用于高温应用的邻苯二腈基电子封装

Eric Jian Rong Phua, Ming Liu, J. Lim, Bokun Cho, C. Gan
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引用次数: 1

摘要

环氧树脂作为封装树脂在电子工业中无处不在。然而,由于新兴应用的出现,越来越恶劣的环境和更严格的条件已经使环氧树脂达到了其使用极限[1]-[5]。这些应用程序必须严重依赖填料来进一步推动性能极限。替代高性能电子封装材料,包括双马来酰亚胺(BMI)[6,7]和氰酸酯(CE)[8] -[10],也进行了研究。在本文中,我们将讨论邻苯二腈(PN)[11] -[14]的一种变体,它作为树脂本身在正常气氛中能够承受300^{\circ}\ mathm {C}$的温度。除了具有类似的性能,特别是在机械强度方面,PN还表现出很强的热稳定性。填料基质的高质量粘附性不仅体现在扫描电镜(SEM)图像上,还体现在粘结的抗剪强度上。使用Gaussian09™研究了PN作为替代包装材料性能的潜在机制。结果表明,三嗪和酞菁分别与硅原子和铝原子在二氧化硅和氧化铝上的相互作用是观察到键剪行为的原因。
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Phthalonitrile-Based Electronic Packages for High Temperature Applications
Epoxy is ubiquitous in the electronics industry for its application as a package resin. However, harsher environments and more stringent conditions arising from emerging applications have driven epoxy to its servicing limit [1] –[5]. These applications have to rely heavily on fillers to push the performance limit further. Alternative high performance electronic packaging materials, including bismaleimide (BMI) [6, 7] and cyanate esters (CE) [8] –[10], have also been investigated. In this paper, we will discuss a variant of phthalonitrile (PN) [11] –[14], which as a resin itself is able to withstand a temperature of $300^{\circ}\mathrm{C}$ in normal atmosphere. Besides comparable properties especially in terms of mechanical strength, PN also exhibits strong thermal stability. High quality adherence of filler-matrix is not just observed in scanning electron microscopy (SEM) images but also reflected in the bond shear strength. The underlying mechanism of the performance of PN as an alternative packaging material was studied using Gaussian09™. It is shown that the interaction of triazine and phthalocyanine with silicon and aluminum atoms on silica and alumina respectively, is the factor behind the bond shear behavior observed.
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