Supercomputing: Why, What, and Where (are we)?

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Transcription:

Supercomputing: Why, What, and Where (are we)? R. Govindarajan Indian Institute of Science, Bangalore, INDIA govind@serc.iisc.ernet.in (C)RG@SERC,IISc

Why Supercomputer? Third and Fourth Legs RG@SERC,IISc of Scientific Method 2

Supercomputing Applications Computer Simulation Abstract mathematical model mimicking dynamic behavior of components Conditions that cannot be easily or safely applied in real life Cosmic millennium -- Astrophysics Nuclear Reactor Simulation 3

What is a Supercomputer? A hardware and software system that provides close to the maximum performance than can currently be achieved. What was a supercomputer a few (5) years ago, is probably an order of magnitude slower system compared to today s supercomputer system! Therefore, we use the term high performance computing also to refer to Supercomputing! RG-SERC-IISc 4

Era of Supercomputing Introduction of Cray 1 in 1976 ushered era of Supercomputing Shared memory, vector processing Good software environment A few 100 MFLOPS peak Cost about $5 million 1976 Apple1 iphone 2007 RG-SERC-IISc 5

Performance of Supercomputer What are the top 10 or top 500 computers? www.top500.org Updated every 6 months Measured using Rmax of Linpack (solving Ax = b ) What is the trend? Year Performance (GFLOPS) 1,558,000 x Impr.!! #1 ~10,649,600 processors! #500 1993 59.7 0.422 2016 93,014,600 286,100 RG-SERC-IISc 6

Components of a Supercomputer Terascale How building blocks are put together What gives the systems its compute power Connection betn. building blocks Exascale 7

What fuels this growth? Moore s Law: No. of Transistors doubles every 18 months With an associated performance and clock rate improvement Source: Univ. of Wisconsin 8

The TOP 500 (June 2016) Rank Site Manufacturer Computer Country Cores 1 2 3 4 5 National SuperComputer Center in Wux National SuperComputer Center in Tianjin Oak Ridge National Labs Lawrence Livermore Labs RIKEN Advanced Institute for Computational Science NRCPC NUDT Cray Sunway TaihuLight Sunway SW26010, 260C, 1.45 GHz Tianhe-2, NUDT TH MPP, Xeon E5 2691 and Xeon Phi 31S1 Titan Cray XK7, Opteron 6274 (2.2GHz) + NVIDIA Kepler K-20 Rmax [Pflops] Power [MW] China 10,649,600 93.01 15.37 China 3,120,000 33.86 17.80 USA 560,640 17.59 8.20 IBM Sequoia BlueGene/Q USA 1,572,864 17.17 7.89 Fujitsu 6 DOE/SC/ANL IBM 7 DOE/NNSA/ANL Cray 8 Swiss National Supercomputing Cray K Computer SPARC64 VIIIfx 2.0GHz, Tofu Interconnect BlueGene/Q Power BQC 16C/1.6 GHz Trinity Cray XC-40, Xeon E5-2698 16C (2.3GHz) Aries Interconnect PizDaint Cray XC-30, Xeon E5-2670, 8C (2.6GHz) + NVIDIA K20x Top 500 June 2016 List : www.top500.org Japan 705,024 10.51 12.66 USA 786,432 8.58 3.94 USA 301,056 8.10 USA 115,984 6.27 2.32

Top500 By Country India 5 10 systems 10

RG@SERC,IISc 11

Supercomputers: Are they White Elephants? 33.8 PFLOPS 3.12 M Cores 17.8 MW of power 93.0 PFLOPS 10.6 M Cores 15.3 MW of power RG-SERC-IISc 12

Supercomputers: Are they White Elephants? 33.8 PFLOPS 3.12 M Cores 17.8 MW of Huge power Investments Large maintenance & operational expenditure What can we do with them? Are they the worth the investment/ cost? 93.0 PFLOPS 10.6 M Cores 15.3 MW of power RG-SERC-IISc 13

Blue Brain Project RG@SERC,IISc 14

Blue Brain Project Modeling & understanding the brain (biological, physiological, neurological functioning) Comprehensive digital reconstruction to further refine, expand and validate newer models Diagnosing and treating brain diseases Leading to new computing technology, neurobotic and neuromorphic computing RG@SERC,IISc 15

Large Hadron Collider Higgs Boson World LHC Compute Grid Several 100,000 Cores, distributed across the world Petabytes to exabytes of Data to be analysed and stored RG@SERC,IISc 16

Large Hadron Collider Higgs Boson Simulated Large Hadron Collider CMS particle World LHC Compute Grid detector data depicting a Higgs boson produced by colliding Several protons 100,000 decaying Cores, into distributed hadron jets and across the world electrons Petabytes to exabytes of Data to be analysed and stored RG@SERC,IISc 17

Societal Impact of Supercomputing Cyclone 05B : Oct. 25, 1999 Category 5 (Extremely Severe) 10,000+ deaths Cyclone Hudhud: Oct.12, 2014 Category 4 (Extremely Severe) 124 deaths 18

Societal Impact of Supercomputing Cyclone 05B : Oct. 25, 1999 Category 5 (Extremely Severe) 10,000+ deaths Cyclone Hudhud: Oct.12, 2014 Category 4 (Extremely Severe) 124 deaths 19

Open Source Drug Discovery OSDD is open innovation translational research platform for both computational and experimental technologies Targets drugs for diseases like Tuberculosis, Malaria, etc. RG@SERC,IISc 20

National Supercomputing Mission RG@SERC,IISc 21

NSM Objectives Multi-tiered HPC Infrastructure Development of HPC applications HPC-aware Manpower Development Next generation R & D on HPC Systems Implementing agencies : IISc and C-DAC SERC will play a major role in NSM 22

NSM Architecture NKN 23

Supercomputing Systems & Applications are Challenging! RG@SERC,IISc 24

Supercomputing Systems & Applications are Challenging! Cosmic millennium -Astrophysics Climate and Weather Modeling Computational Fluid Dynamics RG@SERC,IISc 25

Supercomputing Systems & Applicatios are Challenging! RG@SERC,IISc 26