An Overview of Research and Education Networks And
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Redclara Went from Being an Illusion to Become a Mature Institution”
Invitation - Call Shall we talk seriously about natural disasters and the end of the world? Rafael Ibarra, RAICES president “RedCLARA went from being an illusion to become a mature institution” MERCOSUR’s Virtual School was launched March 2012 - n°30, year 8 This Project is funded by the European Union A project implemented by RedCLARA European Commission Press Contact: EuropeAid Cooperation Office María José López Pourailly Directorate B2 - Latin America PR & Communications Manager - CLARA @LIS Programme [email protected] Rue Joseph II, 54 J54 4/13 (+56) 2 584 86 18, extension 504 B-1049 Brussels Avenida del Parque 4680-A BELGIUM Edifico Europa, oficina 505 Ciudad Empresarial Huechuraba Santiago CHILE «The European Union is constituted by 27 member states which have decided to progressively join their practical knowledge, their resources and their destinies. Over an expansion period of 50 years, together they have built a stability, democracy and sustainable development zone, and have also preserved cultural diversity, tolerance and individual liberties. The European Union is committed to sharing its achievements and values with countries and peoples which are beyond its borders». The European Commission is the executive body of the European Union. Contents 6 Open Call to present papers for TICAL 2012 Conference 7 Register and participate in the First Virtual Day of Culture Fernando Liello, ELLA Project Coordinator 8 “Latin America needs the new submarine connection to Europe because it cannot rely only on connectivity to -
Esnet: Advanced NETWORKING for SCIENCE
ENERGY SCIENCES NETWORK ESnet: Advanced NETWORKING for SCIENCE Researchers around the world using advanced computing for scientific discovery are connected via the DOE-operated Energy Sciences Network (ESnet). By providing a reliable, high-performance communications infrastructure, ESnet facilitates the large-scale, collaborative science endeavors fundamental to Office of Science missions. Energy Sciences Network tive science. These include: sharing of massive In many ways, the dramatic achievements of 21st amounts of data, supporting thousands of collab- century scientific discovery—often involving orators worldwide, distributed data processing enormous data handling and remote collabora- and data management, distributed simulation, tion requirements—have been made possible by visualization, and computational steering, and accompanying accomplishments in high-per- collaboration with the U.S. and international formance networking. As increasingly advanced research and education (R&E) communities. supercomputers and experimental research facil- To ensure that ESnet continues to meet the ities have provided researchers with powerful requirements of the major science disciplines a tools with unprecedented capabilities, advance- new approach and a new architecture are being ments in networks connecting scientists to these developed. This new architecture includes ele- tools have made these research facilities available ments supporting multiple, high-speed national to broader communities and helped build greater backbones with different characteristics—redun- collaboration within these communities. The dancy, quality of service, and circuit oriented DOE Office of Science (SC) operates the Energy services—all the while allowing interoperation of Sciences Network (ESnet). Established in 1985, these elements with the other major national and ESnet currently connects tens of thousands of international networks supporting science. -
Deliverable D8.4 Final Report on Sustainability and Exploitation
