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CLCAR 2009 Mérida Venezuela Marcio Faerman RNP – Red Nacional de Enseñanza e Investigación de...
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Transcript of CLCAR 2009 Mérida Venezuela Marcio Faerman RNP – Red Nacional de Enseñanza e Investigación de...
CLCAR 2009MéridaVenezuela
Marcio FaermanRNP – Red Nacional de Enseñanza e Investigación de Brasil
http://www.rnp.br
Research Panorama in Brazil
I – Expansion and Consolidation of National System of Science, Technology and Innovation
II – Promoting Technological Innovation in Business
III – Research, Development and Innovation in Strategical Areas 1. Bio and Nanotechnology 2. Information and Communication Technologies 3. Health 4. Biofuels 5. Electrical Power, Hidrogen and Renewable energy sources 6. Oil, Gas and Coal 7. Agribusiness 8. Biodiversity and Natural Resources 9. Amazon and Semi-Arid Brazilian regions 10. Meteorology and Climate Change 11. Space Program12. Nuclear Energy Program13. National Defence and Public Security
IV – S,T & I for Social Development
Research in Numbers– ~159.000 registered researchers– Recently created 101 science and technology consortia
Source: Science & Technology Ministry - Action Plan 2007-2010 http://www.mct.gov.br/upd_blob/0203/203404.pdf
© 2009 – RNP
• RNP is Brazil’s NREN (National Research and Education Network), fully supported by the federal government to provide advanced network services to the higher education and research community.
• RNP has operated its own IP network since 1992, and has continually renewed its technology since then.
• Since 2002, RNP, together with CPqD, the leading telco R&D centre, has built and operated a wide-area optical network testbed (Project GIGA), which is now being directed to Future Internet research and development, beginnng in 2009.
About RNP
Research networks and testbeds in Brazil
• World-class research networks to support large-scale collaborations:– RNP national backbone network - up to 10 Gbps
• upgrading to hybrid packet-circuit architecture in 2010– RNP metropolitan dark fibre networks in capital cities– international connections to Latin America and Europe
(through RedClara) and to North America (with ANSP)• upgrading to 20+ Gbps in 2009 (including RedClara2/ALICE2)• cross-border fibre to neighbouring countries (Argentina, Uruguay, Paraguay, Chile)
by 2010• Large-scale optical network testbeds provided through:
– Project GIGA - 700+ km (with CPqD, federal support)– Project KyaTera - 1000 km (SP state support)– Future (from 2010) availability of experimental capacity on
production network infrastructure
Experimental network R&D in Brazil
SP
DF
RJ
CE
BA
PR
SCRS
PE
RNGOMT
ES
MSPB
• all links: 10G waves• hybrid packet-circuit architecture• dynamic circuits under study• capacity to be available for FI experimentation
SEAL
RNP Network – 2010Possible 10G links
PI
MAPA
TO
ROAC
MG
LNCC
Dynamic circuits for a hybrid network
• A requirement for international cooperation• Experimental evaluation underway:
I2-DCN x AutoBAHN x ARGIA• Collaboration provided by international partners:
Internet2, Canarie, GEANT, NORDUnet• Various research groups engaged: CPqD, UECE, UFES,
UFF, UFPA, UFRJ, UFRS, UFSC, UNIFACS, USP
Experimental network R&D in Brazil
Project GIGA testbed
• Since 2002 RNP, the local NREN, and CPqD, the leading R&D centre in telecom, have jointly coordinated a large-scale experimental R&D initiative in networks and applications, built around a wide area optical testbed network in southeast Brazil, with the active participation of research groups from over 50 research institutions and local industry.
• In 2009, a second phase of this initiative was begun to focus more clearly on the future of the Internet, with support for a “clean-slate” approach– proposed provision of GENI or FIRE-style testbed with virtualised
resources and programmable network devices– testbed to be extended using circuits from RNP’s future hybrid
Research Network
Experimental network R&D in Brazil
RNP involvement in testbeds: pertinent strategic objectives
• testbed as a “pre-deployment” laboratory for future versions of RNP networks, with planetary scale experiments (using our international connections) when appropriate
• FIRE / GENI class testbed for Future Internet architectures and applications
• Wide involvement of Brazilian R&D groups and open to collaboration (federation) with similar initiatives in other countries– Focus on research and prototype development– Maintain close links with academic community and local industry– Participation in planetary-scale experiments
Experimental network R&D in Brazil
Some FI research activities in Brazil
• GIGA Phase 2 will support a wide variety of concurrent FI research activities, both in networking technologies and user applications.
