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Optical Research in IST. Research Towards Optical Networks in the Information Society Technologies (IST) Workprogramme Andrew Houghton European Commission, DG Information Society andrew.houghton@cec.eu.int ICTON 2000, Gdansk June 5-8, 2000. EU RTD Programmes.
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Optical Research in IST Research Towards Optical Networks in the Information Society Technologies (IST) Workprogramme Andrew Houghton European Commission, DG Information Society andrew.houghton@cec.eu.int ICTON 2000, Gdansk June 5-8, 2000
EU RTD Programmes • strengthen the international competitiveness of Community industry • provide appropriate incentives for maintaining and creating jobs in the Community • promote sustainable development and improve the quality of life in the Community • the needs of other Community policies in support of which the RTD actions are carried out • scientific and technical cooperation agreements between the Community and third countries • (CD 22.12.98, OJ L26/48)
Information Society Technologies History of the IST Programme 3rd 4th 5th Framework Programme 2nd Services TAP TAP TAP ESPRIT3 ESPRIT4 ESPRIT ACTS RACE 2 Basic Technologies RACE 1 1987 1999 1991 1995
Fifth Framework Programme Association
Challenges for the Photonic Network To enable an efficient and affordable communications infrastructure!
THE NEW PARADIGM FOR COMMUNICATIONS NETWORKS TELECOMS: SWITCHING and TRANSMISSION INTERNET: ROUTERS and PIPES USE OPTICS for PIPES: +also for ROUTERS??? PIPES: Bit-rates and BER NETWORK: QoS and GRANULARITY TERMINALS: Mobile!! CLIENT LAYERS and/or APPLICATION LAYERS
Progress in Photonics Technologies From Research to Commercial availability: ~4 years 4 Years Lead-time 12 fold Performance Increase DWDM boosts Performance ~12x Transmission Rate Gbit/s
Pan-European Fibreoptic Network Operators April 1998: 3 Pan-European network operators April 2000: 25 Pan-European network operators GTS (Hermes/Esprit), Viatel/CIRCE, MCI Worldcom Concert (BT/AT&T), i-21, Level (3), EBN + Global 1 (FT) COLT, Carrier1, KPN Qwest + + … Most of these networks overlap, and cover Amsterdam-London- Paris-Frankfurt, but ignore regions of central Europe, southern Italy, southern Spain... OD1
Network Model Network User Traffic Packet Services Virtual Circuit Services IP Circuit Services Optical Services ATM, Frame Relay SDH Optical Transport Layer - DWDM
Evolution of Transport Equipment next generation photonic equipment 10000 1000 volume of installed WDM equipment 100 volume of installed SDH equipment 10 Capacity increase at 60% rate per year 1 volume of installed PDH equipment 0,1 0,01 0,001 1990 1998 1994 2002 2014 2006 2010 Capacity in Gbit/s Year
Optical Component Market 1975-2025 $900 $800 $700 Other Components Optical Switches $600 Filters $500 Optical Amplifiers Couplers/Splitters $400 Receivers $300 Transmitters Connectors $200 Fiber-Optic Cable $100 $0 1975 1985 1995 2005 2015 2025 ($ billions) We are early in the cycle of growth. OD71
THE PARADOX FOR OPTICAL NETWORK R+D “THE PROBLEM AREAS IN OPTICAL NETWORKS ARE MOSTLY NON-OPTICAL” ALL NETWORKS USE MORE AND MORE OPTICS BUT OPTICAL HARDWARE IS A DECREASING PROBLEM THE PRIORITY RTD FOR FUTURE OPTICAL NETWORKS MAY BE IN MANAGEMENT SYSTEMS, PROTOCOLS, MAC LAYERS, CLIENT ADAPTATION LAYERS…. CAN OPTICAL RTD BE DIRECTED TO SOLVING THESE PROBLEMS? (+FOR ACCESS NETWORKS, RTD IN DIGGING HOLES??? )
Challenges for Photonic Core Networks • Increase Capacity per Fibre • Efficient Optical Network Nodes (Cross-connects and Multiplexers) • Management System • Protection and Restoration
Photonic Networking Evolution Interconnected rings and mesh topologies OXC OXC OXC OXC OXC WDM rings with full connectivity Technology evolution OADM OADM OADM WDM rings with node addressing OADM OADM OADM OADM OADM OADM OADM WDM transmission with add/drop OADM OADM WDM transmission Year 1996 1999 2003 2006
European Information Infrastructure Core Network: 2003 WDM Ring Network: “Domains” linked by switches
European Information Infrastructure Core Network: 2007 Meshed WDM Network: Cross-connects, OADMs and Terabit/s links Clients: SDH, ATM, IP, NGP?