07-07-2020 Deliverable D8.4 Final Report on Sustainability and Exploitation Deliverable D8.4 Contractual Date: 31-05-2020 Actual Date: 07-07-2020 Grant Agreement No.: 732049 – Up2U Work Package: WP8 Task Item: Task 8.1. Nature of Deliverable: R (Report) Dissemination Level: PU (Public) Lead Partner: GWDG Authors: Faraz Fatemi Moghaddam (GWDG), Philipp Wieder (GWDG), Aytaj Badirova (GWDG), Erik Kikkenborg (GÉANT), Gyöngyi Horváth (GÉANT), Casper Dreef (GÉANT), Andrea Corleto (GARR), Eleonora Napolitano (GARR), Gabriella Paolini (GARR), Krzysztof Kurowski (PSNC), Raimundas Tuminauskas (PSNC), Michal Zimniewicz (PSNC), Nelson Dias (FCT|FCCN), Antonio Vieira Castro (ISEP), Mary Grammatikou (NTUA), Dimitris Pantazatos (NTUA), Barbara Tóth (KIFÜ), Csilla Gödri (KIFÜ), Gytis Cibulskis (KTU), Jack Barokas (TAU), Ingrid Barth (TAU), Eli Shmueli (IUCC), Nadav Kavalerchik (IUCC), Orit Baruth (IUCC), Domingo Docampo (UVigo), Iván Otero (UVigo), Vicente Goyanes (TELTEK), Xoan Vidal (TELTEK), Stefano Lariccia (UROMA), Marco Montanari (UROMA), Nadia Sansone (UROMA), Giovanni Toffoli (UROMA), Allan Third (OU) © GÉANT Association on behalf of the Up2U project. The innovation action leading to these results has received funding from the European Union’s Horizon 2020 research and innovation programme under Grant Agreement No. 732049 – Up2U. Table of Contents Executive Summary 1 1 Introduction 2 2 Business Models – Exploitation Activities 3 2.1 Up2U Tools for NRENs and Schools 4 2.1.1 The Centralised Model 5 2.1.2 openUp2U 5 2.1.3 The National Model 6 2.2 -
With Fewer Than 50 Days to Go Before the Super
With fewer than 50 days to go before the Super Computing 2004 conference, high-energy physics researchers at the University of Sao Paulo recognized the opportunity to showcase their active involvement in the global computational Grid. They asked the CIARA (Center for Internet Augmented Research and Assessment) team at FIU, and the ANSP (Academic Network of Sao Paulo) team to leverage their expertise, along with AMPATH to create a 2.5 Gigabit per second (Gbps) connection for research from the conference center floor in Pittsburgh, to the computational clusters in Brazil. To do this, a team was formed of Telecom Italia Sparkle's Latin American Nautilus, providing the submarine cable capacity; Cisco Systems, providing critical components for the end-to-end connection; Terremark, providing space and support in their Network Access Points (NAPs) in both MIami and Sao Paulo; FPL Fibernet, providing crucial links in Miami; and Qwest Communications and Internet2's Abilene network, providing high-performance connectivity from Miami to Pittsburgh. The result of this collaboration was a contribution to the winning team of the 2004 bandwidth challenge, allowing them to exceed their goal of 100Gbps. The new link between Miami and Sao Paulo set a new speed record for U.S. to Brazilian research networking at a sustained 1.66Gbps, with bursts up to 2Gbps. This new link increases 45 times the bandwidth capacity between the US and Brazil. This is a first step in bringing research connectivity in the Gigabit range for U.S. to Latin American research efforts. -
Anatomy of an International Exchange Point: Distributed Network Monitoring Using Monalisa and Netflow1
Anatomy of an International Exchange Point: Distributed Network Monitoring Using MonALISA and NetFlow1 Ernesto Rubi, Xun Su, Iosif Legrand, Heidi Alvarez, Julio Ibarra2 Abstract: In this paper we present a distributed network monitoring system, which exploits MonALISA (Monitoring Agents in A Large Integrated Services Architecture), a distributed web service delivery infrastructure designed to collect and process the network monitoring information. We augment the capability of MonALISA with FlowTools, the popular NetFlow data analysis toolset. We demonstrate how to integrate MonALISA and Flowtools via an UDP-listening agent ApMon, and highlight a case study of AMPATH, an international exchanging point located in Miami and serving a number of South American National Reseach and Education Networks (NRENs). Our experience showcases the elegant design philosophy of a scalable distributed service deployment platform coupled with the open-source traffic analysis tools and its impact on the daily operation of the production networks. Keywords: NetFlow, MonALISA, Flowtools, Network monitoring. 1. Introduction As the Internet expands both in its scope, reach and capacity, it becomes evident that there is a strong need to develop a distributed network monitoring infrastructure that can be scaled to support various network topology, traffic granularity and user applications. NetFlow[1] is a widely deployed router-based traffic monitoring mechanism. FlowTools[2] is a open-source NetFlow analysis toolset underlying the data gathering and analysis infrastructure of our project. It is our main motivation to effectively use NetFlow to gain crucial understanding of the traffic characteristics of the networks we operate. In particular, we are interested in understanding how to exploit the key advantages and avoid drawbacks of NetFlow-based traffic analysis by augmenting it with a distributed service-deployment platform. -
