WORKSHOP on UNIQUE CHIPS and SYSTEMS (UCAS-4)
To be held in conjunction with IEEE International Symposium on Performance Analysis of Systems and Software (ISPASS08)
April 20, 2008
Austin, Texas, USA
ADVANCE PROGRAM
9:15
- 9:45
Registration
9:45
- 10:00 Welcome
10:00 - 11:00 Keynote: Dynamic Synthesis for Processor Overlays
Doug Burger, Department of Computer Science, University of Texas at Austin
11:00
- 12:00 Session
1:
·
A Vacuum Microelectronic Freespace Crossbar
Michel Victor, Aris
Silzars, Exaconnect Inc. and Edward Davidson, University of Michigan
·
The Architecture of an Extended Analog Computer Core
Jonathan Mills, Indiana University
12:00
- 1:30 Lunch
1:30
- 3:00 Session 2:
·
Optimizing Issue Queue Reliability to
Soft Error on Simultaneous Multithread Architectures
Xin Fu, Wangyuan Zhang, Tao Li, Jose
Fortes, University of Florida
·
Performance Analysis of Multiple
Threads/Cores Using the UltraSPARC T1 –D
·
An Early Performance
Evaluation of the SiCortex SC648
Kevin J. Baker, Kei Davis, Darren J. Kerbyson, Mike Lang, Scott Pakin and Jose Carlos Sancho; Los Alamos National Laboratory
3:00 - 3:30
Break
3:30 - 5:00 Session
3:
·
Distributed Test Vector Storage for
Safety-Critical NoC-based Systems
·
·
A Micro-Architectural Power-Saving
Technique for D-NUCA Caches
Keynote: Dynamic Synthesis for Processor Overlays
Doug Burger, Department of Computer Science, University of Texas at Austin
Abstract
Future
processors must exploit parallelism without undue programmer
complexity, be power efficient, tolerate process variance, and be
amenable to heavy distribution on chip. In this talk, I will
introduce a new extension of our recent Composable Processors work,
called Processor
Overlays. The central idea is to create virtual processors out of a
technique termed Dynamic Synthesis, which aggregates distributed
microarchitectural structures together to form highly configurable
processors that are a good topologic match to the software workloads.
While this particular implementation relies on an EDGE instruction
set, it will work with any implementation that provides an low
rate of control points, such as register renaming and branch
predictions.
Bio:
Doug Burger
is an Associate Professor at the University of Texas at
Austin. Starting in May, he will direct the new Computer Architecture
group at Microsoft Research. He received his B.S. in Computer Science
from Yale University and his M.S. and Ph.D. from the University of
Wisconsin-Madison. His research interests include computer
architecture, supercomputing, compiler design and implementation, as
well as the implications of novel computing technologies. He co-led
the TRIPS project at UT-Austin, which recently completed building a
full system prototype of a scalable, tile-based out-of-order processor
design. He received the ACM Maurice Wilkes Award in 2006 for his work
in novel, technology scalable microarchitures, including EDGE
instruction sets and Non-Uniform Cache Architectures (NUCA caches).
He is a Senior Member of ACM and IEEE, and is Chair of ACM SIGARCH.