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Optical Interconnects for High Performance Data Processing Systems

Published online by Cambridge University Press:  21 February 2011

John D. Crow
John D. Crow*
Affiliation:
IBM Thomas J. Watson Research Center, Yorktown Heights, New York 10598 USA
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Extract

The interconnection of many processors in order to increase the computing power of the ensemble is a growing theme in the data processing industry [1]. These processors may be within modules on a common board, on seperate boards within a common frame, or in seperate frames distributed in a room or building. A key element of this “computer complex” is the network which allows efficient data transfers. These data processing networks are differentiated from data communications networks by a demand for fast data transfer, so that the processors and memory at the nodes can interact in times measured in about 1–1000 machine cycles. Machine cycle times might be from tens to hundreds of nanoseconds, and the amount of data transferred might be measured in Kilobytes [2]. This implies both a fast and a high bandwidth technology for implementing these interconnections, as well as a limited link distance. The VLSI IC technology and associated dense electrical chip packaging which has made such powerful computing nodes possible, also implies a requirement for dense packaging of the optical link adapter, for compatability [3]. The multiprocessor complex has very high requirements on reliability, leading to low tolerance for component failure or erroneous data transmission. Eight year life, with failure rates less than 0.01%/Khr, and link bit error rates less than 1 in 1015 are not uncommon requirements [4]. The performance and cost of these networks are often determined by the wiring technology chosen, specifically the electronics and opto-electronics of the interfaces at the network's nodes. Optical interconnections are potentially attractive for this application, but the requirements on optical, electrical and associated packaging technologies are significantly different than the technology which has been developed for the data communications applications. [4, 5].

Type
Research Article
Information
MRS Online Proceedings Library (OPL) , Volume 167: Symposium K – Advanced Electronic Packaging Materials , 1989 , 47
Copyright
Copyright © Materials Research Society 1990

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References

1. Sawchuck, A.A., Jenkins, B.K., Raghavendra, C.S., and Varma, A., “Optical Interconnection Networks,” IEEE Computer, vol.20, pp. 50–60, June 1987.Google Scholar
2. Goyal, A., and Agerwala, T., “Performance Analysis of Future Shared Storage Systems,” IBM Journal of Research and Development, vol.28, p. 95, January 1984.Google Scholar
3. Goodman, J.W., Leonberger, F.J., Kung, S.Y., and Athale, R.A., “Optical Interconnections for VLSI Systems,” Proc. of IEEE, vol.72, p. 850, July 1984.Google Scholar
4. Lane, T.A., Bendett, M.P., Sullivan, C.T., and Bristow, J.P.G., “Digital system applications of optical interconnections,” Proc. of SPIE O-E/Fiber Lase, vol.991–08, September, 1988.Google Scholar
5. Crow, J.D., “Optoelectronic Integrated Circuits for High-speed Computer Networks,” Proc. of the OFC'89 Conference, Houston, Texas, February, 1989.Google Scholar
6. Yamaguchi, K., “Optoelectronic integrated circuit device technology and applications,” Proc. of the OFC'88, paper WF1, January, 1988.Google Scholar
7. Crow, J.D., Anderson, C.J., Bermon, S., Callegari, A., Ewen, J.F., Feder, J.D., Greiner, J.H., Harris, E.P., Hoh, P.D., Hovel, H.J., Magerlein, J.H., McKoy, T.E., Pomerene, A.T.S., Rogers, D.L., Scott, G.J., Thomas, M., Mulvey, G.W., Ko, B.K., Ohashi, T., Scontras, M., “A GaAs MESFET IC for Optical Multiprocessor Networks,” Trans. on Electron Devices, ED–36, pp. 263–268, February, 1989.Google Scholar
8. Ewen, J.F., Rogers, D.L., Widmer, A.X., Anderson, C.J., and Gfeller, F., “Fully Integrated Gb/s Clock Recovery Circuit in GaAs,” Proceedings of the IEEE GaAs IC Symposium, November 1988.Google Scholar
9. Harder, C., Buchmann, P., and Meir, H., “High power ridge-waveguide AIGaAs GRIN-SCH Laser Diode,” Electronics Letters, vol.22, pp. 1081–2, September 1986.Google Scholar