Challenges for Photonic Metropolitan Networks • Support All Services (Internet, Mobile, Broadcast) • Flexible Bandwidth Allocation • Flexible Cross-connects and Multiplexers • Efficient Interfacing with Communications Higher Layers (IP) • Interworking with other Networks • Management System • Protection and Restoration
Challenges for Photonic Access Networks LOW COST - AFFORDABLE ACCESS! Anyone, Anywhere, Anytime • Efficient Combination with other Technologies (wireless, xDSL...) • Flexible Bandwidth Allocation • Cheap and easy-to-use Access Gateways
User and Service Requirements Source: Heinrich Hertz Institute 64kb/s 100kb/s 1Mb/s 10 Mb/s 100Mb/s 1E+04 1Gb/s 1E+03 D Response time (ms) F G E 1E+02 C A. POTS B. Videoconferencing (low quality) C. Videoconferencing (high quality) D. Teleworking E. Telelearning F. Information exchange and retrieval G. Entertainment A B 1E+01 (including Internet) 1E+00 1E+02 1E+03 1E+04 1E+05 1E+06 1E+07 1E+08 1E+09 Information content (bits)
Multi-Service Access Network Optical Fibre Optical Network Interface Copper Pair Coaxial Cable UMTS base station Wireless/Radio Voice Services Service Integration Point Core Network Data Services SIP VOD Services CaTV Head-End OD5
The IST Programme1999-2002; Total Budget: 3600M EUR Key Action 1: Systems and services for the citizen Key Action 2: New methods of work and e-commerce Key Action 3: Multimedia content and tools Key Action 4: Essential Technologies and Infrastructures Future & Emerging Technologies Research Networking Cross-Programme Themes
KEY ACTION 4: ESSENTIAL TECHNOLOGIES AND INFRASTRUCTURES MOBILE AND PERSONAL COMMUNICATIONS AND SYSTEMS AND SATELLITES REAL-TIME, LARGE-SCALE SIMULATION AND VISUALISATION TECHNOLOGIES AND ENGINEERING FOR SOFTWARE, SYSTEMS AND SERVICES MICROELECTRONICS INTERFACES INFORMATION PROCESSING, COMMUNICATIONS AND NETWORKS PERIPHERALS SUB-SYSTEMS MICRO SYSTEMS
The IST Workprogramme 1999 First Call For Proposals; 19 March 1999: Key Action 4: Essential Technologies and Infrastructures 4.2.3 Network integration, interoperability and interworking 4.2.4 Network management and service-level interworking 4.2.5 All-optical and terabit networks 4.8.4 Advanced optoelectronics and microelectronics Future & Emerging Technologies: (+FET Open): P1 Quantum information processing and communications Second Call For Proposals; September 1999: Research Networking 7.1.2 RN1 Testbeds for advanced networking and application experiments
Snapshot of IST’s first call • Initial focus on RTD activities • Response 2,486 proposals ….. …….. for 5,300 MEuro funding • Retained for Negotiation 475 proposals ……………... for 817 MEuro funding • Selection Ratio ~1 : 5.2 for proposals …………. ~1 : 6.5 for funding
The IST Workprogramme 2000 FET OPEN Call For Proposals 3rd Call For Proposals: Feb 8, 2000: RN2, RN3, RN4 4th Call For Proposals: June 4.2.4 Terabit Core Networks 4.8.4 Optoelectronic Technologies 5th Call for Proposals: September 4.2.3 Network Integration CPA6 Next Generation Networks
WP2000 Key Action IV.2 (UnitE1) KA1 KA2 KA3 T A K E U P SERVICES PROVISION DISTRIBUTED SYSTEMS REALTIME SYSTEMS NETWORKMANAGEMENT NETWORK INTEGRATION PROTOCOLS: IP, WAP… ACCESS NETWORK OPTICAL CORE NETWORK INFRASTRUCTURE
Photonic Technology Projects and Access Network Projects in IST
Key Action 4.2 Highlight: Terabit Core Networks Mobile- IP-WDM INTEGRATION NETWORK MANAGEMENT Qof S ALL-OPTICAL DWDM TERABIT CORE NETWORK CHALLENGE: Optical Packet Switching OPEN SERVICE PLATFORM HIGH CAPACITY
Interdependence of Research Areas CONCEPTS + MATERIALS SPECIFICATIONS PROTOTYPES COMPONENTS + DEVICES SYSTEMS + NETWORKS
Regional Infrastructure Investment The projected growth in bandwidth usage shows that all users will require 10-100 Mbit/s by around 2008-2012 Support for investment to encourage the provision of optical fibre infrastructure for use by public services (hospitals, schools, administration…) in peripheral Regions will also facilitate the future provision of fibre for residential users in these areas OD7
Network Infrastructure Investment • The primary aim should be to put into place high speed optical fibre data networks in each local or Regional area: • all universities, training centres, research institutes and libraries should have a optical Gigabit Ethernet or 1.2Gbit/s fibre connection. • Secondary schools should have 622Mbit/s or Fast Ethernet optical fibre connection.* • A 55Mbit/s optical link (or VDSL) would be sufficient for most primary schools. • * based on 1000 pupils, 1 PC per 10 pupils, • fast Internet connection=2Mbit/s per PC OD6
CONCLUSIONS • The future Global Information Infrastructure will be based on WDM optical networks • Optical network implementation will be driven by client layer requirements • Research Projects in ACTS have made an important contribution towards the optical networks concept • Optical network RTD has a different emphasis in the IST Programme
Further Information • European Commission Homepage: • http://www.europa.eu.int • ACTS Photonics Homepage: • http://www.intec.rug.ac.be/horizon • IST Programme: • http://www.cordis.lu/ist
Contact Co-ordinates DG Information Society • All-optical and terabit networks • Andy HOUGHTON • Andrew.Houghton@cec.eu.int • Advanced opto-electronics and microelectronics • Henri RAJBENBACH • Henri.Rajbenbach@cec.eu.int • Quantum information processing and communications • Gustav KALBE • Gustav.Kalbe@cec.eu.int • Network integration, interoperability and interworking • Paulo de SOUSA • Paulo.Desousa@cec.eu.int • Pertti JAUHIAINEN • Pertti.Jauhiainen@cec.eu.int • Testbeds for advanced networking and application experiments • Mario CAMPOLARGO • Mario.Campolargo@cec.eu.int • Kyriakos BAXEVANIDES • Kyriakos.Baxevanides@cec.eu.int EUROPA server:www.europa.eu.int Information on RTD Programmes - CORDIS:www.cordis.lu/ist ACTS Programme:www.infowin.org/ACTS ACTS Photonics - HORIZON:www.intec.rug.ac.be/horizon IST Key Action 4 IPCN: www.cordis.lu/ist/ka4/ipcn