高速通过玻璃通过制造技术的中间层

Roman Ostholt, N. Ambrosius, R. A. Kruger
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引用次数: 21

摘要

硅和有机材料被广泛接受作为中间体的衬底。玻璃在机械强度、低损耗和耐化学性等方面优于当前的中间层材料。此外,它提供了低成本的潜力,但高密度的基板材料。众所周知,玻璃是一种新兴的中间材料。虽然金属化已经得到了广泛的解决,但通孔形成仍然是玻璃中间体的主要缺点之一。目前的玻璃钻孔技术在速度、最小直径或中间应用的质量上都存在不足。本文提出了一种新的高速玻璃通孔(TGV)制造工艺。新工艺是基于激光诱导的玻璃基板化学蚀刻。激光诱导玻璃蚀刻技术是已知的艺术。利用超短激光脉冲对玻璃进行永久性修饰,从而触发各向异性蚀刻。与本技术的状态相反,本发明的工艺仅用一枪就产生从玻璃基板的一个表面到另一个表面的修饰。因此,该技术可以在飞行中构建。动态过程的速度只取决于基本机器的动力学。可以实现5000 TGV/s左右的结构速度。该工艺使用标准玻璃作为中间层。它不依赖于特殊的玻璃添加剂或在蚀刻前对玻璃进行额外的热处理。结果显示了玻璃厚度在50 μm和200 μm之间。根据刻蚀步骤的长度,可以实现直径在10 μm到50 μm之间的TGV。tgv的锥度小于5°。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
High speed through glass via manufacturing technology for interposer
Silicon and organic materials are largely accepted as substrates for interposer. Glass outperforms the current interposer materials in a number of properties such as mechanical strength, low loss and chemical resistance. In addition it offers the potential of being a low cost but high density substrate material. As this is recognized glass is an emerging material for interposer application. While metallization is widely solved, via formation is still one of main drawbacks of glass interposers. Current glass drilling technologies lack either in speed, minimal diameter or quality for interposer application. In this paper a new high speed Through-Glass-Via (TGV) manufacturing process is presented. The new process is based on a laser induced chemical etching of the glass substrate. Laser induced glass etching technologies are known in the art. Using ultra short laser pulses a permanent modification of the glass is generated which triggers an anisotropic etching. In contrast to the state of the art, the presented process generates a modification from one surface of the glass substrate to the other with one shot only. Therefore the technology enables structuring on the fly. The speed of the on the fly process only depends on the dynamics of the base machine. Structuring speeds of around 5000 TGV/s can be achieved. The process works with standard glasses used for interposer. It does not depend on a special glass additive or additional thermal treatments of the glass before etching. Results are shown for glass thicknesses between 50 μm and 200 μm. Depending on the length of the etching step TGV diameter between 10 μm and 50 μm can be achieved. The TGVs have a small taper of below 5°.
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