• “Horizon” (new Internet architectures) approved in 2008 by Funttel (Brazil) and ANR (France)– UFRJ, Unicamp, PUC-Rio, UMPC (FR), industrial partners
• “Web Science” (consortium led by UFRJ) approved in 2008 by CNPq (National Institutes for S&T (INCT): 3 to 5 years)– experimental research into “Future Internet Architectures”
(researchers from RNP, UFF, UFPA, UNIFACS, USP)• initial construction of optical+wireless testbed, with adoption of PlanetLab/VINI for
network virtualization, based on RNP network
Experimental network R&D in Brazil
International collaborations - 1
• RNP strongly supports CLARA and the ALICE2 project, partially financed by the EU, which will improve international links within Latin America and to GEANT– RNP is investing in cross-border fibre projects connecting
Brazil to Southern Cone countries: Argentina, Chile, Paraguay, Uruguay
– RNP and ANSP provide redundant connectivity to RedCLARA by ceding bandwidth between US and Brazil
• RNP is a member of – GLIF (Global Lambda Interactive Facility)
• development of circuit technologies and their use– CineGrid
• technologies and network support for digital cinema
Experimental network R&D in Brazil
International collaborations - 2
• RNP has recently supported a number of projects seeking US funding (IRNC2 programme from NSF). – FENRIR, “Federated Experimental Network Resources for
International Research” – NORDUnet– “Supporting eScience applications using path-engineered
multi-layer hybrid networks and wide-area file systems” – U. Virginia
– “AmLight Teleconcordia: Collaboratory Without Walls For Computational Science” - FIU
Experimental network R&D in Brazil
Conclusion
• RNP – provides network connectivity within Brazil and with other
countries– is modernizing its infrastructure to provide high-quality IP
and end-to-end circuit connectivity for scientific collaboration, both at national and international levels
– provides experimental infrastructure for FI R&D– is “well-connected” to research communities in FI in Brazil
Experimental network R&D in Brazil
RNP role in Brazilian R&E networking 14
RNP – Rede Nacional de Ensino e Pesquisa
• RNP is the Brazilian NREN– maintained by the Brazilian government (since 1989) to enable network
access to the national research and education community
– provides national (inter-state) and international R&E connectivity for more than 300 public and private universities and research centers through the provision of advanced networking infrastructure
• also provides commodity access – one-stop shopping
– promotes the development of advanced networking and applications
• Since 2000, RNP is managed for the federal government by a non-profit private company, RNP-OS, legally recognised as an “Organização Social”, which allows the government to contract its services without competitive tender.
• Annual cost of RNP is around US$ 25M (70% telco contracts)
RNP role in Brazilian R&E networking 15
RNP’s service networks
RNP includes the following funded connectivity:
• National backbone network – Rede IPÊ– 1 PoP (Point of Presence) in each state – usually a federal university– Link capacity depends on the available telco infrastructure– Currently from 2 Mbps to 10 Gbps
• Direct intercity connections between state PoP and non-local federal instituions (education, science and technology)– Currently from 2 to 155 Mbps (depends on the institution)
• Community-based optical metro networks connected to PoPs – Currently being built out – 4 out of 27 already in operation
No service charges are made to end user institutions• Non-federal institutions are normally required to fund their own
access links
RNP role in Brazilian R&E networking 16
Rede IPÊ – national backbone networkLast big reform in 2005 (5th
phase)
Capacity reflects available telco infrastructure
Currently composed of:• Multigigabit core network
– 4 PoPs at 10 Gbps, and 6 PoPs at 2.5 Gbps
– IP over lambdas (12.000 km)
• Terrestrial SDH connections to 15 PoPs– Most links are 34 Mbps– Some at 2 Mbps– Some upgrades in 2007 to
102, 155 and 622 Mbps• 2 PoPs connected by
satellite at 2 Mbps
RNP role in Brazilian R&E networking 17
Connections to federal institutions located outside cities with PoPs
• These include:– Universities, Technical Colleges, Agrotechnical schools, belonging to the
Ministry of Education– Research Centres belonging to the Ministry of S&T
• One of the most interesting cases is INPE – National Institute for Space Studies– Activities in Meteorology, Earth Observation, Environment, Space technology,
…– Main campus in São José dos Campus, SP (155 Mbps to SP)– Satellite communications centre in Cuiabá, MT
(soon to be 1 Gbps – metro network)– Radiotelescope in Eusébio, CE
(soon to be 1 Gbps – metro network)– Large computing centre (CPTEC) in Cachoeira Paulista, SP (155 Mbps to Rio
de Janeiro)
RNP role in Brazilian R&E networking 18
New computing cluster at INPE/CPTEC (2007)
• Cluster of 1100 processors, with peak rate of 5.7 Tflops.
• 62 TB of formatted disc storage
• Cost of US$2.4M.
