Chen Yinhui
Chongqing University
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Publication
Featured researches published by Chen Yinhui.
Chinese Physics Letters | 2015
Hu Shengdong; Jin Jingjing; Chen Yinhui; Jiang Yu-Yu; Cheng Kun; Zhou Jian-Lin; Liu Jiang-Tao; Huang Rui; Yao Sheng-Jie
A novel silicon-on-insulator (SOI) power metal-oxide-semiconductor field effect transistor with an interface-gate (IG SOI) structure is proposed, in which the trench polysilicon gate extends into the buried oxide layer (BOX) at the source side and an IG is formed. Firstly, the IG offers an extra accumulation channel for the carriers. Secondly, the subsidiary depletion effect of the IG results in a higher impurity doping for the drift region. A low specific on-resistance is therefore obtained under the condition of a slightly enhanced breakdown voltage for the IG SOI. The influences of structure parameters on the device performances are investigated. Compared with the conventional trench gate SOI and lateral planar gate SOI, the specific on-resistances of the IG SOI are reduced by 36.66% and 25.32% with the breakdown voltages enhanced by 2.28% and 10.83% at the same SOI layer of 3 μm, BOX of 1 μm, and half-cell pitch of 5.5 μm, respectively.
Chinese Physics B | 2014
Hu Shengdong; Wu Xinghe; Zhu Zhi; Jin Jingjing; Chen Yinhui
A novel partial silicon-on-insulator laterally double-diffused metal—oxide—semiconductor transistor (PSOI LDMOS) with a thin buried oxide layer is proposed in this paper. The key structure feature of the device is an n+-layer, which is partially buried on the bottom interface of the top silicon layer (PBNL PSOI LDMOS). The undepleted interface n+-layer leads to plenty of positive charges accumulated on the interface, which will modulate the distributions of the lateral and vertical electric fields for the device, resulting in a high breakdown voltage (BV). With the same thickness values of the top silicon layer (10 μm) and buried oxide layer (0.375 μm), the BV of the PBNL PSOI LDMOS increases to 432 V from 285 V of the conventional PSOI LDMOS, which is improved by 51.6%.
Archive | 2017
Tang Fang; Ye Kai; Shu Zhou; Zhou Xichuan; Hu Shengdong; Gan Ping; Li Shiping; Yin Peng; Chen Zhuo; Chen Yinhui; Tan Yue; Wang Zhongjie; Huang Shalin; Li Mingdong; Xia Yingjun
Archive | 2017
Tang Fang; Xia Yingjun; Tan Yue; Li Shiping; Yin Peng; Chen Zhuo; Chen Yinhui; Wang Zhongjie; Huang Shalin; Li Mingdong; Shu Zhou; Ye Kai; Zhou Xichuan; Hu Shengdong; Gan Ping
Archive | 2016
Tang Fang; Zeng Guangwang; Shu Zhou; Ye Kai; Zhou Xichuan; Hu Shengdong; Gan Ping; Li Shiping; Yin Peng; Chen Zhuo; Chen Yinhui; Tan Yue; Wang Zhongjie; Huang Shalin; Li Mingdong
Archive | 2016
Tang Fang; Yin Peng; Chen Zhuo; Zhou Xichuan; Hu Shengdong; Gan Ping; Li Shiping; Ye Kai; Shu Zhou; Chen Yinhui; Tan Yue; Wang Zhongjie; Huang Shalin; Li Mingdong
Archive | 2016
Tang Fang; Shu Zhou; Ye Kai; Zhou Xichuan; Hu Shengdong; Gan Ping; Li Shiping; Yin Peng; Chen Zhuo; Chen Yinhui; Tan Yue; Wang Zhongjie; Huang Shalin; Li Mingdong
Archive | 2016
Tang Fang; Li Shiping; Zhou Xichuan; Hu Shengdong; Gan Ping; Ye Kai; Shu Zhou; Chen Zhuo; Yin Peng; Chen Yinhui; Tan Yue; Wang Zhongjie; Huang Shalin; Li Mingdong
Archive | 2015
Hu Shengdong; Chen Yinhui; Jin Jingjing; Zhou Feng; Chen Zongze; Huang Ye
Archive | 2014
Hu Shengdong; Jin Jingjing; Chen Yinhui; Zhu Zhi; Wu Xinghe