cyber-infrastructure developments in south africa: enhancing industrial competitiveness · 2019. 9....

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Cyber-infrastructure developments in South Africa: Enhancing Industrial Competitiveness By Dr. Happy Sithole, CSIR-NICIS

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  • Cyber-infrastructure developments in South Africa: Enhancing Industrial

    Competitiveness

    By Dr. Happy Sithole, CSIR-NICIS

  • Slide #2

    Background

  • Slide #3

    NICIS Model

    • Common services between anytwo entities of NICIS

    • Joint planning is very important

    • Intersection of the three entitiesmost crucial, as defines thesuccess of overall NICIS.

    • Development of cross-cuttingskills internally and within thecommunity

    SANReN DIRISA

    CHPC

    HPDAFast/Secure systems

    Transferring large data

    Mainly large Scale Science projects SKA, CERN, Bioinformatics, 4IR, SADC C.I. Framework, Climate Change

  • Slide #4

    Vision

    The realisation of a vibrant and competitive knowledge basedeconomy impacting socio-economic development by enablingeducation, research, and innovation through shared access toadvanced cyberinfrastructure facilities and services

  • Slide #5

    Mission

    To provide a world class national integrated cyberinfrastructure system thatenables research, innovation and learning comprising a national highperformance computing facility, a national research and education networkand a national data intensive research infrastructure accessible across theresearch and higher education sector through integrated eResearch servicesand the development of relevant human capital.

  • Slide #6

    • Open (FAIR) Data & Open Science • Federated locally and globally

    (“One-stop-shop” catalogue)• Certified as Trusted Repository• Linked to funder systems• Suite of services for RDM and

    data intensive analytics

    40 PB

    2 PB

    Archival data & staging: VM access

    8 PB

    Active data: near real time interactive access

    0.5 PB

    Services & staging between DIRISA and CHPC

    storage systems

    Storage Virtualisation

    Server

    Fast Parallel FS

    1.6 PFLOPSComput

    e6 PB

    Software defined storage hierarchySmall, fast Big, slow

    iRODS

    DIRISA cloud portal

    DIRISA Architecture

  • Slide #7

    NREN Roll-Out

  • Slide #8

    Definitions and Concepts

    The Fourth Industrial Revolution aims to leverage differences between the physical, digital, and

    biological sphere. It integrates cyber-physical systems and the Internet of Things, big data and

    HPC, robotics, artificial-intelligence based systems and additive manufacturing.

    https://ec.europa.eu/digital-single-market/en/cyber-physical-systemshttps://ec.europa.eu/digital-single-market/en/internet-thingshttps://ec.europa.eu/digital-single-market/en/big-datahttps://ec.europa.eu/digital-single-market/en/robotics

  • Slide #9

    FIR Technologies

    The fourth industrial revolution is driven by technological advancement, new

    and emerging technologies and platforms. Some of the technologies to be

    embraced in the era of the fourth industrial revolution:

    • Artificial intelligence and machine learning;

    •Advanced robotocs and new forms of automation;

    •Ubiquitous mobile internet;

    •Sensors and the internet of things;

    •Blockchain and distributed ledgers;

    •3D priniting;

    •New matterials;

    •Genetic advances, bio-engineerng; and

    •Quantum computing.

  • Slide #10

    Digital skills for youth: Opportunities & challenges

    Robots Internet of Things

    AI/ML/DL

    High Performance Data Analytics .e.g DIRISA

    Cloud computingHPC

  • Slide #11

    Under threat New jobs

  • Slide #12

    Are we preparing for the workplace of the future?

  • Slide #13

    Why HPC?

    Experiments and Prototypes

    Virtual Prototypes

    HPCCompetitiveness

    IDEAProduct to Market

    Out-Compete to Out-Compute

  • Slide #14

    Design It

    Build It

    Test It

    Fix It!

  • Slide #15

    Technology Development Continuum

    Theoretical&

    BasicResearch

    Commercialization&

    Production(.com or .org)

    AppliedPrototyping

    &Development

    Optimization&

    Robustification

    HPCBridges the Gap

    BETWEENBasic Research & Commercialization

    Product Life Cycle

    Phase 1Feasibility

    Phase 3Prototyping

    Phase 4Production/Deployment

    Phase 0Concept/

    Vision

    Universities& Labs

    PrivateIndustry

    Application

    Phase 2Design/

    Development

    Over the horizon development …

  • Slide #16

    Pillars of HPC Ecosystem

    Sources include: Heidelberg Collaboratory, Minsker, GMES

    Integrated, Information-Based Decision Making

    Visualization Dashboard

    Information-Based Decisions

    Calibration

    Automated Provenance

    Human, Physical, Virtual Sensors

    …Seamless Computing…

    Archives

    Data Fusion

    ModelingMultimodal

  • Slide #17

    • Uptake of simulation goes beyond traditional Science and Engineering due to the “Big Data Analytics”.

    • High fidelity models required for “Virtual prototyping” improve with compute intensity.

    • Availability of high quality data and more processing power is enabler.

    • Strengths in both domain knowledge and HPC are differentiator.

