ , which is 65.8% improved compared with conventional transistors. Meanwhile, the hybrid FP device owns much better HCI (Hot carrier injection) degradation performance on ${R}_{on,sp}$ , threshold voltage ${V}_{T}$ , and gate-drain capacitance ${C}_{GD}$ . The degradation of ${R}_{{on}{,}{sp}}$ is only 8.6% under ${I}_{d}$ mode stress while it is as high as 15.8% for the conventional devices. At on-state, ${C}_{GD}$ degradation is only 9.1% while it is nearly 59.9% in the traditional device. At high voltage application regions, the device exhibits nearly 0% ${C}_{GD}$ degradation while it is as high as 43.8% in the traditional device. The results indicate the device’s robustness in both DC (Direct current) applications and RF (Radio frequency) applications.
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采用混合场板的高性能、低 HCI 劣化 LDMOS 器件
本文介绍了一种高性能、低HCI(热载流子注入)降解 LDMOS(侧向双扩散金属氧化物半导体)器件。它由一个额外的微型 LOCOS(硅局部氧化)场板和一个微型 STI(浅沟道隔离)场板组成,无需额外的复杂制造工艺。我们制作了一系列器件,并优化了场板角轮廓。所提出的混合 FP(场板)能有效降低电场峰值,BV(击穿电压)高达 78.9V,而 ${R}_{on}{,}{sp}}$(特定导通电阻)低至 69.1~{{mathrm { m}}\Omega \cdot }{mm}^{2}$ ,与传统晶体管相比提高了 65.8%。同时,混合 FP 器件对 ${R}_{on,sp}$ 、阈值电压 ${V}_{T}$ 和栅-漏电容 ${C}_{GD}$ 的 HCI(热载流子注入)衰减性能更佳。在 ${I}_{d}$ 模式应力下,${R}_{on}{,}{sp}}$ 的劣化率仅为 8.6%,而传统器件的劣化率高达 15.8%。在导通状态下,${C}_{GD}$ 的劣化率仅为 9.1%,而传统器件的劣化率接近 59.9%。在高压应用区域,该器件的{C}_{GD}$劣化率几乎为 0%,而传统器件的劣化率高达 43.8%。这些结果表明,该器件在直流(DC)应用和射频(RF)应用中都具有很强的稳定性。
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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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