Connecting to the GENI Network 18 August 2010
Connecting to the GENI Network 18 August 2010 Brandon Williams Indiana University 1 Contents Cover page………………………………………………………………………… 1 Contents……………………………………………………………………………. 2 Executive Summary………………………………………...................... 3 Introduction………………………………………………………………………. 4 Internet2…………………………………………………………………………… 5 About Internet2……………………………………………………...5 Internet2 initiatives……………………………………………… 5 Other Internet2 details………………………………………… 6 Characteristics of the Internet2 Network…………....... 6 How to connect to Internet2………………………............ 9 NLR………………………………………………………............................. 10 About NLR……………………………………………………………….10 Characteristics of the NLR network………………………… 11 How to connect to NLR………………………………………….. 14 The GENI Network…………………………………………………………….. 15 The GENI organization…………………………………………… 15 The GENI rationale………………………………………………… 16 GENI control frameworks………………………………………. 17 The GENI architecture…………………………………………… 18 Connecting to the GENI network……………............................ 19 References………………………………………………………………………… 21 2 Executive Summary The Global Environment for Network Innovations (GENI), a project sponsored by the National Science Foundation, is a virtual laboratory at the frontiers of network science and engineering for exploring future internets at scale. There is currently no public document that explains how international networks can connect to GENI. This document explains US R/E networks providing GENI connectivity and how to connect to them and ultimately to GENI. Important things to know when connecting to -
Amlight Express and Protect (Exp) • RXP: Atlanticwave-SDX
! IRNC Kickoff Meeting Internet2 Global Summit Washington DC April 26, 2015 Julio Ibarra Florida International University Principal Investigator [email protected] Outline ! • Backbone: AmLight Express and Protect (ExP) • RXP: AtlanticWave-SDX 2 AmLight Today • 4 x 10G links – Two topologies and – Two submarine cable systems to increase resilience and support for experimentation • SDN Ring: Miami-São Paulo, São Paulo-Santiago, Santiago- Miami – 20G total capacity – Full Openflow 1.0 and network virtualization support – Uses Brocade devices • MPLS Ring: Miami-Fortaleza, Fortaleza-Rio, Rio-São Paulo, São Paulo-Miami – 20G total capacity – Layer2 support via L2VPN – Uses Juniper devices • Mutual redundancy between SDN and MPLS rings 3 AmLight 2015-2017 • OpenWave 100G alien wave – U.S., Brazil, Latin America – Experimentation is initial focus – In the AmLight SDN domain – What we learn will enable our next 20 years • 100G to AL2S, Miami- Jacksonville is operational • 140G aggregate capacity using spectrum and leased circuits 4 AmLight Express and Protect (ExP) 2018-2031 • AmLight Express: – 300GHz of spectrum: Santiago-São Paulo, and São Paulo-Miami – Spectrum to be configurable by RENs to meet user/ application requirements • AmLight Protect: – 40G leased capacity ring – Miami, São Paulo, Santiago, Panama City, Miami – AMPATH, Southern Light, REUNA, and RedCLARA operated • Potential for unprecedented regional resilience for U.S.- Latin America, and U.S.- Europe connectivity, supporting global science 5 research AmLight ExP Challenges • Bandwidth -
Bulletin Year 13
