TGQR 2010Q4 Report.pdf - Teragridforum.org

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10.10 International Collaborations ....................................................................................... 133 10.11 Broader Impacts ......................................................................................................... 135 11 Project Management .................................................................................................... 136 11.1 Highlights ................................................................................................................... 136 11.2 Project Management Working Group ........................................................................ 136 12 Science Advisory Board Interactions.......................................................................... 136 13 Collaborations with Non-TeraGrid Institutions ........................................................ 136 13.1 Data Systems .............................................................................................................. 136 13.2 Science Projects ......................................................................................................... 136 14 TeraGrid/Open Science Grid (OSG) Joint Activity .................................................. 137 14.1 ExTENCI ................................................................................................................... 137 vi
1 Overview The TeraGrid is an open cyberinfrastructure that enables and supports leading-edge scientific discovery and promotes science and technology education. The TeraGrid comprises supercomputing and massive storage systems, visualization resources, data collections, and science gateways, connected by high-bandwidth networks integrated by coordinated policies and operations, and supported by computational science and technology experts,. TeraGrid’s objectives are accomplished via a three-pronged strategy: to support the most advanced computational science in multiple domains (deep impact), to empower new communities of users (wide impact), and to provide resources and services that can be extended to a broader cyberinfrastructure (open infrastructure). This “deep, wide, and open” strategy guides the development, deployment, operations, and support activities to ensure maximum impact on science research and education across communities. 1.1 Scope TeraGrid is an integrated, national-scale computational science infrastructure operated in a partnership comprising the Grid Infrastructure Group (GIG), eleven Resource Provider (RP) institutions, and six Software Integration partners, with funding from the National Science Foundation’s (NSF) Office of Cyberinfrastructure (OCI). Initially created as the Distributed Terascale Facility through a Major Research Equipment (MRE) award in 2001, the TeraGrid began providing production computing, storage, and visualization services to the national community in October 2004. In August 2005, NSF funded a five-year program to operate, enhance, and expand the capacity and capabilities of the TeraGrid to meet the growing needs of the science and engineering community through 2010, and then extended the TeraGrid an additional year into 2011 to provide an extended planning phase in preparation for TeraGrid Phase III eXtreme Digital (XD). Accomplishing this vision is crucial for the advancement of many areas of scientific discovery, ensuring US scientific leadership, and increasingly, for addressing important societal issues. TeraGrid achieves its purpose and fulfills its mission through a three-pronged strategy: Deep: ensure profound impact for the most experienced users, through provision of the most powerful computational resources and advanced computational expertise; Wide: enable scientific discovery by broader and more diverse communities of researchers and educators who can leverage TeraGrid’s high-end resources, portals and science gateways; and Open: facilitate simple integration with the broader cyberinfrastructure through the use of open interfaces, partnerships with other grids, and collaborations with other science research groups delivering and supporting open cyberinfrastructure facilities. The TeraGrid’s deep goal is to enable transformational scientific discovery through leadership in HPC for high-end computational research. The TeraGrid is designed to enable high-end science utilizing powerful supercomputing systems and high-end resources for the data analysis, visualization, management, storage, and transfer capabilities required by large-scale simulation and analysis. All of this requires an increasingly diverse set of leadership-class resources and services, and deep intellectual expertise in the application of advanced computing technologies. The TeraGrid’s wide goal is to increase the overall impact of TeraGrid’s advanced computational resources to larger and more diverse research and education communities through user interfaces and portals, domain specific gateways, and enhanced support that 7
Page 1 and 2: NSF Extensible Terascale Facility T
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Page 11 and 12: 2 Science and Engineering Highlight
Page 13 and 14: and that they will be able to deter
Page 15 and 16: Enhancements in photocurrent have b
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Page 27 and 28: service. In addition to GRAM5, we a
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The team also mentioned that they h
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the makefile for compiling the sour
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Implement test cases for MPI based
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User news was posted to inform the
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authentication infrastructures. Wit
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6.5 RP Operations: Accounting/Core
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Note that the total repository of T
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From an analysis of the hits for wh
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7.2 Data 7.2.1 Data Movement contin
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historical time series of average p
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on a demonstration that took place
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NCSA's SGI Altix UV system, Ember,
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8.5.2 Job Submission (GRAM) Statist
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8.7 Security 8.7.1 Security Working
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8.8.4 PSC During October, the PSC s
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Figure 8-8. TeraGrid Usage Summary
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Arun Yethiraj, U Wisconsin-Madison
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Institution Users NUs BRI City of H
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4. Review Suggested Keywords - TIS
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YNT publications are intended for u
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In response to feedback from the Sc
