TITLE: Optical Networking: Recent Developments, Issues, and Trends
SPEAKER: Raj Jain, Nayna Networks and The Ohio State University <firstname.lastname@example.org>
The year 2002 has brought a turn around in the optical networking. Several technologies that were hot until last year are no longer so.
Beginning with networking trends and recent DWDM records, a sample of recent optical networking products and applications will be presented. Key technological developments that made optical networking a hot topic will be explained.
Upcoming optical technologies will also be briefly described. The role of 10 Gigabit Ethernet standard in unifying the local and wide area networks will be presented.
While Ethernet is trying to replace SONET/SDH in the carrier networks, SONET itself is changing to better meet the new demands of data traffic. The features that make Next Generation SONET a tough competitor for Ethernet in the carrier networks will be explained.
The latest debate on all-optical switching along with the introduction of IP control plane will be presented. Multiprotocol Label Switching (MPLS), Multiprotocol Lambda Switching, and Generalized Multiprotocol Label Switching (GMPLS) will be explained. New standards activities to change IP protocols to enable optical networking will be presented.
Networking Trends: Life Cycles of Technologies, Traffic vs Capacity Growth, Ethernet Everywhere, Technology Failures vs Successes, LAN-WAN Convergence, Ethernet vs SONET, Everything over IP.
Carrier Networking Technologies: SONET, SONET Components, Protection, Rings, Virtual Concatenation, Generic Framing Protocol (GFP), Link Capacity Adjustment Scheme (LCAS), SDH, OTN.
Gigabit and 10 Gb Ethernet: Distance-B/W Principle, 10 GbE: Key Features, PMD Types, 1G/10G Ethernet Switch Features, Flow Control, Link Aggregation, Jumbo Frames, Resilient Packet Ring (RPR), Beyond 10 GbE.
Recent Developments in Optical Networking: Recent DWDM Records and Product Announcements, All-Optical Networking, IP over DWDM, Changes in IP, UNI, ASON, MPLS, MPL(ambda)S, GMPLS, Martini Drafts, Upcoming optical technologies.
Raj Jain is a Co-founder and Chief Technology Officer of Nayna Networks, Inc - an optical systems company in Milpitas, CA. He is currently on a leave of absence from Ohio State University in Columbus, Ohio, where he is a Professor of Computer and Information Sciences.
He is a Fellow of IEEE, a Fellow of ACM. He is currently a Distinguished Lecturer for the IEEE Communications Society. He is on the Editorial Boards of Computer Networks: The International Journal of Computer and Telecommunications Networking, Computer Communications (UK), Journal of High Speed Networks (USA), Mobile Networks and Applications, and International Journal of Wireless and Optical Communications (Singapore).
Raj Jain is on the Board of Technical Advisors to EdgeNet Communications Corporation, Burlingame, CA, Corona Networks, Inc., Milpitas, CA, Chip Engines, Inc., Sunnyvale, CA, Teradiant Networks, San Jose, CA, Tivre Networks, San Jose, CA, Irvine Networks, Irvine, CA, Beacon Telco, Boston, MA, Avatar Networks, Fremont, CA, Rhonet Systems, Columbus, OH, and on the Board of Research Advisors to iBEAM Broadcasting Corporation, Sunnyvale, CA. Previously, he was also on the Board of Advisors to Nexabit Networks, Westboro, MA, which was acquired by Lucent Corporation and to Amber Networks, Fremont, CA, which was acquired by Nokia.
TITLE: InfiniBand Architecture and Where it is Headed
SPEAKER: Dhabaleswar K. Panda, The Ohio State University <email@example.com>
This tutorial is intended to provide an in-depth overview of the emerging InfiniBand Architecture (IBA) standard. This new architecture incorporates high performance I/O in addition to interprocessor communication, provides QoS and protection in the network, provides multiple transport services, and allows flexibility of IBA subnets to be connected to Wide Area Networks (WANs) through routers. The IBA standard incorporates many of the Virtual Interface Architecture (VIA) functions at its verbs layer. The tutorial will demonstrate how high performance communication and I/O architectures for scalable systems can be designed with this standard by taking into account interprocessor communication, network communication, and communication to I/O devices. The basic components of the IBA standard and multiple layers of this architecture will be described in detail. The differences between IBA and other on-going developments and standardization effort such as PCI-X, iSCSI, Rapid I/O, Hyper-transport, 3GIO, TCP off-load engines (TOE), etc. will be highlighted. We will show how the IBA standard facilitates the next generation servers and data-centers to be designed not only to deliver high performance but also RAS (Reliability, Availability, and Serviceability). Open research challenges in designing communication and I/O subsystems of these systems with IBA will be outlined. The tutorial will conclude with an overview of on-going IBA related research projects, IBA products, and the market time frame for the IBA products.
