TY - JOUR
T1 - Polymer waveguide photonic interconnect for multichip communications-based heterogeneous integration
AU - Krishna, Rakesh M.
AU - Zhang, Rui
AU - Ravichandran, Siddharth
AU - Fan, Tianren
AU - Hosseinnia, Amir H.
AU - Lopez-Ninantay, Jose
AU - Liu, Fuhan
AU - Kathaperumal, Mohan
AU - Swaminathan, Madhavan
AU - Adibi, Ali
N1 - Publisher Copyright:
© 2022 Society of Photo-Optical Instrumentation Engineers (SPIE).
PY - 2022/7/1
Y1 - 2022/7/1
N2 - An on-package optical interconnect design is proposed for the first time, with silicon photonics in conjunction with the polymer-on-glass interposer technology to enable heterogeneous integration. Glass substrates are used for low-cost, high reliability packaging while silicon photonics allows for high-speed modulation and wavelength division multiplexing within a small footprint. By combining silicon-photonic and benzo-cyclobutene-on-glass interposer technologies, we propose a scalable on-package photonic interconnect that can provide data rates >224 Gb / s for medium-reach links. Our proposed interconnect considers microring modulators and high-speed detectors available in photonic-foundry processes. We present the power-budget analysis to identify the key limiting parameters toward achieving an energy consumption of < 1 pJ / bit.
AB - An on-package optical interconnect design is proposed for the first time, with silicon photonics in conjunction with the polymer-on-glass interposer technology to enable heterogeneous integration. Glass substrates are used for low-cost, high reliability packaging while silicon photonics allows for high-speed modulation and wavelength division multiplexing within a small footprint. By combining silicon-photonic and benzo-cyclobutene-on-glass interposer technologies, we propose a scalable on-package photonic interconnect that can provide data rates >224 Gb / s for medium-reach links. Our proposed interconnect considers microring modulators and high-speed detectors available in photonic-foundry processes. We present the power-budget analysis to identify the key limiting parameters toward achieving an energy consumption of < 1 pJ / bit.
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U2 - 10.1117/1.JNP.16.036002
DO - 10.1117/1.JNP.16.036002
M3 - Article
AN - SCOPUS:85142266335
SN - 1934-2608
VL - 16
SP - 36002
JO - Journal of Nanophotonics
JF - Journal of Nanophotonics
IS - 3
ER -