TY - JOUR
T1 - Towards the integration of InP photonics with silicon electronics
T2 - design and technology challenges
AU - Yao, W.
AU - Liu, X.
AU - Matters-Kammerer, M.
AU - Meighan, A.
AU - Spiegelberg, M.
AU - Trajkovic, M.
AU - Van der Tol, J. J.G.M.
AU - Wale, M. J.
AU - Zhang, X.
AU - Williams, K. A.
PY - 2021/2/15
Y1 - 2021/2/15
N2 - Intimate integration of photonics with electronics is regarded as the key to further improvement in bandwidth, speed and energy efficiency of information transport systems. Here, a method based on wafer-scale polymer bonding is reviewed which is compatible with foundry-sourced high-performance InP photonics and BiCMOS electronics. We address challenges with respect to circuit architecture, co-simulation framework and interconnect technology and introduce our approach that can lead to broadband high-density interconnects between photonics and electronics. Recent proof-of-concept work utilizing DC-coupled driver connections to modulators, which significantly reduces the interconnect complexity, is summarized. Furthermore, co-simulation concepts based on equivalent circuit models are discussed with emphasis on the importance of impedance matching between driver and modulator. Finally, realizations of broadband interconnects and functional photonic building blocks after wafer bonding are highlighted to demonstrate the potential of this wafer-scale co-integration method.
AB - Intimate integration of photonics with electronics is regarded as the key to further improvement in bandwidth, speed and energy efficiency of information transport systems. Here, a method based on wafer-scale polymer bonding is reviewed which is compatible with foundry-sourced high-performance InP photonics and BiCMOS electronics. We address challenges with respect to circuit architecture, co-simulation framework and interconnect technology and introduce our approach that can lead to broadband high-density interconnects between photonics and electronics. Recent proof-of-concept work utilizing DC-coupled driver connections to modulators, which significantly reduces the interconnect complexity, is summarized. Furthermore, co-simulation concepts based on equivalent circuit models are discussed with emphasis on the importance of impedance matching between driver and modulator. Finally, realizations of broadband interconnects and functional photonic building blocks after wafer bonding are highlighted to demonstrate the potential of this wafer-scale co-integration method.
KW - BiCMOS integrated circuits
KW - electronic photonic integration
KW - optical transceiver
KW - Photonic integrated circuits
KW - wafer scale integration
UR - http://www.scopus.com/inward/record.url?scp=85097947075&partnerID=8YFLogxK
U2 - 10.1109/JLT.2020.3043799
DO - 10.1109/JLT.2020.3043799
M3 - Article
AN - SCOPUS:85097947075
SN - 0733-8724
VL - 39
SP - 999
EP - 1009
JO - Journal of Lightwave Technology
JF - Journal of Lightwave Technology
IS - 4
M1 - 9290349
ER -