A 100 Gbps optical transceiver engine by using photo-imageable thick film on ceramics

Teng Li; Chenhui Li; Jasper Nab; Ripalta Stabile; Oded Raz

doi:10.1109/LPT.2019.2953267

A 100 Gbps optical transceiver engine by using photo-imageable thick film on ceramics

Teng Li (Corresponding author), Chenhui Li, Jasper Nab, Ripalta Stabile, Oded Raz

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Abstract

A ceramics-based 100 Gbps optical transceiver engine is demonstrated. A ceramics-based interposer is fabricated using the multilayer thick film (MLTF) and photo-imageable thick film (PITF) technologies, which allow for multilayer metallization and ultra-fine resolution. The packaging method requires several flip-chip bonding steps using industry standard solder reflow and ultrasonic bonding processes. The assembled 4-channel optical engine performs error-free at 25.78 Gbps. Bit error rates (BER) and eye diagrams for all channels for both transmitter and receiver side are measured. Further, a crosstalk below 0.4 dB from adjacent channels is measured.

Original language	English
Article number	8897650
Pages (from-to)	1999-2002
Number of pages	4
Journal	IEEE Photonics Technology Letters
Volume	31
Issue number	24
DOIs	https://doi.org/10.1109/LPT.2019.2953267
Publication status	Published - 15 Dec 2019

Keywords

Ceramics
chip scale packaging
flip-chip devices
optical receivers
optical transmitters
photo-imageable thick film technologies

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10.1109/LPT.2019.2953267

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abstract = "A ceramics-based 100 Gbps optical transceiver engine is demonstrated. A ceramics-based interposer is fabricated using the multilayer thick film (MLTF) and photo-imageable thick film (PITF) technologies, which allow for multilayer metallization and ultra-fine resolution. The packaging method requires several flip-chip bonding steps using industry standard solder reflow and ultrasonic bonding processes. The assembled 4-channel optical engine performs error-free at 25.78 Gbps. Bit error rates (BER) and eye diagrams for all channels for both transmitter and receiver side are measured. Further, a crosstalk below 0.4 dB from adjacent channels is measured.",

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AB - A ceramics-based 100 Gbps optical transceiver engine is demonstrated. A ceramics-based interposer is fabricated using the multilayer thick film (MLTF) and photo-imageable thick film (PITF) technologies, which allow for multilayer metallization and ultra-fine resolution. The packaging method requires several flip-chip bonding steps using industry standard solder reflow and ultrasonic bonding processes. The assembled 4-channel optical engine performs error-free at 25.78 Gbps. Bit error rates (BER) and eye diagrams for all channels for both transmitter and receiver side are measured. Further, a crosstalk below 0.4 dB from adjacent channels is measured.

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