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10 - Architectural support for continuing Internet evolution and innovation

from Part II - Network architectures

Published online by Cambridge University Press:  05 October 2012

Rudra Dutta
Affiliation:
North Carolina State University, USA
Ilia Baldine
Affiliation:
Renaissance Computing Institute, USA
Byrav Ramamurthy
Affiliation:
University of Nebraska, Lincoln
George N. Rouskas
Affiliation:
North Carolina State University
Krishna Moorthy Sivalingam
Affiliation:
Indian Institute of Technology, Madras
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Summary

Starting in August of 2006 our collaborative team of researchers from North Carolina State University and the Renaissance Computing Institute, UNC-CH, have been working on a Future InterNet Design (NSF FIND) project to envision and describe an architecture that we call the Services Integration, controL, and Optimization (SILO). In this chapter, we describe the output of that project. We start by listing some insights about architectural research, some that we started with and some that we gained along the way, and also state the goals we formulated for our architecture. We then describe that actual architecture itself, connecting it with relevant prior and current research work. We show how the promise of enabling change is validated by showing our recent work on supporting virtualization as well as cross-layer research in optics using SILO. We end with an early case study on the usefulness of SILO in lowering the barrier to contribution and innovation in network protocols.

Toward a new Internet architecture

Back in 1972 Robert Metcalfe was famously able to capture the essence of networking with a phrase “Networking is inter-process communication,” however, describing the architecture that enables this communication to take place is by no means easy. The architecture of something as complex as the modern Internet encompasses a large number of principles, concepts and assumptions, which necessarily bear periodic revisiting and reevaluation in order to assess how well they have withstood the test of time.

Type
Chapter
Information
Next-Generation Internet
Architectures and Protocols
, pp. 197 - 216
Publisher: Cambridge University Press
Print publication year: 2011

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References

Software defined radio forum, focusing on open architecture reconfigurable radio technologies.
M., AllmanV., Paxson, K., Christensen, and B., Nordman. Architectural support for selectively-connected end systems: Enabling an energy-efficient future internet.
T., AndersonL., PetersonS., Shenker, and J., Turner. Overcoming the Internet impasse through virtualization. IEEE Computer, 38(4):34–41, April 2005.Google Scholar
B., Bhattacharjee, K., Calvert, J., Griffioen, N., Spring, and J., Sterbenz. Post-modern internetwork architecture.
D., Blumenthal, J., Bowers, N., McKewon, and B., Mukherjee. Dynamic optical circuit switched (docs) networks for future large scale dynamic networking environments.
R., Braden, T., Faber, and M., Handley. From protocol stack to protocol heap – role-based architecture. ACM Computer Communication Review, 33(1):17–22, January 2003.Google Scholar
D. D., Clark, J., Wroclawski, K., Sollins, and R., Braden. Tussle in cyberspace: Defining tomorrow's internet. In Proceedings of the 2002 ACM SIGCOMM Conference, pages 347–356, Pittsburgh, PA, August 2002.Google Scholar
D., Duchamp. Session layer management of network intermediaries.
R., Dutta, A. E., Kamal, and G. N., Rouskas, editors. Traffic Grooming in Optical Networks: Foundations, Techniques, and Frontiers. Springer, 2008.Google Scholar
W., Tuttlebee (ed.). Software Defined Radio. John Wiley, 2002.Google Scholar
D., Fisher. US National Science Foundation and the future internet design. ACM Computer Communication Review, 37(3):85–87, July 2007.Google Scholar
A., Gavras, A., Karila, S., Fdida, M., May, and M., Potts. Future internet research and experimentation: The FIRE intitiative. ACM Computer Communication Review, 37(3):89–92, July 2007.Google Scholar
N., Hutchinson and L., Peterson. The x-kernel: An architecture for implementing network protoccols. IEEE Transactions on Software Engineering, 17(1):64–76, 1991.Google Scholar
R., Kahn, C., Abdallah, H., Jerez, G., Heileman, and W. W., Shu. Transient network architecture.
D., Krioukov, K. C., Claffy, and K., Fall. Greedy routing on hidden metric spaces as a foundation of scalable routing architectures without topology updates.
J., Mitola. The software radio architecture. IEEE Communications Magazine, 33(5):26–38, May 1995.Google Scholar
R., Morris and F., Kaashoek. User information architecture.
Computer Business Review Online. ITU head foresees internet balkanization, November 2005.
M., PickavetP., Demeester, D., Colle, D., Staessensand, B., Puype, L., Depré, and I., Lievens. Recovery in multilayer optical networks. Journal of Lightwave technology, 24(1):122–134, January 2006.Google Scholar
The RNA Project. RNA: recursive network architecture. www.isi.edu/rna/.
K., Sollins and J., Wroclawski. Model-based diagnosis in the knowledge plane.
J., Strand, A. L., Chiu, and R., Tkach. Issues for routing in the optical layer. IEEE Communications, 39:81–87, February 2001.Google Scholar
The SILO Project Team. The SILO NSF FIND project website. www.netsilos. net/, 2008.
D. D., Clarket al. New Arch project: Future-generation internet architecture. www.isi.edu/newarch/.
M., Dillingeret al. Software Defined Radio: Architectures, Systems and Functions. John Wiley, 2003.Google Scholar
J., Touch and V., Pingali. The RNA metaprotocol. In Proceedings of the 2008 IEEE ICCCN Conference, St. Thomas, USVI, August 2008.Google Scholar
J., Turner, P., Crowley, S., Gorinsky, and J., Lockwood. An architecture for a diversified internet. www.nets-find.net/projects.php.
Y., Xin and G. N., Rouskas. Multicast routing under optical layer constraints. In Proceedings of IEEE INFOCOM 2004, pages 2731–2742, March 2004.Google Scholar

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