    CHPC

    Prototypes

    Institutional/Mid-Range Clusters

    Application

    Desktops

    Model Development

    Imp

    rove

    d a

    ccu

    racy

    An

    sw

    ers

    , F

    aste

    r an

    d A

    ccu

    rate

    High Performance Data Analytics Trends

  • Slide #18

    Basics of HPC

  • Slide #19

    Lengau HPC System

    • 496 on TOP500

    • Awarded the fastest supercomputer in Continent

  • Slide #20

    ❑ Graphical Processor Unit (GPU) Cluster: 24 V100’s

    ❑ 6 nodes (36 Intel Gold 6150 CPU’s; 3 V100’s; PCIe)

    ❑ 3 nodes (40 Intel Gold 6150 CPU’s; 4 V100’s; NVLink)

    ❑ Since September 2018

    ❑ Immediate Demand from users:

    ❑ Transfer of Chemistry Users (MD)

    ❑ Resources for Machine Learning (ML)

    ❑ Machine Learning applications optimised – TensorFlow❑ Big Data Analytics Focused

    Machine Learning and AI Applications

  • Slide #21

    % C

    ore

    s in

    Use

    # o

    f Jo

    bs

    Running

    Queued

    19 Jun 2019 18 Jul 2019

    HPC Utilisation

  • Slide #22

    # Research Programmes

    210 Active Programmes

    # Core Hours

    97 million hours

    SA Academic72%

    SA Public Sector14%

    SA Industry5%

    African SKA9%

    SA Academic80%

    SA Public Sector12%

    SA Industry1%

    African SKA7%

    Resource Utilisation

    19 Jan – 18 Jul 2019

  • Slide #23

    Building aerodynamics(ECI-JV)

    Radio-Astronomy Dish Design(University of Stellenbosch)

    High-speed Train Design (UP):

    Elutriator Design (De Beers Marine)

    Computational Mechanics / Engineering

    Centrifugal Steam Compressor(Aerotherm)

  • Slide #24

    ❑ DC Furnace Plasma Arc electric smelting simulations

    ❑ CFD and Magnetohydrodynamics (MHD) simulations

    ❑ Resulted in patent for Mintek on arc detection technology

    ❑ Fully dependent on CHPC for HPC resource requirments

    Mineral Processing Applications

    Cross-section of DC FurnaceShowing Plasma Arc (photo) SimulatedPhotographic Image

  • Slide #25

    eMendi Building Completed in June 2017 at

    Port of Ngqura – https://www.youtube.com/watch?v=EGItgLSO-y4

    ECI-JV: Architecture

    Computational Mechanics / Engineering

    CASE STUDY

    Building aerodynamics (Eastern Cape Infrastructure-JV)

    https://www.youtube.com/watch?v=EGItgLSO-y4

  • Slide #26

    Gas reservoir simulation – Eclipse Software Compositional Benchmark at CHPC

    Sbusiso Mkhize (PetroSA)

    Natural Gas Extraction - PetroSA

  • Slide #27

    Materials ScienceNanoscale Battery technology Simulations at University of Limpopo (UL)

    CASE STUDY

    ❑ CHPC-MMC (Materials Modelling Centre) Collaboration on DLPOLY Scaling

    ❑ 717 703 atom Li11Mn13O32 nano-particle➔ 112 nodes (2688 cores) Scaling

    ❑ 13 000 times speedup achieved on CHPC resources

    Courtesy: Dr Anton Lopis (CHPC)

  • Slide #28

    Drug Discovery

    [3] Scientific Reports, 2015, 5, 11539, doi: 10.1038/srep11539

  • Slide #29

    Dr Thomas Franz and Dr Malebogo Ngoepe (UCT)

    CFD Modelling of

    thrombus

    development in

    Cerebral

    Aneurisms…

    CHPC Staff Support:

    Dr Charles Crosby

    Computational Mechanics / Engineering

  • Slide #30

    • To develop Mouth Dissolving Film (slim thickness) Formulation containing anti-tubercular drugs (e.g. pyrazinamide, isoniazid etc.) for the effective treatment of TB

    Health – TB Drug DevelopmentDr Oluwatoyin Adeleke – Sephako Makgatho University

  • Slide #31

    CHPC-SAWS MoU:

    ❑ CHPC is Fail-Over Facility

    ❑ All SAWS Research done at CHPC

    South African Weather Service (SAWS)

    1st UM forecast which ran operationally on the CHPC in April 2018 (Dr S Landman)

    Direct Collaboration with InstitutionsWhat are CHPC Engagement Models?

    EXAMPLE

  • Slide #32

    Three stage program:

    (1) Winter school: 22 teams

    (2) CHPC National Meeting: 10 Teams

    (3) ISC: 1 Team representing SA

    ISC’15 Runner-Up

    Frankfurt

    ISC’14 Champions

    Leipzig

    ISC’17 2nd Place

    ISC’19 1st Place

    ISC’18 3rd Place

    Student Cluster Competition (SCC)

    Leipzig Frankfurt

    ISC’13 Champions ISC’16 Champions

    Human Capital Development and Training