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Wednesday, May 1, 2013 - 11:00am - 12:00pm
H.F. DeLuca Forum, Wisconsin Institutes for Discovery, 330 N. Orchard St.

It is often feared that the growing frequency of hardware errors will be a major obstacle to the deployment of exascale systems. The Department of Energy held several workshops to study this issue, including a week-long workshop organized by the Institute for Computing Sciences. This workshop brought together leading researchers in circuits, architecture, operating systems and applications. The workshop produced a report that indicates possible scenarios for handling resilience at exascale and required research to achieve progress in this area. Snir will discuss this report, indicating the questions it raises and research directions it identifies.


Marc Snir is Director of the Mathematics and Computer Science Division at the Argonne National Laboratory and Michael Faiman and Saburo Muroga Professor in the Department of Computer Science at the University of Illinois at Urbana-Champaign. He currently pursues research in parallel computing.

He was head of the Computer Science Department from 2001 to 2007. Until 2001 he was a senior manager at the IBM T. J. Watson Research Center where he led the Scalable Parallel Systems research group that was responsible for major contributions to the IBM SP scalable parallel system and to the IBM Blue Gene system.

Marc Snir received a Ph.D. in Mathematics from the Hebrew University of Jerusalem in 1979, worked at NYU on the NYU Ultracomputer project in 1980-1982, and was at the Hebrew University of Jerusalem in 1982-1986, before joining IBM. Marc Snir was a major contributor to the design of the Message Passing Interface. He has published numerous papers and given many presentations on computational complexity, parallel algorithms, parallel architectures, interconnection networks, parallel languages and libraries and parallel programming environments.

Marc is Argonne Distinguished Fellow, AAAS Fellow, ACM Fellow and IEEE Fellow. He has Erdos number 2 and is a mathematical descendant of Jacques Salomon Hadamard.


Hosted by the Center for High Throughput Computing

Wednesday, May 1, 2013 - 4:00pm - 5:00pm
1240 CS

Modern datacenters that host large-scale Internet services are extremely expensive to construct and operate. Improving software performance and server utilization is key to improving the efficiency and reducing the enormous cost in datacenters. In this talk, I present novel compilation techniques and runtime systems to significantly improve performance, quality of service (QoS) and machine utilization in datacenters by effectively mitigating memory resource contention on modern multicore servers.

Specifically, this talk presents: 1) comprehensive characterization of the impact of memory resource sharing on industry-strength large-scale datacenter workloads and the design of runtime systems to intelligently map application threads to cores to promote positive resource sharing and mitigate resource contention to improve application performance; 2) the design of novel compilation techniques and run-time systems that statically and dynamically manipulate applications’ contentious nature to enable the co-location of applications with varying QoS requirements, and as a result, greatly improve server utilization in data centers.

Wednesday, May 1, 2013 - 4:30pm - 5:00pm
H.F. DeLuca Forum, Wisconsin Institutes for Discovery, 330 N. Orchard St.

What happens when scientists and researchers are no longer limited by fixed-size compute and data capacity? Better, faster science. From small research labs to start-ups to Fortune 500s, the combination of HTCondor and Utility HPC is making impossible science possible in Life Sciences. This session explores how organizations are running large-scale high performance computing (HPC) workloads, using CycleCloud and HTCondor with lessons learned from several real-world examples in Genomics, Molecular Modeling, Simulation, Proteomics and many more.


Jason Stowe, CEO at Cycle Computing

Jason Stowe is a seasoned entrepreneur, and the founder and CEO of Cycle Computing, the leader in Utility HPC and Utility Supercomputing Software. Cycle delivers proven, secure and flexible high performance computing (HPC) and data solutions since 2005. Cycle Computing products help clients maximize internal infrastructure and increase power as research demands, like the 10000-core cluster for Genentech, the 30000+ core cluster for a Top 5 Pharma and 50,000+ core cluster for Schrodinger that were covered in the NY Times, Wall Street Journal, Wired, BusinessWeek, Bio-IT World and Forbes. Starting with three initial Fortune 100 clients, Cycle has grown to deploy proven implementations at Fortune 500s, SMBs and government and academic institutions including JP Morgan Chase, The Hartford Insurance Group, Johnson & Johnson, Purdue University, Pfizer and Lockheed Martin. Jason attended Carnegie Mellon and Cornell Universities, and volunteered/guest lectured for the Entrepreneurship program at Cornell's Johnson Business School

Thursday, May 2, 2013 - 4:00pm - 5:00pm
Computer Sciences 1240

"Sensemaking for Mobile Health," explores the possibilities of using data
from mobile electronic devices to monitor and manage health care.

Speaker Bio:
Deborah Estrin is currently on leave from her position as a Professor of Computer Science with a joint appointment in Electrical Engineering at UCLA, where she held the Jon Postel Chair in Computer Networks, and was Founding Director of the NSF-funded Center for Embedded Networked Sensing (CENS, 2001-2012). She has accepted a faculty position with the Computer Science Department at the new Cornell Tech campus in New York City, http://tech.cornell.edu. Estrin received her Ph.D. (1985) in Computer Science from the Massachusetts Institute of Technology, and her B.S. (1980) from U.C. Berkeley.

Estrin’s early research (conducted while on the Computer Science Department faculty at USC and the USC Information Sciences Institute) focused on the design of network and routing protocols for very large, global, networks, including: multicast routing protocols, self-configuring protocol mechanisms for scalability and robustness, and tools and methods for designing and studying large scale networks. In the late 90’s Professor Estrin began her work in embedded networked sensing systems, with emphasis on environmental monitoring applications. Most recently her work focuses on participatory sensing systems, leveraging the location, activity, image, and user-contributed data streams increasingly available from mobile phones. Ongoing projects include Participatory Sensing for civic engagement and STEM education (http://mobilizingcs.org), and self-monitoring applications in support of health and wellness (http://openmhealth.org).