A photosensitive-BCB on laminate technology (MCM-LD)

A. Strandjord, R. H. Heistand, J. Bremmer, P. Garrou, T. Tessier
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引用次数: 18

Abstract

As Multichip Module (MCM) technology has evolved from research to commercial production, cost has become the important issue for implementation. Manufacturing schemes are incorporating those processes and materials which take advantage of the most cost effective technologies to meet the specific performance requirements for a given application. The work described in this paper demonstrates how laminate based MCM technology (MCM-L) and deposited dielectric technology (MCM-D) can be combined to form a low cost solution for systems requiring high density interconnections. The use of laminate board technology to fabricate the relatively low density interconnect portion of the multilayer structure, allows one to take advantage of the well established and highly cost competitive printed wiring board (PWB) industry. Deposited dielectric technology takes advantage of the high density capabilities, normally associated with MCM-D packaging, to increase performance. Benzocyclobutene (BCB) is a well suited dielectric material for a laminate/deposited dielectric application (MCM-LD) since it can be cured at relatively low temperatures (220-275/spl deg/C). Additionally, the use of BCB as the interlayer dielectric provides a stable copper/BCB interface, excellent planarization over rough topographies, and exhibits very low moisture absorption. Several low cost processing techniques were demonstrated as part of this MCM-LD program. These include an inherently photosensitive BCB formulation as the thin film dielectrics, meniscus coating as the large area deposition process for the photosensitive-BCB, and an in-line belt furnace for Rapid Thermal Curing (RTC). A two layer module was fabricated to demonstrate the feasibility of this MCM-LD process flow. This paper describes the processing issues and techniques associated with such a hybridized interconnection technology.<>
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一种光敏- bcb层压技术(MCM-LD)
随着多芯片模块(MCM)技术从研究阶段发展到商业化生产阶段,成本问题已成为实现多芯片模块的重要问题。制造方案结合了那些利用最具成本效益的技术来满足特定应用的特定性能要求的工艺和材料。本文所描述的工作展示了基于层压的MCM技术(MCM- l)和沉积介质技术(MCM- d)如何结合起来,形成需要高密度互连的系统的低成本解决方案。使用层压板技术来制造多层结构中相对低密度的互连部分,可以利用成熟且具有高度成本竞争力的印刷配线板(PWB)行业的优势。沉积介质技术利用高密度能力,通常与MCM-D封装相关,以提高性能。苯并环丁烯(BCB)是一种非常适合层压板/沉积介质应用(MCM-LD)的介电材料,因为它可以在相对较低的温度(220-275/spl℃)下固化。此外,使用BCB作为层间介质提供了稳定的铜/BCB界面,在粗糙的地形上具有出色的平面化,并且具有非常低的吸湿性。几个低成本的加工技术被证明是这个MCM-LD计划的一部分。其中包括固有光敏BCB配方作为薄膜电介质,半月板涂层作为光敏BCB的大面积沉积工艺,以及用于快速热固化(RTC)的在线带式炉。为验证该工艺流程的可行性,制作了两层模块。本文描述了与这种杂交互连技术相关的处理问题和技术。
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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