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KMD, PL-GRID PLATON Grid Infrastructure IntegrationIntegration ofof nationalnational andand EuropeanEuropean ee--InfrastructureInfrastructure Norbert Meyer On behalf of PIONIER Consortium Grids and e-Science workshop June 17th, 2009, Santander 15th years of Polish e‐Infrastructure for Science • 1993 –starting academic MANs (FDDI) • 1995 – MANs’ transition to ATM • 1997 – POL‐34, 155, 622 • 2000 –PIONIER take‐of • 2001 – dark fiber deployment • 2003 – 10GE • 2004 –multi‐lambda • 2006 – PIONIER2 strategy • 2008 – PLATON, PL‐GRID 21 ACADEMIC METROPOLITAN AREA NETWORKS • Area 320k sq km • Population 38M • Main academic centers 21 • State universities 120+ • Students 2M+ • R&D institutions and Univ. interconnected via PIONIER network 700+ MAN MAN & HPC Center What PIONIER is all about • developing country wide optical infrastructure based on the academic community ownership model • setting up national optical networks interconnecting on separate AS: 21 MANs, 5 HPCCs • extending optical reach to expensive and uniq national labs • grid technology as a main tool to integrate distributed R&D resources • portal as a main service delivery platform • broadband IP based services development • international co‐operation enabling and stimulating This was not that obvious in 1999, as is today… How PIONIER is organized: • PIONIER is a consortium of 22 academic MANs and HPCCs • PIONIER is supervised by PIONIER Board consisting of 22 representatives • PIONIER is managed by PIONIER Executive consisting of 4 people • PIONIER network is financed from the member fee • member fee is based on the cost sharing model • each year PIONIER Board take a decision about the framework and parameters of a cost sharing model • one member is selected to play the role of the PIONIER network operator (PSNC) KALININGRAD 2x10 Gb/s LITHUANIA 2x10 Gb/s GDAŃSK KOSZALIN PIONIER ELBLĄG SUWAŁKI 2Q2009 OLSZTYN SZCZECIN BYDGOSZCZ BELARUS 2x10 Gb/s BIAŁYSTOK GORZÓW TORUŃ 2 x 10 Gb/s /s DFN 2x10 Gb (2 λ) GÉANT2 10+10 Gb/s POZNAŃ CBDF 10Gb/s (2 λ) WARSZAWA GÉANT2/Internet ZIELONA 7,5 Gb/s GÓRA SDH 2,5 Gb/s ŁÓDŹ Internet 7,5 Gb/s ETH 1Gb/s RADOM WROCŁAW CZĘSTOCHOWA LUBLIN KIELCE MAN OPOLE PUŁAWY KATOWICE UKRAINE 2x10 Gb/s ZAMOŚĆ RZESZÓW BIELSKO-BIAŁA KRAKÓW CESNET; SANET 2x10 Gb/s PIONIER infrastructure is an integral part of ERA Network Infrastructure Phosphorus Porta Optica FEDERICA GÉANT/ GÉANT2/ GÉANT3 EMANICS MUPBED 6NET SEQUIN Atrium PIONIER Cross Border Fiber development directions Grid Infrastructure DORII Chemomentum RINgrid GridLab CrossGrid EUFORIA PRACE HPC Europa I/II EGEE I/II/III BalticGrid int.eu.grid InteliGrid FP5, FP6, FP7 OMII_Europe PROGRESS, g-Eclipse SGI GRID, CLUSTERIX, QosCos Grid ACGT KMD, PL-GRID ViroLab PLATON EuroGrid Scientific Data Layer Infrastructure sustained managed protected trusted repositories infrastructure concern for discoverable quality organisational selected contents context EuropeanaLocal ENRICH IMPACT, NMDB, METAFOR, CACAO EuroVO-AIDA, DRIVER/DRIVER2 Digital Libraries Federation GENESI-DR, DRIVER II Virtual Library of Science PIONIER2PIONIER2 Networks Grids Security Data HPC Common Services Added Services Intelligent Infrastructure for e‐Science A Concept of Platform Services Current national activities in Poland PLATON – Platform of Integrated Services PL-GRID – the Polish Grid Correlated projects KMD – National Data Storage R&D project PKI – Public Key Infrastructure Preparatory study, certificate service VoIP VoIP service PL‐Grid Foundations – Summary Polish Infrastructure for Supporting Computational Science in the European Research Space Response to the needs of Polish scientists and ongoing Grid activities in Poland, other European countries and all over the world •Motivation –E‐Science approach to research – EGI initiative ongoing in collaboration with NGIs •Creationof PolishGrid(PL‐Grid) Consortium: http://plgrid.pl – Consortium Agreement signed in January 2007 • PL‐Grid Project (2009‐2012) – Application in Operational Programme Innovative Economy, Activity 2.3 (in Sept. 