riken’s peta-scale supercomputer project and grand challenges … · 2008-06-25 · riken’s...
TRANSCRIPT
Ryutaro Himeno
RIKEN’s Peta-scale Supercomputer Project and Grand Challenges in Life Science
1) Group Director of R&D group, NGS R&D Center
2) Deputy Program Director for Computational Science
3) Director of Advance Center for Computer &
Communication
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RIKEN Next-Generation Supercomputer R&D Center
Contents
1. The status of 10 Peta FLOPS supercomputer development project
2. Introduction of the Grand Challenge in Life Science in the supercomputer project
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RIKEN Next-Generation Supercomputer R&D Center
Policy and Outline of A Next Generation Supercomputer Project
Purpose of policy:development, installation and application of an advanced high performance supercomputer system, as one of Japan’s “Key Technologies of National Importance”
Total Budget: about 115 billion Yen ( 1.0 billion US dollars )
Period of Project: FY2006 – FY2012
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Formation of the 10 Peta R&D Project
Evaluation Scheme
EvaluationCommittees
Industries
Industrial Forumfor Promotion
of Supercomputing
R&D Scheme
Advisory
Board
Computer Companies
RIKEN: Project HQNext-Generation
Supercomputer R&D Center (Ryoji Noyori)
NII: Grid Middleware and Infrastructure
IMS: Nano Science Simulation
Riken Wako Institute: Life Science Simulation
(Note) NII: National Institute of Informatics, IMS: Institute for Molecular Science
Project Leader: Tadashi Watanabe
MEXT: Policy & FundingOffice for Supercomputer Development Planning
Project Committee
(MEXT and CSTP)
Visiting Researchers from Univ. & National Labs.
R&D G.: Ryutaro Himeno
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RIKEN Next-Generation Supercomputer R&D Center
Goals of the Next Generation Supercomputer Project
1. Development and installation of the most advanced
high performance supercomputer system
2. Development and wide use of application software to
utilize the supercomputer to the maximum extent
3. Provision of flexible computing environment by sharing
the next generation supercomputer through connection
with other supercomputers located at universities and
research institutes
4. Establishment of “Advanced Computational Science
and Technology Center (tentative name)”
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Investigation
Enhancement
Geographical investigation,Construction
Design Construction
File Systems and others
Design Production
Enhancement
Hardware
Basic Design Detail Design Production
Grand ChallengeApplication Software
Next Generation Nano-Science Simulation,Design & Production Evaluation
Next Generation Life Science Simulation, Design & Production Evaluation
System Software
GRID middleware Design & Production Evaluation
Software
FY 2006 2007 2008 2009 2010 2011 2012
Full Operation ★
Operation
R&DStart Operation ★
Current Schedule
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Optimization of Computer Design
Technology LimitSpin off to the consumer electronics
Other Project Watch
Requirement from Grand Challenges
Nano Sci. Life Sci. Others(Engineering etc)
Technology Survey
LSI process
Power savvingSOI
Low-kHigh-k
Light transmit.tech.
SoftwareOS, compiler///
FMO
RISM
MO
Popular numerical scheme
Linear Solver
FVM
FEM
Requirement from Computer Centers
0
200
400
600
800
1000
1200
1400
0 500 1000 1500 2000 2500 3000 3500
電力(kW)
設置
面積
(㎡
)
Power, Space
Reliability, operability
Cost (development, manufacturing, maintenance
Computer center in Japan
Optimum system
Fastest in the world
Operation & Utilization
Essential Element technologies
Real space density function
method
Fast transform
Monte Carlo
Searching algorism
Life Science(6)
Engineering.(4)
Env./ Desasterprev. (3)
Nano Science(6)
Physics, Astro.(2)
21 Selected Target applications
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Target applications and BM suitThe application software committee started selecting target applications for making a benchmark suit in January, 2006.
21 codes were selected in March and NextBMT suit was developed.
