The Study of the Electrothermal Property of High-Voltage Drain-Extended MOSFETs

In this paper, the relation between the surface electric field and the temperature distribution dependence on the drift-region doping concentration in a 30-V asymmetric drain-extended MOSFET is studied. For the case of high drift-region concentration, the drain resistance is low, and the current den...

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Veröffentlicht in:IEEE transactions on electron devices 2012-04, Vol.59 (4), p.1149-1154
Hauptverfasser: Chu, Chen-Liang, Hu, Chih-Min, Hung, Chung-Yu, Gong, Jeng, Huang, Chih-Fang, Chen, Fei-Yun, Liou, Ruey-Hsin, Tuan, Hsiao-Chin
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container_issue 4
container_start_page 1149
container_title IEEE transactions on electron devices
container_volume 59
creator Chu, Chen-Liang
Hu, Chih-Min
Hung, Chung-Yu
Gong, Jeng
Huang, Chih-Fang
Chen, Fei-Yun
Liou, Ruey-Hsin
Tuan, Hsiao-Chin
description In this paper, the relation between the surface electric field and the temperature distribution dependence on the drift-region doping concentration in a 30-V asymmetric drain-extended MOSFET is studied. For the case of high drift-region concentration, the drain resistance is low, and the current density is high, which induces a high nonuniform temperature distribution in the transistor, which in turn reduces the carrier mobility and causes a negative drain resistance. For the case of low drift-region concentration, a uniform temperature distribution is obtained. However, the different drift-region concentration changes the location of the maximum temperature from the gate-overlapped drift region for the high concentration case to the drain-side contact region for the low concentration case under the high V GS and V DS conditions. Therefore, the self-heating effect is also changed by the redistribution of the electric field in the drift region.
doi_str_mv 10.1109/TED.2012.2183373
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For the case of high drift-region concentration, the drain resistance is low, and the current density is high, which induces a high nonuniform temperature distribution in the transistor, which in turn reduces the carrier mobility and causes a negative drain resistance. For the case of low drift-region concentration, a uniform temperature distribution is obtained. However, the different drift-region concentration changes the location of the maximum temperature from the gate-overlapped drift region for the high concentration case to the drain-side contact region for the low concentration case under the high V GS and V DS conditions. 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For the case of high drift-region concentration, the drain resistance is low, and the current density is high, which induces a high nonuniform temperature distribution in the transistor, which in turn reduces the carrier mobility and causes a negative drain resistance. For the case of low drift-region concentration, a uniform temperature distribution is obtained. However, the different drift-region concentration changes the location of the maximum temperature from the gate-overlapped drift region for the high concentration case to the drain-side contact region for the low concentration case under the high V GS and V DS conditions. Therefore, the self-heating effect is also changed by the redistribution of the electric field in the drift region.</abstract><cop>New York, NY</cop><pub>IEEE</pub><doi>10.1109/TED.2012.2183373</doi><tpages>6</tpages></addata></record>
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subjects Applied sciences
Contact
Drain-extended metal-oxide-semiconductor field-effect transistors (DEMOSFETs)
Drains
Drift
Educational institutions
Electric contacts
Electric fields
Electronics
Exact sciences and technology
Logic gates
MOSFETs
Resistance
self-heating effect
Semiconductor electronics. Microelectronics. Optoelectronics. Solid state devices
Skewed distributions
Substrates
surface electric field
Temperature distribution
Transistors
title The Study of the Electrothermal Property of High-Voltage Drain-Extended MOSFETs
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