Bulletin Year 13 Pure life and knowledge! Europe and Latin America RedCLARA partner TICAL's Costa Rican expand their collaboration networks have fast and edition will host two more for open science direct access to Microsoft events services n˚ 49 RedCLARA announces peering with Google April 2017 Contents Editorial - Mariano José Sánchez 5 Bontempo, Executive Director of RedCONARE Pure life and knowledge! TICAL's Costa 6 Rican edition will host two more events 11 BELLA-T opens tender for infrastructure "The mother of the Internet": Former 12 president of RedCLARA was honored by the Uruguayan television on Women's Day RedCLARA partner networks have fast and 13 direct access to Microsoft services RedCLARA announces peering with 14 Google RedCLARA: Europe and Latin America expand their Editing 15 María José López Pourailly collaboration for open science Contents A clear path for your data María José López Pourailly Using RedCUDI in the Pierre Auger Luiz Alberto Rasseli 16 Observatory Remote Control Room Translation into Portuguese located at UNAM Luiz Alberto Rasseli Translation into English We empower your research and María José López Pourailly Leonardo Rodríguez: "We hope to developments Luiz Alberto Rasseli 17 strengthen the articulation with the Graphic design scientific communities of the other María José López Pourailly national networks" 19 Agenda Press Contact: María José López Pourailly Communications and Public Relations Manager [email protected] (+56) 2 2584 86 18 # 504 Avenida del Parque 4680-A Edifico Europa, oficina 108 Ciudad Empresarial Huechuraba Santiago, CHILE Editorial TICAL will be held in Costa Rica this year! For Another event that will be held during these RedCLARA, the National Council of Rectors days is the meeting of Internet Society, called (CONARE) and RedCONARE (the Costa Rican “ION Costa Rica 2017”. -
SEMI ANNUAL RESEARCH REPORT January – July 2015 Acknowledgements
SEMI ANNUAL RESEARCH REPORT January – July 2015 Acknowledgements This report would not be possible without the hard work and dedication of the investigators, research coordinators, and administrative support staff who make up AMPATH’s research community. We appreciate all their contributions to this report. AMPATH’s co-directors of research, Professors Winstone Nyandiko and Rachel Vreeman deserve special recognition for their constant support in the development of this report. Their leadership continues to strengthen the Research Program. Editorial Team Shawn Grinter Jepchirchir Kiplagat-Kirui David Plater Eunice Walumbe Copyright © October 2015 – AMPATH Research Program Office Contacts Jepchirchir Kiplagat-Kirui David Plater AMPATH Research Network Administrative Manager AMPATH Research Network Administrative Manager (Kenya) (North America) AMPATH Center IU Center for Global Health P.O. Box 4606 702 Rotary Circle, RO101E Eldoret, Kenya Indianapolis, IN 46202 Email:[email protected] Email:[email protected] Phone: +254 53 203 3471 ext. 3719 Phone: +1-317-274-9189 Fax: +254 53 206 1992 Fax: +1-317-274-9124 Please visit the AMPATH Research Program website to learn how our research programs are helping improve the health of the Kenyan people. www.medicine.iu.edu/ampathresearch CONTENTS Overview .................................................................................................................................................................................. i Grants ..................................................................................................................................................................................... -
Redclara: Regional Network in Latin America
RedCLARA: regional network in Latin America I2MM Spring 2009 Michael Stanton [email protected] Chair, CLARA Techical Committee CLARA and CKLN/ C@ribnet • CLARA is the regional association of NRENs in Latin America (LA) • CLARA operates the LA regional R&E network – RedCLARA – which joins together NRENs from several countries bordering on the Caribbean • Many of our international links cross the Caribbean • We would like to offer our support for R&E networking initiatives in the Caribbean The LA experience in advanced R&E networking • After the establishment of Internet2 in 1996, “advanced networks” became a new paradigm to be pursued by the Reasearch and Education (R&E) community • The first steps in LA were taken by Mexico, with cross-border connections to the US, and by the AMPATH project at FIU, Miami, which began linking South American networks to the US Internet2 Connectivity in Latin America by 2002 AMPATH • used new submarine cable • connected Argentina, Brazil (2), Chile, Venezuela • 45 Mbps AMPATH • all connections are point