玻璃中间体的高频特性

Masaya Tanaka, S. Kuramochi, Takahiro Tai, Y. Sato, N. Kidera
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引用次数: 8

摘要

随着电子产品越来越小,越来越轻,功能也越来越多。对高密度、高集成度的需求越来越强。5G及以后的主要工程要求是低损耗、精密制造和低成本。由于短波长、极端衰减和低成本要求,业界的圣杯是超小型化的毫米波结构。为了实现高速5G通信标准,需要小型化和短信号路径。这只能通过设计和演示先进的石英通孔(TQV)衬底和多层RDL来实现。为了展示石英玻璃作为衬底材料的性能,我们将构建带有金属化的细间距TQV的中间体,并利用低损耗的介电聚合物层加上双面布线分布层。本文将对2.5D高速应用的高频特性进行建模。我们还将证明石英玻璃是5G及以后新兴毫米波天线技术的理想候选者。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
High Frequency Characteristics of Glass Interposer
As electronic product becomes smaller and lighter with an increasing number of functions. The demand for high density and high integration becomes stronger. The major engineering requirements for 5G and beyond are low loss, precision manufacturing and low cost. Because of the shortwave length, extreme attenuation and low-cost requirements, the holy grail in the industry is ultra-miniaturized mm-wave structures. To achieve high-speed 5G communication standards, miniaturization and short signal pathways are required. This can only be achieved by designing and demonstrating advanced through quartz via (TQV) substrates and multi-layer RDL’s. To demonstrate the performance of quartz glass as a substrate material, we will build interposers with fine pitch TQV with metallization coupled with double sided routing distribution layers utilizing low loss dielectric polymer layers. This paper will model high frequency characteristics for 2.5D high speed applications. We will also demonstrate quartz glass is the ideal candidate for the emerging mm-wave antenna technologies for 5G and beyond.
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