瞬态双界面法中NMOS半导体封装结构、芯片面积与热阻的关系

Fan Chen, Dapeng Liu, Long Chen, Shuai Tao, Jun You, Zebin Kong
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引用次数: 0

摘要

本文总结了XX NMOS半导体瞬态双界面(TDI)法封装结构、芯片面积与结壳热阻(Rthjc)之间的关系:(1)通过分离瞬态热阻Zth曲线,直接确定该NMOS晶体管的Rthjc为0.48K/W。利用累积结构函数和差分结构函数分析了不同包装结构对Rthjc的影响。Rthjc主要包含PN结、sn基焊料、BeO陶瓷和金属外壳的热阻。与其他NMOS器件相比,该NMOS的热阻相对较小。(2)通过加热功率、芯片热参数和瞬态初始结温曲线斜率可以计算出芯片面积A。初始结温曲线斜率越大,晶片面积A越小。(3)相同封装结构下,晶片面积A越小,热阻Rthjc越大。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The Relationship between Packaging Structures, Chip Area and Thermal Resistance of NMOS Semiconductor in Transient Dual Interface Method
This paper summarizes the relationship between packaging structures, chip area and junction-to-case thermal resistance (Rthjc) of XX NMOS semiconductor in transient dual interface (TDI) method: (1)The Rthjc of this NMOS transistor is determined to be 0.48K/W directly from the separation of transient thermal resistance Zth curves. The influence of each packaging structure on Rthjc is then analyzed with cumulative and differential structure functions. The Rthjc mainly contains thermal resistance of PN junction, Sn-based solders, BeO ceramic and metal case. The thermal resistance of this NMOS is relatively small compared with that of other NMOS devices. (2)Chip area A can be calculated with heating power, chip thermal parameters and slope of transient initial junction temperature curves. The larger the slope of initial junction temperature curves, the smaller the chip area A. (3)With the same packaging structures, the smaller the chip area A, the larger the thermal resistance Rthjc.
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