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Limitations and Perspectives of Optically Switched Interconnects for Large-scale Data Processing and Storage Systems

Published online by Cambridge University Press:  09 August 2012

Slavisa Aleksic ,
Gerhard Schmid  and
Naida Fehratovic
Slavisa Aleksic
Affiliation:
Institute of Telecommunications (ITC), Vienna University of Technology, Gusshausstrasse 25-29/389, 1040 Vienna, Austria
Gerhard Schmid
Affiliation:
Institute of Telecommunications (ITC), Vienna University of Technology, Gusshausstrasse 25-29/389, 1040 Vienna, Austria
Naida Fehratovic
Affiliation:
Kapsch TrafficCom AG, Am Europlatz 2, 1120 Vienna, Austria
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Abstract

The ever-growing Internet data traffic leads to a continuously increasing demand in both capacity and performance of large-scale Information and Communication (ICT) systems such as high-capacity routers and switches, large data centers, and supercomputers. Complex and spatially distributed multirack systems comprising a large number of data processing and storage modules with high-speed interfaces have already become reality. A consequence of this trend is that internal interconnection systems also become large and complex. Interconnection distances, total required number of cables, and power consumption increase rapidly with the increase in capacity, which can cause limitations in scalability of the whole system. This paper addresses requirements and limitations of intrasystem interconnects for application in large-scale data processing and storage systems. Various point-to-point and optically switched interconnection options are reviewed with regard to their potential to achieve large scalability while reducing power consumption.

Keywords

opticaloptoelectronicSustainability
Type
Articles
Information
MRS Online Proceedings Library (OPL) , Volume 1438: Symposium M – Optical Interconnects—Materials, Performance and Applications , 2012 , mrss12-1438-m02-02
Copyright
Copyright © Materials Research Society 2012

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References

REFERENCES

1. Lange, C., et al. ., “Energy Consumption of Telecommunication Networks”, ECOC 2009, Vienna, Austria, Sept. 20-24, 2009, paper 5.5.3.Google Scholar
2. Zhou, X., et al. ., “Transmission of 32-Tb/s Capacity Over 580 km Using RZ-Shaped PDM-8QAM Modulation Format and Cascaded Multimodulus Blind Equalization Algorithm”, IEEE/OSA Journal of Lightwave Technology, Vol. 28, No. 4, 2010, pp. 456–465.Google Scholar
3. Miller, D. A. B., “Device Requirements for Optical Interconnects to Silicon Chips”, Proceedings of the IEEE, Vol. 97, No. 7, July 2009, pp. 1166–1185.Google Scholar
4. The Climate Group, “SMART 2020: Enabling the low carbon economy in the information age”, Global eSustainability Initiative, Techn. Rep. 2008.Google Scholar
5. Aleksic, S., “Analysis of Power Consumption in Future High-Capacity Network Nodes”; IEEE/OSA JOCN, Vol. 1, No. 3, August 2009, pp. 245–258.Google Scholar
6. Feldman, M. R., et al. ., “Comparison Between Optical and Electrical Interconnects Based on Power and Speed Considerations”, Applied Optics, Vol. 27, No. 9, 1988, pp. 1742–1751.Google Scholar
7. Top500 Computer Sites, “Statistics on high-performance computers”, http://www.top500.org/ Google Scholar
8. Westbergh, P., et al. ., “32 Gbit/s multimode fiber transmission using high-speed, low current density 850 nm VCSEL”, Electronics Letters, Vol. 45, No. 7, March 2009, pp. 366–368.Google Scholar
9. Pepeljugoski, Petar et al. ., “Low Power and High Density Optical Interconnects for Future Supercomputers”, OFC 2010, San Diego, California, USA, March 2010, paper OThX2.Google Scholar
10. Benlachtar, Y., et al. .,”Optical OFDM for the Data Center”, ICTON 2010, Munich, Germany, June 27 -July 1, 2010, paper We.A4.3.Google Scholar
11. Ye, X., et al. ., “Assessment of Optical Switching in Data Center Networks”, OFC 2010, San Diego, California, USA, March 21-25, 2010, paper JWA63.Google Scholar
12. Papadimitriou, G. I., Papazoglou, C., and Pomportsis, A. S., “Optical Switching: Switch Fabrics, Techniques, and Architectures”, IEEE/OSA JLT, Vol. 21, No. 2, pp. 384–405, 2003.Google Scholar
13. Vlachos, K., et al. ., “Photonics in switching: enabling technologies and subsystem design”; OSA Journal of Optical Networking, Vol. 8, Issue 5, pp. 404–428, 2009.Google Scholar
14. Fehratovic, N. and Aleksic, S., “Power Consumption and Scalability of Optically Switched Interconnects”, OFC 2011, Los Angeles, California, USA, March 2011, paper JWA84.Google Scholar
15. Schmid, G., Leeb, W. R:; Langer, G., “Experimental Demonstration of the Robustness Against Interference of Optical Interconnects on Printed Circuit Boards”, IEEE Photonics Society Winter Topicals Meeting, Mallorca, Spain, 2010, pp. 93 – 94.Google Scholar
16. Taubenblatt, M. A., “Challenges and opportunities for integrated optics in computing systems”, SPIE Conference Series Bd. 6124, 2006, pp. 612406-13 – 612406-11.Google Scholar
17. Tung, K. K.; Wong, W. H., Pun, E. Y. B., “Polymeric Optical Waveguides Using Direct Ultraviolet Photolithography Process”, Applied Physics A 80 (2005), Nr. 3, pp. 621 – 626.Google Scholar
18. Wang, X., et al. ., “Fully Embedded Board-Level Optical Interconnects from Waveguide Fabrication to Device Integration” IEEE/OSA JLT Vol. 26 (2008), No. 2, pp. 243 – 250.Google Scholar
19. Langer, G., Satzinger, V., Schmid, V., : Schmid, G, Leeb, W. R., “PCB with Fully Integrated Optical Interconnects”, SPIE Photonics West 2011, Optoelectronic Interconnects and Component Integration XI Bd. 7944, 2011, pp. 794408-1 – 794408-15.Google Scholar
20. Houbertz, R., Satzinger, V., Schmid, V., Leeb, W., and Langer, G. “Optoelectronic printed circuit board: 3D structures written by two-photon absorption”, in Proc. Organic 3D Photonics Materials and Devices II, pages 70530B, San Diego, August 2008, pp. 1–13.Google Scholar
21. Aleksic, S., Fehratovic, N., “Analysis of Scalability of Optical Intrasystem Interconnects”, Journal of Networks (JNW), Academy Publisher, scheduled for publication in June 2012.Google Scholar
22. Aleksic, S., Fehratovic, N., “Requirements and Limitations of Optical Intermodule Interconnects for High-Capacity Network Elements” (invited), ICTON 2010, Munich, Germany, June 27 -July 1, 2010, paper We.A1.2.Google Scholar
23. Aleksic, S., Krajinovic, V., “Comparison of Optical Code Correlators for All-Optical MPLS Networks”, ECOC 2002, Copenhagen, Denmark, September 2002, Vol. 1, Paper no. 1.4.3.Google Scholar
24. Aleksic, S., “Energy Efficiency of Electronic and Optical Network Elements” (invited), IEEE Journal of Selected Topics in Quantum Electronics, Vol. 17 (2011), No. 3; pp. 1–13.Google Scholar
25. Aleksic, S., “Electrical Power Consumption of Large Electronic and Optical Switching Fabrics”; IEEE Winter Topicals 2010, Majorca, Spain; January 2010, pp. 95–96.Google Scholar