• Occupied 416th of the “Top 500”
• Inaugurated on 31/7/2007
RNP role in Brazilian R&E networking 19
Community-based optical metropolitan networks
• Since 2004, RNP has also concentrated its attention on metropolitan networks, to provide adequate access to the multigigabit IPÊ network – Funding provided by Science and Technology ministry, complemented
by contributions from state and city governments and by private R&E participants
• These metro networks are based on owned dark fiber networks, shared between the R&E institutions served– typically operate at 1 Gbps and permit:
• interconnection of the campi of the participating institutions• access to RNP´s IPÊ network PoP• reduction of current costs• easy to upgrade (e.g. to 10 Gbps) – just replace the terminal equipment
• Pilot project: o projeto MetroBel na cidade de Belém do Pará, whose metropolitan area has a population of 2.2 millions– network was inaugurated in May 2007
RNP role in Brazilian R&E networking 20
MetroBel
• 12 institutions with 32 campi
• each institution has its own pair of fibers (for internal connectivity)
• 30 km ring (48 fibres)• 10 km extension to
Ananindeua (36 fibres)• 12 km access links (6 fibres)
Institution A
Institution C
Institution B
RNPPoP
to IPÊ network
Community metro networks nationally
• By mid 2010, RNP expects to have deployed all 27 of these networks, reaching all the metropolitan campi of around 250 R&E institutions countrywide at 1 Gbps
• In most of these the local governments are participating for internal IT and for connecting schools and hospitals
• This digital empowerment is expected to have significant consequences for the use of the national and international networks for scientific collaboration
Adoption of hybrid (packet + circuit) architecture
• Since 2002, the more advanced R&E networks in North America, Europe and Asia-Pacific have been developing new forms of administering networks.
• Led by the Netherlands and Canada, these networks have sought to provide massive bandwidth, using WDM optical infrastructure, providing simultaneously:– Packet-switched network, like the present Internet– Circuit-switched network, for high-bandwidth applications such
as grid computing and interactive HD video, which require dynamic provisioning
• Such initiatives provide support for international collaboration through the GLIF (Global Lambda Integrated Facility)
Hybrid networks in Brazil?
• The main argument for hybrid networks is cost – they are the cheapest way to deploy really high capacity networks
• RNP feels it cannot ignore this tendency, without restricting certain classes of scientific collaboration.
• The hybrid architecture will be probably not be adopted everywhere at the same time, but will be introduced together with higher bandwidth links
Traditional e-Science Communities
• High Energy Physics– LCG
• EELA-2, CBPF
– OSG T2s • UERJ, UNESP
• Astronomy– Major Partner of SOAR Telescope
– Remote Observation Rooms
– Dark Energy Survey (DES)
– LSST
– Brazilian National Observatory, – Brazilian National Astrophysics Lab
Bulletins
PCD
SCD1SCD2
SX6
Satellite Imagery
Weather forecast models
DiscussionsINPE- Climate Studies, Weather Forecast, Earth Observation
Cross Disciplines - Agriculture, Health
RNP role in Brazilian R&E networking 26
Connections to federal institutions located outside cities with PoPs
• These include:– Universities, Technical Colleges, Agrotechnical schools, belonging to the
Ministry of Education– Research Centres belonging to the Ministry of S&T
• One of the most interesting cases is INPE – National Institute for Space Studies– Activities in Meteorology, Earth Observation, Environment, Space technology,
…– Main campus in São José dos Campus, SP (155 Mbps to SP)– Satellite communications centre in Cuiabá, MT
(soon to be 1 Gbps – metro network)– Radiotelescope in Eusébio, CE
(soon to be 1 Gbps – metro network)– Large computing centre (CPTEC) in Cachoeira Paulista, SP (155 Mbps to Rio
de Janeiro)
New computing cluster at INPE/CPTEC (2007) • Cluster of 1100
processors, with peak rate of 5.7 Tflops.
• 62 TB of formatted disc storage
• Cost of US$2.4M.
