Application and Technology Driven Platform Design for the Late- and Post-Silicon Era
The mission of the GigaScale Systems Research Center (GSRC) is to address
the research challenges in the design (hardware and software) and
utilization (programming and interfacing) of information system
platforms for consumer/enterprise/defense applications,
to be deployed in the late- and post-silicon era, so as to achieve
orders of magnitude improvement in cost
(design and related NRE, programming) and quality
(lower power, higher functional performance, increased reliability,
increased usability).
The research is driven from above by emerging applications, and from below
by technology trends in materials, devices, fabrication and circuit fabrics,
with the goal of developing cost-efficient platforms through future
technology generations with significant novel functionality so as to
enable whole new application classes.
The center research seeks integrated solutions for:
- Managing cost challenges emerging from increased design and
validation/verification complexity.
- Design and programming of highly concurrent, heterogeneous
platforms while meeting tight power budgets.
- Design for resiliency under diverse threats, including
potentially high-failure rate post-silicon fabrics.
Addressing these challenges requires innovative and disruptive solutions.
By bringing the best minds in US academia (37 faculty from 15 institutions)
together in a collaborative and forward-looking setting, GSRC is uniquely
positioned to deliver some of the answers. Our previous track record has
demonstrated that this model ("not research as usual") is highly effective
in producing ground-breaking results.
GSRC is one of the six centers that are part of the
Focus Center Research Program.
Recent News
Mar 5, 2010 -
GSRC researchers (Bertacco, Austin, and Pellegrini) expose way to zap RSA security scheme
This team recently demonstrated and disclosed a fault-based attack to the very popular RSA authentication algorithm, which they inflicted on the extremely popular OpenSSL software library. Their technique can extract a private key from a system by manipulating the voltage supply. They demonstrated that when a single-bit error occurs in the multiplication of the OpenSSL RSA algorithm, the system leaks 4-bits of the private key to the outside world.
See the article in Network World