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NextBMT and Peta-scale BMT(1/2)
Coarse-Grained Molecular Dynamics CalculationOcta
First-Principles Molecular Dynamics Simulation within the Plane-Wave Pseudopotential formalismPHASE
Analysis of Electron States of Proteins in Solution with the 3D-RISM/FMO MethodRISM/3D-RISM
Ab-initio Molecular Dynamics Calculation in Real SpaceRSDFT
Massively-parallel multipurpose software for molecular dynamics calculationModylas
FMO Molecular Orbital CalculationGAMESS/FMO
Nono(6)
Ab-initio Molecular Dynamics Calculation in Large-Scale Protein SystemsProteinDF
Docking simulation of protein and drugsievgene/myPresto
Simulation for blood-flow analysisMC-Bflow
Validation of statistical significance for development of individualized medicineMLTest
Inference of Genetic Networks from Experimental Data of Gene ExpressionGNISC
Prediction of Protein StructureSimFold
Life (6)
DescriptionProgram nameFields
Peta-scale BMT
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NextBMT and Peta-scale BMT(2/2)
Unsteady Flow Analysis based on Large Eddy Simulation (LES)FrontFlow/Blue
Structural Calculation by Finite Element Method (FEM)FrontSTR
Computation of compressible fluid in aircraft and spacecraft analysisLANS
Computation of Unsteady Cavitation Flow by the Finite Difference MethodCavitation
Engineering(4)
Super-resolution Ocean General Circulation ModelCOCO
Simulation of Seismic-Wave Propagation and Strong Ground MotionsSeism3D
Nonhydrostatic ICosahedral Atmospheric Model (NICAM) for Global-Cloud Resolving Simulations
NICAM
Geophysics (3)
Super large-scale gravitational many-body simulation for finding the celestial origin
NINJA/ASURA
Study of elementary particle and nuclear physics based on Lattice QCD simulation
LatticeQCDPhysics
Astronomy(2)
Peta-scale BMT
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Approval of the Basic Design of Supercomputer System by MEXT
The committee set up by MEXT accepted the following:
3. Fujitsu, Hitachi and NEC join the project as the system developers.
1. The hardware system consists of scalar and vector processor units.
2. The target performance of LinpackBMT is 10 Peta FLOPS.
Scalar Unit Vector Unit
Shared File System Local FileSystem
Local FileSystem
Frontend Unit
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Vector unit is suitable for continuum physics simulationScalar unit is suitable for Data Base application, perticle-based simulationHybrid system has both strong points for users to choose better units for different
applications
Scalar UnitData base, homology searchSimilarity with PC
• high speed low power CPU
• New strong network for enormous parallelism
Vector UnitVector processor based on the Earth Simulatorstrong for continuum physics simulation
• New generation low-power vector processor with optical network
Hybrid Supercomputer System composed of Scalar and Vector Units
Front end computer(Integrated OS)
Scalar Unit Vector Unit
共有ファイル
Nono device
Local fileGlobal file
Control unitProcessing unit
Local file
Disk unit
Solar cell
Plazma Physics
Climate change CFD
- -e-e-I3-
I -
Characteristics
Homology search
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Major Applications of Next Generation Supercomputer
Targeted as grand challenges
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Basic Concept for Simulations in Nano-Science
Institute for Molecular Science is leading this
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Basic Concept for Simulations in Life Sciences
GenesGenes
Vascular Vascular SystemSystem
OrganismOrganismOrganOrgan
TissueTissueCellCell
ProteinProtein
GenomeGenomeGenome
Bio-MDBioBio--MDMD
Tissue StructureTissue Tissue
StructureStructureMulti-physicsMultiMulti--physicsphysics
ChemicalProcess
ChemicalChemicalProcessProcess
Blood Circulation
Blood Blood CirculationCirculation
DDSDDSDDS
Gene TherapyGene TherapyGene Therapy
HIFUHIFUHIFU
Micro-machineMicroMicro--machinemachine
CatheterCatheterCatheter
Micro
MesoMacro
Under total combination of Under total combination of simulation physics simulation physics ……
http://ridge.icu.ac.jp
http://info.med.vale.edu/
RIKEN
RIKEN
RIKEN is leending this
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Total Simulation of Living Matter
GoalUnderstand the life phenomena: reproducing life program on computerDevelop new medicine and medical equipment
Approachcombination of analytical approach and Data-driven approach on Peta-scale computer Data-Based
approach to analysisAnalytical
approach
Molecule scale
Cell scale
Organ/Whole body scale
Basic principal (Equations)
Experimental data
New methodology
•Understand the life phenomena: reproducing life program on computer•Develop new medicine and medical equipment
Fusion of Data based approach and Anaytical approach
Peta scale simulation
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RIKEN Next-Generation Supercomputer R&D Center
MoleculeMolecule--Scale ResearchScale Research
ObjectivesObjectivesSimulating protein function in life Simulating protein function in life phenomena to reveal important phenomena to reveal important subjects in molecular and cell biologysubjects in molecular and cell biology
Method for the MoleculeMethod for the Molecule--Scale Research: Combination of the following three modelsScale Research: Combination of the following three models
Quantum ChemistryQuantum Chemistry Molecular DynamicsMolecular Dynamics Coarse Grained Model.Coarse Grained Model.
