Low power penalty, dry-film polymer waveguides for silicon photonics chip packaging

Hsiang-Han Hsu, S. Nakagawa
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引用次数: 1

Abstract

Two types of polymer waveguides made by dry film process are characterized for silicon photonics chip packaging. In this paper, both DC and high-speed performance of the waveguides are demonstrated. DC characterization includes coupling loss from/to a single-mode fiber (SMF), near field pattern (NFP), far field pattern (FFP), and alignment tolerance measurement. The designed values for the waveguide cores are 10 μm in height and 14 μm in width. In terms of obtaining small enough coupling loss with butt coupling between the waveguides and SMFs, two kinds of numerical aperture (NA), 0.13 and 0.35, are selected. On the other hand, high-speed transmission experiments were tested by eye patterns. Clear eye openings were observed up to 25 Gbps. The results show dry-film polymer waveguides are one of a promising solutions for silicon photonics chip packaging used in next generation optical multi-chip module (MCM).
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用于硅光子学芯片封装的低功耗干膜聚合物波导
采用干膜工艺制备了两种用于硅光子学芯片封装的聚合物波导。本文演示了该波导的直流性能和高速性能。直流特性包括单模光纤的耦合损耗(SMF)、近场模式(NFP)、远场模式(FFP)和对准公差测量。波导芯的设计值为高10 μm,宽14 μm。为了获得足够小的耦合损耗,选择了0.13和0.35两种数值孔径(NA)。另一方面,高速传输实验是通过眼睛图案来测试的。在高达25 Gbps的速度下,观察到清晰的眼睛开口。结果表明,干膜聚合物波导是下一代光多芯片模块(MCM)中硅光子学芯片封装的一种有前途的解决方案。
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