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Keynote Speakers

Wednesday, August 23
8:45 - 9:45 am
Next Generation Networking for Parallel Systems
Rama K Govindaraju
Distinguished Engineer, IBM Corporation
High Performance Computing Systems.
ABSTRACT
In this discussion, we will start with an outline of high level overview of the
advances in parallel systems architecture as it relates to networking over the
last decade along with current trends. We will discuss some of the fundamental
challenges and choices confronting the industry today with respect to the system
architecture and networking. We will bring to light some of the debates that
have been raging in academia and the industry over the direction for networking,
the protocols, the APIs, onloading/offloading and comment on potential root causes
for the confusion. We will conclude the discussion with a high level sketch of
a vision of where computer networking architecture should be heading and what
the technical challenges are that will need to be addressed to ensure that computers
of the future have the capability to address the next generation of grand challenge
applications.
BIO
Dr. Rama K Govindaraju is currently a Distinguished Engineer at IBM's High Performance
Computing Systems Lab and is responsible for the architecture of all HPC software
components. Dr. Govindaraju is also the lead software person for the IBM PERCS
project which is IBM's initiative in response to the HPCS project. Prior to his
current assignments, Dr. Govindaraju has led the development of four generations
of communications architecture for IBM's high performance computing systems since
1995 and has also held positions as the lead for IBM's UNIX architecture and
design council. Dr. Govindaraju is a master inventor at IBM and is the author
(co-author) of over 20 patents that have been awarded. Dr. Govindaraju is a senior
member of the IEEE.
Dr. Govindaraju received his BE in Computer Science from BIT, Ranchi, in 1988.
Subsequently he received his MS and PhD in Computer Science from RPI, New York,
in 1990 and 1994 respectively. |

Thursday, August 24
8:45 - 9:45 am
Requirements for Programming Modern FPGA Platforms
Ivo Bolsens
Vice President and Chief Technical Officer , Xilinx
ABSTRACT
Modern FPGA platforms have capabilities that are well suited to assume a central
role in the implementation of complex embedded systems. Today the design flow
for FPGA has been largely characterized by a hardware centric approach. We will
argue that there are many additional opportunities for mapping complex applications
to these FPGA platforms. The requirement is the exposure of the high computational
efficiency of FPGAs matched by high bandwidth concurrent memory access and rich
on-chip interconnectivity, combined with complete programmability. These requirements
make FPGAs well suited for efficient implementation of signal processing, packet
processing and high performance computing applications. We will discuss different
domain specific programming environments that rely on flexible and soft template
architectures, represented by API’ s that match the characteristics of
a specific application domain. Next, system design flows compile high level programming
constructs on these soft architectures that efficiently harness the intrinsic
hardware capabilities of the FPGA platform. The soft architecture abstracts the
detailed hardware implementation and facilitates scalable solutions, matching
differently resourced FPGA devices to differing performance and sophistication
requirements for packet processing or signal processing or high performance computing.
This approach leads to a new breadth of system centric programming tools for
FPGAs.
BIO
Ivo Bolsens joined Xilinx in June 2001 as vice president and chief technology
officer (CTO). He is responsible for identifying Xilinx technologies and talent
as well as heading up the Xilinx Research Laboratories, which focus on advanced
research in the area of programmable logic.
Mr. Bolsens came to Xilinx from the Belgium-based research center IMEC, where
he was vice president of information and communication systems. He began there
in 1984, holding various positions of increasing responsibility. His research
included the development of knowledge-based verification for VLSI circuits, design
of digital signal processing applications, and wireless communication terminals.
He also headed the research on design technology for high level synthesis of
DSP hardware, HW/SW co-design and system-on-chip design.
Bolsens earned his master's degree in electrical engineering and his Ph.D. in
applied science from the Catholic University of Leuven in Belgium. He is author
and co-author of more than 100 papers in the field of VLSI design, CAD, embedded
system design, and wireless communication. He is also co-author of the book, "High
Level Synthesis for Real Time Digital Signal Processing." |
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