ORCID
- Graham-Jones, Jasper: 0000-0003-3081-7049
Abstract
The protocol data rate governing data storage devices will increase to over 12 Gb/s by 2013 thereby imposing unmanageable cost and performance burdens on future digital data storage systems. The resulting performance bottleneck can be substantially reduced by conveying high-speed data optically instead of electronically. A novel active pluggable 82.5 Gb/s aggregate bit rate optical connector technology, the design and fabrication of a compact electro-optical printed circuit board to meet exacting specifications, and a method for low cost, high precision, passive optical assembly are presented. A demonstration platform was constructed to assess the viability of embedded electro-optical midplane technology in such systems including the first ever demonstration of a pluggable active optical waveguide printed circuit board connector. High-speed optical data transfer at 10.3125 Gb/s was demonstrated through a complex polymer waveguide interconnect layer embedded into a 262 mm × 240 mm × 4.3 mm electro-optical midplane. Bit error rates of less than 10-12 and optical losses as low as 6 dB were demonstrated through nine multimode polymer wave guides with an aggregate data bandwidth of 92.8125 Gb/s.
Publication Date
2012-11-01
Publication Title
Journal of Lightwave Technology
Volume
30
Issue
21
ISSN
0733-8724
Organisational Unit
School of Engineering, Computing and Mathematics
First Page
3316
Last Page
3329
Recommended Citation
Graham-Jones, J. (2012) 'FirstLight: Pluggable Optical Interconnect Technologies for Polymeric Electro-Optical Printed Circuit Boards in Data Centers', Journal of Lightwave Technology, 30(21), pp. 3316-3329. Retrieved from https://pearl.plymouth.ac.uk/secam-research/668