This tutorial is intended for researchers, scientists, engineers, managers, developers, professors, and students engaged in research, design, and development of next generation communication and I/O architecture for enterprise servers and data centers as well as high-performance and scalable systems.
Dhabaleswar K. Panda is a Professor of Computer Science at the Ohio State University. He obtained his Ph.D. in computer engineering from the University of Southern California. His research interests include parallel computer architecture, high performance computing, user-level communication protocols, interprocessor communication and synchronization, network-based computing, and Quality of Service. He has published over 100 papers in major journals and international conferences related to these research areas. Dr. Panda and his research group members have been doing extensive research on VIA and InfiniBand. His research group has collaborated with IBM T.J. Watson in designing a high performance VIA implementation for the IBM Netfinity cluster system and with Intel on designing a comprehensive micro-benchmark suite to evaluate VIA/IBA implementations. His research group is currently collaborating with Sandia National Laboratory and Mellanox (a leading company producing IBA Products) on designing next generation High Performance Computing systems with InfiniBand.
Dr. Panda has served on Program Committees and Organizing Committees of several parallel processing and high performance computing conferences and on editorial boards for several parallel processing journals. He was General Co-Chair for the 2001 International Conference on Parallel Processing; Program Co-Chair of the 1999 International Conference on Parallel Processing, 1997 and 1998 Workshops on Communication and Architectural Support for Network-Based Parallel Computing (CANPC); Program Co-Chair of the Int'l Workshop on Communication Architecture for Clusters (CAC '01); an Associate Editor of the IEEE Transactions on Parallel and Distributed Computing; Co-Guest-Editor for two special issue volumes of Journal of Parallel and Distributed Computing on "Workstation Clusters and Network-based Computing"' an IEEE Distinguished Visitor Speaker and an IEEE Chapters Tutorials Program Speaker. Currently, he is serving as a Program Co-Chair of International Workshop on Communication Architecture for Clusters (CAC '02). Dr. Panda is a recipient of the NSF Faculty Early CAREER Development Award, the Lumley Research Award (1997 and 2001) at the Ohio State University, and an Ameritech Faculty Fellow Award. Dr. Panda is listed as a distinguished scientist in "Who'sWho in America" and in "American Men & Women of Science".
More details on this tutorial can be obtained from the following URL:
TITLE: High-Speed Networking: A Systematic Approach to High-Bandwidth Low-Latency Communication
SPEAKER: James Sterbenz, BBN, <firstname.lastname@example.org>
This tutorial presents a comprehensive introduction to all aspects of high-speed networking, based on the book High-Speed Networking: A Systematic Approach to High-Bandwidth Low-Latency Communication, James P.G. Sterbenz and Joseph D. Touch, John Wiley, 2001. The target audience includes computer scientists and engineers who may have expertise in a narrow aspect of high-speed networking (such as switch design), but want to gain a broader understanding of all aspects of high-speed networking and the impact that their designs have on overall network performance. This tutorial is not about any particular protocols and standards, but is rather a systemic and systematic approach to the principles that guide the research and design of high-speed networks, protocols, and applications.
