incite overview april 13, 2010 hpc user forum julia c. white, incite manager...

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INCITE Overview April 13, 2010 HPC User Forum Julia C. White, INCITE Manager whitejc@DOEleadershipcomp uting.org

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INCITE OverviewApril 13, 2010

HPC User Forum

Julia C. White, INCITE Manager

[email protected]

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What is INCITE?

Provides awards to academic, government, and industry organizations worldwideneeding large allocations of computer time, supporting resources, and data storage to pursue transformational advances in science and industrial competitiveness.

INCITE: Innovative and Novel Computational Impact on Theory and Experiment

Beginning in 2010, INCITE is jointly run by the ALCF and OLCF, managed by Julia White

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Key challenges Key benefits Computing solutions• Anthropogenic climate

change and global warming concerns drive the need to improve the scientific basis for assessing the potential ecological, economic, and social impacts of climate change

• The goal of decadal prediction requires long-time integrations of models at unprecedented resolutions

• Predicting and simulating the possibility of abrupt climate change on the timescale of decades rather than centuries

• Mitigating deleterious effects of global climate change

• Higher fidelity simulations made possible by petascale computing are improving predictive capability and the ability to realistically represent features such as precipitation patterns and tropical storms

High-resolution climate modelingProviding accurate scenarios of future climate change

Abrupt climate change:Running NCAR’s CCSM3 model, the simulation shows deglaciation during the Bolling-Allerod, Earth’s most recent period of natural global warming

Visualization: Jamison Daniel, ORNL

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Advances in nuclear reactor modelingMaking safe, clean nuclear energy available globally

Key challenges Key benefits Computing solutions• Developing new technologies

that will dramatically expand the availability of safe, clean nuclear energy to help meet the growing global energy demand

• Simulations will enable researchers to gain an understanding of the fundamental thermal mixing phenomena within advanced recycling reactor cores, which can lead to improved safety and economy of these pivotal designs

• Validating the core hydrodynamics large-eddy simulations by comparing highly detailed simulations in similar configurations

• Simulations of coolant flow in a simplified geometry to allow resolving all turbulent motion with no model assumptions

“Computations… are already yielding importantresults in the analysis and understanding ofreactor core flows, including establishment

of turbulent flow entry lengths and subassembly coolant mixing characteristics."

Dr. Paul Fischer, Argonne National Laboratory

Representation of turbulent flow of coolant into a mock-up of the upper plenum of an advanced recycling nuclear reactor. The colors indicate the speed of the fluid.

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High-temperature superconductor designRevolutionary simulations for improved energy transmission

Key challenges Key benefits Computing solutions• Simulations of

high-temperature superconductors to provide a deeper understanding of existing materials and the design of new materials with predetermined properties

• Application of Hubbard model to understand role of inhomogeneties in cuprates—paving the way for higher temperature superconductors

• Research into the nature of materials promises to revolutionize many areas of modern life, from power generation and transmission to transportation and faster, smaller computers and storage devices

• Petascale simulations are increasing the accuracy and fidelity of superconductivity simulations

• Improved understanding will increase nanoscience and nanotechnology capabilities to improve U.S. competitiveness and industrial leadership

Dynamic cluster quantum Monte Carlo simulation of the striped state in the 1/8 doped LaBaCuO high-temperature cuprate superconductor. Consistent with experiments, the simulations show evidence that superconductivity is optimized in this state.

Simulation: Thomas Maier, Gonzalo Alvarez, Mike Summers, ORNL & Thomas Schulthess, ETH Zürich;

Visualization: Jeremy Meredith, ORNL

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Next-generation energy and propulsionFirst proof-of-concept aero and acoustic large-eddy simulation (LES) calculation completed

Key challenges Key benefits Computing solutions• Reduce airfoil trailing edge

noise—a key component in wind turbine noise generation

• Tackle the yield-limiting noise barrier for wind turbines using simulation-based aeroacoustics via large-scale computing

• Quieter and larger blades and a significant increase in the energy yields possible from the wind portion of the world’s renewable portfolio

• Comparisons with available experimental data show that the LES predictions are successful in predicting key flow phenomena

Reducing aerodynamic noise is critical to the viability of next-generation “green” low-carbon/greenhouse gas emission energy systems (e.g., wind turbines)

“As this technology develops, it will accelerate GE's ability to design

quieter and larger blades and significantly increase the energy yields

possible from the wind portion of the world's renewable portfolio."

