Advanced Low-Loss and High-Density Photosensitive Dielectric Material for RF/Millimeter-Wave Applications

Hirokazu Ito, Kimiyuki Kanno, A. Watanabe, Ryota Tsuyuki, Ryoji Tatara, Markondeya Raj, R. Tummala
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引用次数: 8

Abstract

Electrically low-loss and high-density interconnection between components in a package have been one of the most critical metrics for next-generation 5G millimeterwave packages. This paper describes an innovative low-loss photosensitive dielectric material, which enables sub-$10\ \mu \mathrm{m}$ photo-patterning and shows low dissipation factor, known as Df. Dielectric properties providing low-loss interconnects were characterized by ring-resonator method. The results showed a dielectric constant (Dk) of 2.8 and a dissipation factor (Df) of less than 0.005 up to 40 GHz. This material is also designed to have a comparatively low curing temperature of 200°C, high elongation >50%, and high adhesion, and low surface roughness. This paper also presents the demonstration of low-loss and high-density signal routings using dual damascene process with the material. The innovative photosensitive dielectric material, reported in this paper, is a promising candidate to enable high-performance, high-density fan-out and interposers for RF and 5G mm-wave applications.
用于射频/毫米波应用的先进低损耗高密度光敏介电材料
封装中组件之间的低损耗和高密度互连一直是下一代5G毫米波封装最关键的指标之一。本文描述了一种创新的低损耗光敏介电材料,它可以实现低于$10\ \mu \ mathm {m}$的光图像化,并显示出低的耗散因子Df。采用环形谐振器方法对低损耗互连的介电特性进行了表征。结果表明,在40 GHz范围内,介质常数Dk为2.8,耗散系数Df小于0.005。该材料还具有相对较低的固化温度200°C,高伸长率>50%,高附着力和低表面粗糙度。本文还演示了用该材料进行双damascense工艺的低损耗高密度信号布线。本文报道的创新光敏介电材料是实现射频和5G毫米波应用的高性能,高密度扇出和中间体的有希望的候选者。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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