电气互连用无溶剂助熔剂底填料膜

Keon‐Soo Jang, Y. Eom, Kwang-Seong Choi, Hyun-Cheol Bae
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引用次数: 1

摘要

近年来,随着模具/间距变得越来越薄、越来越细,电子封装应用中已经开发出各种薄膜和浆料类型的下填充材料。像各向同性导电糊(ICPs)这样的糊基粘接剂很难精确控制所需的量,导致边缘有多余的树脂,加工过程很费力。常见的基于薄膜的粘合缺乏助焊剂,仅限于不可氧化的电极元素,如Au螺柱凸起。这种薄膜的形成也需要溶剂或额外的紫外光固化树脂。在此,为了克服这些缺点,我们基于之前对助熔剂底填体的研究,通过无溶剂、热诱导成膜的方法制备了助熔剂渗透的胶膜。热塑性材料和热固化环氧树脂分别作为基体和粘合剂用于新设计的薄膜。它们在热塑性塑料熔化和环氧树脂固化开始之间的温度混合在一起,以防止固化和反应。熔化的混合物被涂覆,最后冷却到塑料释放膜上。这种无溶剂、简便的薄膜制造是一种很有前途的途径,因为它的加工条件方便,可以在薄膜生产过程中实现无溶剂工艺。该薄膜还提供了一个同时助焊剂/下填充功能,在反应的温度下,焊料组件熔化。该无溶剂非导电膜(NCF)具有良好的焊料润湿性和透光率~ 90%。为此,热塑性塑料和可固化树脂的结合有助于在没有溶剂的情况下形成助焊剂粘合膜,因此具有广泛应用于电子封装应用的潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Solvent-free fluxing underfill film for electrical interconnection
A variety of underfill materials as film-and paste-types have been developed for electronic package applications, as the die/pitch becomes thinner and finer, recently. The paste-based adhesion such as isotropic conductive pastes (ICPs) is hard to precisely control the required amount, resulting in surplus resins at edges and a laborious process. Common film-based adhesion is deficient in flux, limited to non-oxidizable electrode elements, like Au stud bumps. This film formation also requires solvents or additional UV-curable resins. Here, to overcome these drawbacks, we generated flux-infiltrated adhesive films via a solvent-free, thermally-induced film formation, based on our previous research involved with fluxing underfill pastes. Thermoplastic materials and heat-curable epoxy resins were utilized for newly designed films as a matrix and an adhesive, respectively. They were mixed together at a temperature between the thermoplastic melting and the beginning of epoxy cure to prevent solidification and reaction. The melt-mixture was coated and at the end cooled down onto plastic release films. This solvent-free, facile film fabrication is a promising pathway in terms of convenient processing conditions allowing a solvent-free process during film production. This film also provides a simultaneous fluxing/underfill function during reaction at a temperature where solder components are melted. This solvent-free non-conductive film (NCF) showed good solder wettability and transmittance ∼90%. Toward this end, the combination of thermoplastics and curable resin facilitates flux-adhesive film formation without a solvent and thus has potential to be used for a wide range of electronic package applications.
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