The network is a complex system of systems, and high-speed networking does not result from the design of individual components or protocols in isolation. Thus, this tutorial presents a systemic approach to high-speed networks, where the goal is to provide high bandwidth and low latency to distributed applications, and to deal with the high bandwidth-x-delay product that results from high-speed networking over long distances. A set of fundamental axioms is presented (Know the past present and future, Application primacy, High-performance paths, Limiting constraints, and Systemic optimisation), followed by the major topics:
Dr. James P.G. Sterbenz is a Senior Network Scientist and Research Group Manager at BBN Technologies in Cambridge, Mass. He is a principal investigator and program manager for several DARPA and NASA funded research programs in high-speed, mobile, wireless, and active networks. He worked on gigabit networking and broadband multimedia services at GTE Laboratories in Boston and IBM Research in Hawthorne NY and Milford CT. He received a doctorate in computer science from Washington University in 1991, with dissertation work on the first zero-copy gigabit host--network interface.
He is Senior Member of the IEEE, member of the IEEE Communications and Computer Societies, past chair of the IEEE Communications Society Technical Committee on Gigabit Networking, and been program chair for several Gigabit Networking Workshops (GBN). He is program co-chair of the IFIP International Working Conference on Active Networks (IWAN 2002), chair of the IFIP Protocols for High-Speed Networks International Steering Committee (program co-chair for PfHSN'99). He is a member of a number of ACM SIGs, and was vice-general chair of ACM SIGCOMM'99. He is a member of the Interplanetary Interest Group of the Internet Society. He has been on numerous technical program committees, including IEEE INFOCOM, ICNP, HPCS, HotI, NOSSDAV,and OpenArch, ACM SIGCOMM, and IFIP PfHSN and HPN. He is on the editorial boards of IEEE Network, Computer Networks Journal (North-Holland), and KICS/IEEE Journal of Communications and Networks.
He is principal author of the book High-Speed Networking: A Systematic Approach to High-Bandwidth Low-Latency Communication (Wiley 2001). He is a co-author and presenter of the tutorial "Active Networks." He has given keynote and invited lectures in high-speed and active networking at PfHSN'94, IEE Towards Gigabit Networking, IZS 2002, ANTA 2002, and PfHSN 2002.
TITLE: Mobile Ad Hoc Networking: Medium Access Control and Routing Protocols
SPEAKER: Nitin Vaidya, University of Illinois at Urbana-Champaign <email@example.com>
A mobile ad hoc network is a collection of mobile wireless nodes that can dynamically form a network without necessarily using any pre-existing network infrastructure. In general, routes between nodes in an ad hoc network may include multiple hops. Due to the potential ease of deployment, many practical applications have been conceived for ad hoc networks, including personal area networking, home networking, search-and-rescue operations, and battlefield applications. When designing mobile ad hoc networks, several interesting and difficult problems arise due to shared nature of the wireless medium, limited transmission range of wireless devices, node mobility, and battery limitations. This tutorial will present an overview of issues related to medium access control (MAC) and routing in mobile ad hoc networks. Several techniques proposed to improve performance of MAC and routing protocols will be discussed. The tutorial will include a discussion of approaches for reducing energy consumption by nodes in a mobile ad hoc network.
Nitin Vaidya received Ph.D. from the University of Massachusetts at Amherst. He is presently an Associate Professor of Electrical and Computer Engineering at the University of Illinois at Urbana-Champaign (UIUC). He has held visiting positions at Microsoft Research, Sun Microsystems and the Indian Institute of Technology-Bombay. Prior to joining UIUC, he served as an Associate Professor of Computer Science at the Texas A&M University. His current research is in the areas of wireless networking and mobile computing. In particular, he has performed research on routing and medium access control protocols for wireless ad hoc networks, distributed algorithms on ad hoc networks, performance of TCP over wireless networks, and security in wireless networks. His research has been funded by various agencies, including the National Science Foundation, DARPA, BBN Technologies, Microsoft Research and Sun Microsystems. Nitin Vaidya is a recipient of a CAREER award from the National Science Foundation. Nitin has served on the program committees of several conferences and workshops, and served as the General Chair for the 2001 ACM Symposium on Mobile Ad Hoc Networking and Computing (MobiHoc). He serves on the editorial boards of IEEE Transactions on Mobile Computing and IEEE/ACM Transactions on Networking. He is a senior member of IEEE Computer Society and a member of the ACM. For more information, please visit http://www.crhc.uiuc.edu/~nhv/
Last updated by: Sonia Fahmy