封装热阻模型依赖于设备设计

J. Andrews
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引用次数: 65

摘要

提出了一个物理模型,该模型描述了在恒定冷却条件下,操作设备结对环境热阻超过典型组件制造商数据表值的机制,多达四倍。该模型考虑了封装的系统热性能与数据表热阻值之间的差异,这些差异没有以连接点到接线盒的热阻值、电路板对环境温升、对流系数、安装灵敏度和功耗等形式出现的合格数据。描述了从数据表规定的工作条件到超值条件时,用于预测封装热阻固有增加的八个常数。这些常数和获得它们的程序给出了双直列封装(dip),引脚网格阵列(pga),小轮廓晶体管(sot),和塑料引线芯片载体(plcc)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Package thermal resistance model dependency on equipment design
A physical model is presented that describes mechanisms for operating-equipment junction-to-ambient thermal resistance in excess of a typical component manufacturer's data-sheet value by as much as a factor of four under constant cooling conditions. The model accounts for the discrepancy between system thermal performance of a package and data-sheet thermal resistance value which are not accompanied by qualifying data in the form of junction-to-header thermal resistance, board temperature rise over ambient, convection coefficient, mounting sensitivity, and power dissipation. The eight constants used to predict inherent increases in package thermal resistance when going from the data-sheet-specified operating conditions to the excess-value conditions are described. These constants and procedures for obtaining them are given for dual in-line packages (DIPs), pin-grid arrays (PGAs), small-outline transistors (SOTs), and plastic leaded chip carriers (PLCCs).<>
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