Latch-to-latch CMOS-driven optical link at 28 Gb/s
Benjamin G. Lee, Seongwon Kim, et al.
CLEO 2014
We report here on the design, fabrication and characterization of 48-channel parallel optical transceivers demonstrating terabit/sec data transfer rate. The 0.48 Tb/s transmit plus 0.48 Tb/s receive throughput was achieved using a second-generation single-chip holey CMOS transceiver IC. In addition to 24 receiver (RX) and 24 laser diode driver circuits, the 5.2 mm,\times,5.8 mm single CMOS chip incorporates 48 through-substrate optical vias (holes), one for each transmitter (TX) and RX channel. A complete holey Optochip is formed following direct flip-chip attachment of 24-channel 850-nm VCSEL and PD arrays. The 48 optical vias enable optical access to the 24 VCSELs and 24 PDs. The holey Optochip concept provides a dense chip-scale package which is fully compatible with industry-standard top emitting/detecting 850-nm VCSELs/PDs providing optimized high-speed performance through close integration of the optoelectronic (OE) devices with their drive electronics. Furthermore, the optical vias and OE devices are arranged in a 4,\times,12 array on 250 \mu m,\times, 250 \mu m pitch to facilitate direct fiber-coupling to a standard 4,\times,12 multi-mode fiber array. © 1983-2012 IEEE.
Benjamin G. Lee, Seongwon Kim, et al.
CLEO 2014
Ralph H. Johnson, Daniel M. Kuchta
CLEO 2008
Fuad E. Doany, Benjamin G. Lee, et al.
Journal of Lightwave Technology
Daniel M. Kuchta, Fuad Doany, et al.
ECOC 2015