• Occupied 416th of the “Top 500”
• Inaugurated on 31/7/2007
RNP role in Brazilian R&E networking 28
Connections to federal institutions located outside cities with PoPs
• These include:– Universities, Technical Colleges, Agrotechnical schools, belonging to the
Ministry of Education– Research Centres belonging to the Ministry of S&T
• One of the most interesting cases is INPE – National Institute for Space Studies– Activities in Meteorology, Earth Observation, Environment, Space technology,
…– Main campus in São José dos Campus, SP (155 Mbps to SP)– Satellite communications centre in Cuiabá, MT
(soon to be 1 Gbps – metro network)– Radiotelescope in Eusébio, CE
(soon to be 1 Gbps – metro network)– Large computing centre (CPTEC) in Cachoeira Paulista, SP (155 Mbps to Rio
de Janeiro)
e-Healthe-Health
• RNP RUTE e-Health Network– ~130 Health Institutions– Remote Diagnostic– Special Interest Groups– http://rute.rnp.br/
• Computer Assisted Medicine INCT
• Virtual Physiological Human– Multi-Scale – Organs to Molecular Level– USP, Unifesp, UFSC, UFMG, UFPE, UFRGS, UFRJ, UERJ, LNCC, RNP– At ICT Lyon 2008
• www.europhysiome.org/RoadMap • www.vphop.eu • www.eu-egee.org • http://usa.healthgrid.org/
Other Emerging Areas
• Biodiversity– Amazon, Semi-Arid– 27 institutions community– Data and Model oriented
• Culture and Arts– National Library – International Digital Library– Museum e-Collections
• Coordination with EU-LA ProIdeal
– Cinegrid – HD Movie gigabit/s transmission – Jul ´09• Brazil, USA and Japan
e-Infrastructure is There
• Distributed Computing Infrastructures– EELA-2, OurGrid, VCG– SINAPAD HPC– Petrobras HPC– INPE/CPTEC HPC
• Multi-gigabit network– RNP– Gigabit metro network
• 2010 at all state capitals
• Large Instruments– Synchrotron– Microscopes– Telescopes– FP6 RinGrid Project
BR Synchrotron Light National Lab
R&D for Inovation
• High Speed Transport WG• Diagnostics and Failure Recovery Automation WG• e-Learning Infrastructure WG• e-Education WG• Virtual Community Grid WG• Virtual Museum WG• Overlay Network WG• Public Key Infrastructure for Education• Authentication and Authorization Infrastructure• MonIpê –End to End Monitoring Service• TV Content Exchange between universities
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34
The EELA Project EELA-2 (CP-CSA under EU FP7) EELA (SSA under EU FP6)
E-infrastructure shared between Europe and Latin America
• EC support: 1.7 M€
• CIEMAT extra support: 0.4 M€
• 10 Countries (3 in Europe)
• 2 International Organisations
• 20 Members (7 in Europe)
E-science grid facility for Europe and Latin America
• EC support: 2.1 M€
• CETA-CIEMAT extra funds: 0.3 M€
• Currently 16 Countries (11 in LA)
• 2 new countries (Panama & Uruguay)
• 1 International Organisation (CLARA)
• Currently 78 Members (62 in LA)
• 32 Institutions joining (31 in LA)
• Currently 13 JRUs (9 in LA)
• 4 new JRUs (3 in LA)
At the final review EELA was awarded the highest EC rank:
“Good to excellent project”
CLARA Cooperación Latino Americana de Redes Avanzadas
– Latin American network backbone– 9 nodes, interconnecting 13 Latin
American NRENs– ALICE2 , was approved by the EC
and will receive funding until 2012 both from the EC and from LA-NRENs.
– The project, which began in November 2008, is coordinated by CLARA, which is seeking to acquire long-term access to telecommunications infrastructure, such as optical fibre and wavelengths, which can be used to provide scalable network capacity with low maintenance cost.
– to Europe (GÉANT2)622 Mbps
• Financed by EU (in part)
– Mexico – USA (Pacific Wave): 1 Gbps
Interoperable Network Monitoring
• Compatible with perfSONAR
• Collaboration with Internet 2, GEANT and other NRENs
• Goal is to provide uniform monitoring across multiple domains
Communicating Cyberinfrastructure and e-Collaboration
• Virtual Community Grid WG (partnership with LNCC)
• National Public key infrastructure for Education
• Authentication and Authorization Infrastructure
• Partnership with National System of High Performance Computing - SINAPAD Program led by LNCC
• The EELA-2 Project – E-science Grid Facility for Europe and Latin America
• “Programa de Fomento al Uso de Redes Avanzadas en Latinoamérica para el Desarrollo de la Ciencia, Tecnología e Innovación”, OEA/FEMCIDI/CLARA
• RINGrid Project – Remote Intrumentation Grid
• HEPGrid, Sprace
• Brazilian e-Science collaboration
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Brazilian e-Science Collaboration Network: major objectives
• Promote colaboration in e-Science and provision of Cyberinfrastructure amongst its members;
• Encourage the expansion of the Collaboration Network;
• Promote Collaboration Network participation in national and international e-Science projects;
• Contribute to the discussion and formulation of public policy for the development of e-Science and investment in Cyberinfrastructure.
General Considerations
• Multiple network domains must be taken into consideration for end to end quality services– Both nationally and internationally– Seamless coordinated inter-operation between academic networks still a
challenge– A lot of progress being made lately thanks to big pushers / early
adopters• Astronomy, High Energy Physics Community, Climate, Earth Observation
• Integration between network, data repositories, compute, storage resources, applications and users is key– Cross disciplinary engagement
• Need broad strategical planning for partnerships, collaborations and funding
• Looking forward to increasing collaboration with Colombia
Gracias!
Marcio FaermanRNP – Red Nacional de Enseñanza e Investigación de Brasil
http://[email protected]
+55-21-2102-9660