Dr. Gary Leonard, Global Technology LeaderEnergy and Propulsion Technologies

GE Global Research

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INCITE, 60%

ALCC, 30%

Discretionary, 10%

LCF allocation programsMore than 2.7 billion processor hours

• Annual call for proposals• Award tens of millions

of hours• For projects of high impact

in science, engineering, and computer science that require leadership systems

• Allocated by the ASCR office

• Proposals considered year-round• Award up to millions of hours

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INCITE in its 7th yearExplosive growth in program allocations

More than 1.6 billion processor hours in 2010

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INCITE is open to researchers worldwide from academic, government, and industry organizations

• No designated number of hours for a particular science area

• INCITE looks at all recommendations, focusing on potential for scientific or technological impact, then readiness

Accelerator physics Astrophysics

Chemical sciences

Climate research

Bioenergy

Computer Science

Environmental science

Fusion energy

Life sciences

Materials science Nuclear physics

Engineering

Advancing the state of the art across a range of disciplines

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The INCITE program is typically 2.5× oversubscribed

2007 2008 2009 2010

260606

2,004

3,870

95 268

889

1,600

Hours requestedHours allocated

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Millions of Processor Hours Requested

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INCITE awards have grown in size and number

2004 2005 2006 2007 2008 2009 20100

5

10

15

20

25

0

10

20

30

40

50

60

70

80

1.6M 2.2M1.2M 2.1M

4.8M

13.5M

23.2MAverage processor hoursNumber of projects

Ave

rage

pro

cess

or h

ours

(M) p

er p

roje

ct

Num

ber o

f pro

ject

s

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Plasma Physics

17%

Astrophysics10%

Biological Sciences

9%

Chemistry11%

Computer Science, 3%

Earth Science

12%

Engineering8%

Materials Science

16%

Nuclear Physics

13%

INCITE 2010 awards: 35 new projects and 34 renewal projects41% of new submittals and 83% of renewals 

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2010 project demographics by PI affiliation

DOE38%

Government (non-DOE)

4%

University54%

Industry4%

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Mar Apr May Jun Jul Aug Sept Oct Nov Dec

Call for Proposals (new and renewals) April 14 to June 30

Allocations (through December 2011)

Announcements

ComputationalReadiness Review

Scientific Peer Review

Jan 2011

INCITE 2011: Schedule for proposals

Account processing

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Review process: Computational readiness

• Reviewers: Center staff who are expert in these systems

• Both centers review each proposal

Criteria for new proposals Criteria for renewals

• Appropriateness for requested resources• Appropriateness

of computational approach• Technical readiness

• Met technical and computational milestones

• On track to meet future milestones

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· Reviewers: Domain experts drawn from institutions worldwide

Criteria for new proposals Criteria for renewals

• Scientific and/or technical merit• Appropriateness of proposal method• Team qualifications• Reasonableness of requested resources

• Change in scope• Met technical/scientific milestones• On track to meet future milestones• Impact relative to other proposals

under consideration

Review process: Panel review

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2010 INCITE process changes

• Introduced a feedback step for computational review

• Enhanced program transparency by providing reviewer comments to authors

• Expanded blue-ribbon peer review panel

• Initiated review of renewals

• Engaged ALCF and OLCF management teams and INCITE manager in selection of proposals

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2011 Call for proposals

• Opens April 14th, closes June 30th

• Awards made independently of funding source

• 1.6B processor hours to be allocated for CY 2011

• Average project award to exceed 20M processor hours

• Applicants must present evidence that their proposed production simulations can make effective use of a significant fraction, in most cases 20% or more, of the HPC systems offered for allocation

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Contacts

For details about the INCITE program:

For details about the ALCC program:

http://[email protected]

http://www.er.doe.gov/ascr/Facilities/[email protected]