Amino acid as fundamental degrees of freedomAmino acid as fundamental degrees of freedomEmpirical potential obtained from databaseEmpirical potential obtained from database
Smaller size, shorter time, Smaller size, shorter time, and greater accuracyand greater accuracy
Larger size, longer time, Larger size, longer time, and less accuracyand less accuracy
AbAb--initio calculationinitio calculation Calc. of molecular force fieldCalc. of molecular force field
Example: Example: PhosphorylPhosphoryl transfer reaction of transfer reaction of adenylicadenylic asidasid kinasekinase
ATPATP
AMPAMP
((11)) BondingBonding
((22)) Structure changeStructure change
((33)) Chemical reactionChemical reaction
ADPADP xx 22
Dynamics of moleculesDynamics of molecules
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Diffusion coefficientVelocity of matter Organelle velocity vector Metabolic pathway
LeverHepatocyte
Erythrocyte
Pancreatic cell
Cardiac muscle cell
Blood disc
Pancreas
Heart
Differentiated cell m
odel
Cell membrane
Ion channel
Aquaporin
Mitochondria
Local simulation
Fundamental research forcell model construction
Realization of integrated simulationin the intracellular coordinate system
Construction of a differentiated cell modelExtension of each program
Coupled analysis of various simulation
Support of integrated simulation
Live cell model
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Organ/WholeOrgan/Whole body simulationbody simulation
Medical images Whole bodyLocal precise model
Cerebral artery model
Eyeball model
Leg model
coronal
Blood tubebloodmuscle
Stress-strain
Muscle force
velocity
Multi physics model
Surface modelWhole body voxel model
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Planned simulation based on precise Human model
and more….
Ex) Ultrasound propagation simulation for HIFU
By Prof. Hisada and Prof. Sugiura
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Overview of data analysis researchFusion of large-scale heterogeneous data analysis and life-science simulation
Exponential increase of experimental data- Higher dimensions: from gene to exon- Heterogeneity: array, structure, dynamics,…- Invisibility: deficit of information
Expected outcome- Order-made medicine and therapy based on optimized peta-scale data analysis- Peta-scale analysis of gene network for drug target discovery and validation
Modeling of functionsPeta-scale data-analysis
・Fusion of simulation models and experimental data based on data assimilation
- Automation of large-scale modeling- Information technology for fusion of
simulation and data analysis
Data-driven large-scale
simulation technology
PPARα1049 genes
In-silico analysis of drug-target gene
Estimation of gene network
Peta scale computing
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Grand Challenge Goal
Molecular scale
Each software development
Common software platform and optimization
GUI / Workflow Easy to use from user’s point of view
Common libraries + Core software
Support to derive higher performance
Software family optimized for the supercomputer
Improve software for commercial use
Academic and industrial usage
Software house
Improve by ourselves
others
Support to utilize developed codes
Feedback after applying real phenomena
HPC Team for development of common software platform and HPC Team for development of common software platform and optimization on the new supercomputeroptimization on the new supercomputer
Cell scaleOrgan / whole body
Data-Analysis
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CACST: Center for Advanced Computational Science and Technology (tentative name)
Computer science and Computational scienceBoth researchers will gather and expect to develop new research fields and methodologiesCurrently, we are designing the center and operation policy of the supercomputer
The users will be chosen by a new committee independent from RIKEN to pick up valuable subjects
Kobe Port-Island
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RIKEN Next-Generation Supercomputer R&D Center
COEセ
ンター
Nono
Astro
Nuclear
Life
Geo
Eng.
Physics
Meteology
CACSTIndustrial use
Computer Science
Tentative our Plan of the center
Hub of the Computer Science and Computational Science in Japan and Asia.
Cross point of various sciences and technologies using HPCOperation of 10-Peta FLOPS SupercomputerUser support and spreading the usage in various fieldDevelopment of the next-next supercomputerResearch on computational science Education
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RIKEN Next-Generation Supercomputer R&D Center
Facilities
Computer Wing Research Wing
Computer WingTotal Floor Area:17,500m2
Area of one floor: 6,300m2
4 Floors (1 underground floor)
Research WingTotal floor area: 8,500m2
Area of 1floor: 1,900m2
7 floors (1 underground floor)(cafeteria is planned on the 6th floor)
Construction: started in March, 2008 and will complete in May, 2010
Image sketch
Other FacilitiesCo-generation SystemWater chiller systemElectric Subsystem
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RIKEN Next-Generation Supercomputer R&D Center
SummaryThis project is a key for Japan to keep capability of developing supercomputer and supercomputing in application.The supercomputer will be completed in March, 2012 with more than 1 PFLOPS effective performance and serve as a national infrastructureWe made a benchmark suit with 21 application software and evaluate system performance of proposed designs.We fixed the basic design in 2007and are in a progress of detailed design.Focused application areas: Nano and Life sciencesApplication development of Nano science is lead by Molecular Science Institute, Life Science by Wako Institute, RIKENNew center for advanced computational science and technology is being planed and its building construction startedThe life science application currently includes,
Molecular scale simulationCell scale simulationOrgan/whole body simulationData analysis researchHPC team
We are quite open and welcome any idea and corroboration
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RIKEN Next-Generation Supercomputer R&D Center