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Figure 2. XDMoD Portal The 9 Naviga
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Figure 5. Total number of TG jobs r
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Figure 8. Total CPU Consumption per
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Figure 10: XDMoD data warehouse sch
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Figure 12. AMBER-based application
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Dr. Ann Zimmerman of the University
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• Personal utilization informatio
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2) Given the emergence of Green tec
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supercomputers were a huge draw for
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sciences by enabling and stimulatin
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The TeraGrid booth showcased group
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10.2 EOT Impact Stories Indiana IU
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The Ranger system at the Texas Adva
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conference to assess their level of
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Also at SC10 Rebecca Day, a teacher
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NCAR For the first time, SIParCS ou
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communicates TeraGrid’s impact. L
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10/18/2010: TeraGrid Partner SDSC M
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10.11 Broader Impacts LONI As part
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14 TeraGrid/Open Science Grid (OSG)
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• Task I2.1 (Run RAPTOR-OOPS work
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22. Chourasia, A. 2010. GlyphSea. I
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A.2. Publications from TeraGrid Use
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30. Tchekhovskoy, A., Narayan, R.,
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70. P. M. Motl, J. E. Tohline & J.
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114. Krolik:Invited talk “Connect
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142. Houston, A. L. and R. B. Wilhe
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175. VAN POPPEL, B., DESJARDINS, O.
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208. J B. Clemens, E. A. Chagarov,
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238. M.H. Alkordi, A.C. Stern, J.L.
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DMR050002 272. Unusual dielectric r
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306. J. Lind, R.M. Suter, “3DXRD
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348. T.-L. Chan, J.R. Chelikowsky,
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383. A. Szyperska, J. Rak, J. Leszc
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416. Armstrong, B. D.; Soto, P.; Sh
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446. S. A. Shaikh and E. Tajkhorshi
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483. Jérôme Hénin, Grace Bran
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MCB070009 521. J. Lee, S. Ham, and
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555. Lintao Bu, G.T. Beckham, M.R.
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Physics MCA06N025 587. “Nuclear P
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614. Scaling studies of QCD with th
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PHY060028 645. M. Campanelli, C. O.
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Astronomical Sciences AST060031 7.
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47. Reynolds, D. R., Hayes, J. C.,
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February 17. 91. Liang, X.-Z., 2010
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123. J.C. Fox, A. Gupta, H.H. Bayra
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166. Bernard,P.S.,Collins,J.P.andPo
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Noncolloidal Suspensions,” 7 th I
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249. V.A. Shubert, C.W. Muller and
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Motion Simulations in the Central U
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331. L.K. Wagner and J.C. Grossman.
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377. Lawrenz, M., Wereszczynski, J.
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423. C. Maffeo, R. Schopflin, H. Br
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463. Zhong, L., Walker, R.C., Brady
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513. McWilliams, J. C., and M. J. M
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557. Strong-Field Ionization of Lit
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613. F. Foucart, M. D. Duez, L. E.
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Seminar What is Cyberinfrastructure
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P Tour Tech 104 IUPUI, Indianap oli
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Online Tutorial Parallel Numerical
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Type Title Location Date(s) Hours N
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the Classroom Conf. Present‟n Fro
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m; San Diego, CA Workshop (Teachers
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Tour Ranger Tour and Cluster Manage
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Presentation Presentation Extreme-S
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Work Package Dependencies Planned Q
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SI.MTS 2.5.10.2 P Metascheduling ca
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Project-ID WBS OPMD TeraGrid AUS PY
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Project-ID WBS OPMD Description Ter
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Work Package Dependencies Planned R
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Work Package Dependencies Planned R
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DV.DC.RP.TACC 3.0.1.22 O TACC RP Da
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Bennett[30%], ongoing NOS.Sec.RP.PS
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NOS.INCA 4.4.3.3 P knowledgbase lin
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QSR 2010Q4 Report Values QSR 2010Q3
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QSR 2010Q4 Report Values QSR 2010Q3
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Among the participants were sixty g
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the talks should address less on th
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Appendix A - Summer School Agenda M
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Appendix B - Attendees, Staff and P
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Staff and Presenters Ferrer Annika
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