2008) –Get funded March 2, 2009 (via European Structural Funds) •Consortiummadeupof five Polish supercomputing and networking centres (founders) –ACK CYFRONET AGH (Cracow) – Coordinator PL‐Grid Consortium Founders • Academic Computer Center Cyfronet AGH (ACK CYFRONET AGH) Coordinator • Poznań Supercomputing and Networking Center (PCSS) • Wrocław Centre for Networking and Supercomputing (WCSS) • Academic Computer Center in Gdańsk (TASK) • Interdisciplinary Center for Math. and Computat. Modelling, Warsaw University (ICM) PL‐Grid Infrastructure Polish Grid is going to have a common base infrastructure – similar to solutions adopted in other countries. Specialized, domain Grid systems – including services and tools focused on specific types of applications – will be built upon this infrastructure. These domain Grid systems can be further developed and maintained in the framework of separate projects. Such an approach should enable efficient use of available financial resources. Creation of a Grid infrastructure fully compatible and interoperable with European and World Grids thanks to cooperation with teams involved in the development of European Grid systems (EGEE, DEISA, OMII, C‐OMEGA, ESFRI). PL‐Grid Architecture Users Grid Application Programming Grid portals, development tools Interface Virtual organizations and security systems Other Grid LCG/gLite UNICORE Grids (EGEE) services systems Basic Grid services Distributed Grid Distributed National data computer computational resources resources repositories network The PL‐Grid Project is split into several workpackages P1 PROJECT MANAGEMENT Structure Coordination Dissemination Operation Rules P2 P6 PLANNING AND P3 DEVELOPMENT OPERATIONS CENTER SECURITY CENTER OF INFRASTRUCTURE P4 P5 GRID SOFTWARE SUPPORT FOR VARIOUS AND USERS gLite Unicore …. DOMAIN GRIDS TOOLS DEVELOPMENT Training Main Project Indicators: • Peak Perf.: 215 Tflops • Disk Storage: 2500 TB Challenges • Short term –To start – establishing PL‐Grid VO using Partners’ local and EGEE resources –To provide resources for covering operational costs –To select computational/storage resources for PL‐Grid infrastructure •Long term – continously –To provide the necessary infrastructure (!!) • Computer rooms, electrical power, many organizational issues –Be prepared / work on approaching paradigms and integration development • Clouds (internal‐external, computing clouds, data clouds) •SOA paradigm, knowledge usage … PLATON Integrated services platform for science – HD Videoconferencing services – EDUROAM service – Campus service – Archive service – Interactive research HDTV service VoIP service U6 U1 HD Videoconferencing services EDUROAM service PKI –global certifcates service U7 U2 U3 Campus services U4 Archive service U5 Interactive research HDTV service Management Platform Archive service 12,5 PB tapes 1 PB disc arrays Campus service in PLATON Project (1) Campus service in PLATON Project (2) Global management layer (open-source) Local resource managers On-demand Microsoft Graphical Other jobs virtual environment applications (batch, etc.) (Windows HPC machines Server 2008) Videoconferencing Portal Video Resources Reservation EDUROAM service Access Point Institution’s A Users’ Institution’s B Users’ Radius Database Radius Database Guest Internet id@inst‐b.pl VLAN VLAN Staff Guests VLAN Intermediate Students Radius Interactive research HDTV service (1) Interactive research HDTV service (2) Production studios & camera teams Camera Team Production Studio PLATON timetable – Take off 3Q2009 • EduROAM 4Q2009 • Videoconferencing 1Q2010 • Archive 2Q2010 • Campus services 3Q2010 • HDTV 1Q2011 – Harmonization / integration 2Q2012 Summary • Pionier integrates services on different levels – upto the application (proposition of domain platforms) • PL‐GRID and PLATON allow to deploy the national computing and data infrastructures • .. But the e‐Science requires additional services, like • Videoconferencing • HDTV Thank You for Your kind attention. May I answer Your questions, please ?.
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