GREEN CHEMISTRY FOR PROTECTION OF HIGH TEMPERATURE (> 250°C) ELECTRONICS

Jochen Schuermans
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Abstract

A new modified “green” thermoset resin was developed and evaluated as an alternative encapsulation packaging material in comparison to traditional higher temperature resistant resins such as epoxies, silicones, cyanate esters and polyimide resins. Where epoxies and silicones have shown to provide good reliability for applications up to 150 – 200°C, high temperature applications, often required other chemistries, such as cyanate ester or polyimides. However, cyanate ester and/or polyimide based resins have recently been affected by new European environmental legislation making their usability, and especially environmental and health acceptance, not viable for the medium and long term. In combination to these environmental concerns, the current significant growth of the market for high power and high temperature electronics, also in more “consumer-type” applications, imply the need for “green” chemistry, capable to respond to high temperature (> 250°C) requirements. This paper will describe new materials, based on hybrid chemistry, in line with current European chemical (SVHC-compliant) regulations, responding to the current and future harsh environment requirements. DSC analysis was done to demonstrate the newly developed green chemistry provides Tg values well over 250°C. The combination of a hybrid chemistry with optimized adhesion properties, high Tg and low coefficient of thermal expansion seem to provide mechanical features which can address the problem of mechanical fatigue of traditional epoxy solutions, which did historically not provide the solutions which often, non-environmental friendly solutions, based on poly-imides or cyanate esters could offer.
绿色化学高温防护(>250°C)电子产品
与传统的耐高温树脂(如环氧树脂、硅树脂、氰酸酯和聚酰亚胺树脂)相比,开发并评估了一种新型改性“绿色”热固性树脂作为替代封装材料。在高达150 - 200°C的高温应用中,环氧树脂和有机硅已经显示出良好的可靠性,通常需要其他化学物质,如氰酸酯或聚酰亚胺。然而,氰酸酯和/或聚酰亚胺基树脂最近受到新的欧洲环境立法的影响,使其可用性,特别是环境和健康接受度,在中期和长期内不可行。结合这些环境问题,目前高功率和高温电子产品市场的显着增长,也在更多的“消费型”应用中,意味着需要“绿色”化学,能够对高温(>250°C)的要求。本文将描述基于混合化学的新材料,符合当前的欧洲化学品(符合svhc)法规,响应当前和未来的恶劣环境要求。DSC分析表明,新开发的绿色化学提供的Tg值远远超过250°C。混合化学与优化的粘附性能、高Tg和低热膨胀系数的结合似乎提供了机械特性,可以解决传统环氧溶液的机械疲劳问题,传统环氧溶液在历史上没有提供通常基于聚酰亚胺或氰酸酯的非环境友好型溶液可以提供的解决方案。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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