Abstract

Physically-based models of hot-carrier stress and dielectric field-enhanced thermal damage have been incorporated in the framework of a TCAD tool with the aim of investigating the electrical stress degradation in integrated power devices over an extended range of stress biases and ambient temperatures. An analytical formulation of the distribution function accounting for the effects of the full band structure has been employed for the hot-carrier modeling. A quantitative understanding of the kinetics and local distribution of degradation are achieved, and the drift of the most relevant parameters is nicely predicted on an extended range of stress times and biases.

Keywords:
LDMOS Materials science Stress (linguistics) Degradation (telecommunications) Range (aeronautics) Electronic engineering Optoelectronics Transistor Dielectric strength Dielectric Electrical engineering Engineering Voltage Composite material

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Citation History

Topics

Semiconductor materials and devices
Physical Sciences →  Engineering →  Electrical and Electronic Engineering
Silicon Carbide Semiconductor Technologies
Physical Sciences →  Engineering →  Electrical and Electronic Engineering
Advancements in Semiconductor Devices and Circuit Design
Physical Sciences →  Engineering →  Electrical and Electronic Engineering
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