to point from Miami, and thence to Abilene Mexico • cross-border connections to USA (Texas and California) State of Latin American NRENs in 2002 Established education and research networks: • With dedicated Internet2 connections: Argentina, Brazil, Chile, Mexico, Venezuela • Some with dedicated int’l connectivity: Cuba, Uruguay Education and research networks were being re-established (present nat’l/int’l connectivity through commercial ISPs) • Bolivia, Colombia, Costa Rica, Ecuador, Guatemala, Panama, Peru, Paraguay, El Salvador No education/research network (most connected to Internet via commercial ISPs): Nicaragua, Honduras Europe and the @LIS iniciative • Through GÉANT, the European R&E community enjoyed high bandwidth connectivity with N. -
Kim's Layout Lesson Interior 8.Indd
(100G) AL2S FIU/OpenWave (100G) AL3S Internet2 via Baton Rouge FLR ext Pop/SoX/TelX Internet2 via Atlanta (10G) (10G Dedicated Wave) Pensacola Crestview Tallahassee PSC Jacksonville UWF Bay County Lake City FSU UNF Gainesville UFL LEGEND FLR Optical Pop Site FLR Optical Amp Site Tavares FIU/OpenWave Equity Member Orlando (FUTURE) Datasite (100G) FLR OnRamp Tampa UCF Lake Nona Winter Melbourne FLR Backbone Fiber Haven USF FLR Member Fiber InLand Fiber FIT Copyright 2014, Florida LambdaRail, LLC All Rights Reserved FGCU KEY FACTS West Palm Beach FAU COVERAGE: 1,540 MILES NSU Backbone Capacity: 20Gbps Ft. Lauderdale Ownership: 12 Equity Partners - 9 Public Universities FIU Miami (NOTA) - 3 Private Universities AOML/NOAA Links to other regional, national UM and international networks FIU/AMPATH FIU/OpenWave FIU/AmLight (100G) AtlanticWave FLORIDA’S RESEARCH AND EDUCATION NETWORK Furthering Research, Advancing Education, and Supporting Economic Growth through the Deployment of Next Generation Network Technologies (100G) AL2S FIU/OpenWave (100G) AL3S Internet2 via Baton Rouge FLR ext Pop/SoX/TelX Internet2 via Atlanta (10G) (10G Dedicated Wave) Pensacola Crestview Tallahassee PSC Jacksonville UWF Bay County Lake City FSU UNF Gainesville UFL LEGEND FLR Optical Pop Site FLR Optical Amp Site Tavares FIU/OpenWave Equity Member Orlando (FUTURE) Datasite (100G) FLR OnRamp Tampa UCF Lake Nona Winter Melbourne FLR Backbone Fiber Haven USF FLR Member Fiber InLand Fiber FIT Copyright 2014, Florida LambdaRail, LLC All Rights Reserved FGCU KEY FACTS West -
World Network Speed Record Shattered
World Network Speed Record Shattered Caltech, SLAC, Fermilab, CERN, Michigan, Florida, Brookhaven, Vanderbilt and Partners in the UK, Brazil, Korea and Japan Set 131.6 Gigabit Per Second Mark During the SuperComputing 2005 Bandwidth Challenge SEATTLE, WA -- For the third consecutive year, the “High Energy Physics” team of physicists, computer scientists and network engineers led by the California Institute of Technology, the Stanford Linear Accelerator Center (SLAC), Fermilab and CERN and partners at the University of Florida, Vanderbilt and the Brookhaven National Lab, as well as international participants from the UK (University of Manchester, and UKLight), Brazil (Rio de Janeiro State University, UERJ, and the State Universities of São Paulo, USP and UNESP)., Korea (Kyungpook National University, KISTI) and Japan (the KEK Laboratory in Tsukuba) joined forces to set a new world record for data transfer, capturing first prize at the Supercomputing 2005 (SC|05) Bandwidth Challenge (BWC). The HEP team’s demonstration of “Distributed TeraByte Particle Physics Data Sample Analysis" achieved a peak throughput of 151 gigabits per second (Gbps), and an official mark of 131.6 Gbps measured by the BWC judges on 17 of the 22 optical fiber links used by the team, beating their previous mark for peak throughput of 101 Gbps by 50%. The record data transfer speed is equivalent to downloading five full DVD movies per second, or serving 10,000 MPEG2 HDTV movies simultaneously in real time, or transmitting all of the printed content of the Library of Congress in 10 minutes. The team sustained average data rates above the 100 Gbps level for several hours for the first time (as shown in the figure below), and transferred a total of 475 Terabytes of physics data among the team’s sites throughout the US and overseas within 24 hours.