Fixed mobile Convergence: Structural convergence

Similar documents
Fixed mobile Convergence: Structural convergence. Access technology opuons

Fixed mobile convergence FuncRonal convergence

Fixed mobile convergence FuncRonal convergence

Towards Multitechnology

Converged fixed and mobile broadband networks based on Next Generation Point of Presence

Unified Access and Aggregation Network Allowing Fixed and Mobile Networks to Converge: The COMBO project

Visionary Technology Presentations

Examining the Fronthaul Network Segment on the 5G Road Why Hybrid Optical WDM Access and Wireless Technologies are required?

EU ICT COMBO Project: Fixed Mobile Convergence Solution. Ricardo Martínez ONA, IP Tech. & Engineering Unit

1

Front-Haul challenges for future radio access

5G-XHaul Dynamic Reconfigurable Optical-Wireless Backhaul / Fronthaul for 5G Small Cells and Cloud-RANs

G-PON migration to new technologies

Connect & Go with WDM PON Ea 1100 WDM PON

INTRODUCING THE 5G-PPP 5G-XHAUL PROJECT Daniel Camps (i2cat) Bristol 5G city testbed with 5G-XHaul extensions

GPON evolution: energy-efficient way for Next Generation Access

Strategic and economic aspects of network sharing in FTTH/PON architectures

MA R K E TING R E PORT. The Future of Passive Optical Networking is Here NG-PON2

FTTH Technology Considerations

Wellenlängenmultiplexing im Access

Deliverable 5.1 Assessment Framework and evaluation of state of the art technologies

Deliverable Summary of Planned Experimental Activities and Gap Analysis

INTRODUCING THE 5G-PPP 5G-XHAUL PROJECT

Two worlds collide. The inevitable, imminent convergence of mobile transport and fixed access networks. White paper. 1 Technical white paper

July Keywords: Optical Fibre, Passive Optical Networks, GPON, XGPON, NG-PON2

NETWORK TECHNOLOGIES, WHOLESALE ACCESS PRODUCTS AND INVESTMENT

Deployment & Operations Committee. FTTH Basics Architecture, Topology and Technology

Virtual residential gateways: Architecture and performance

Optical Networking Solutions

NG-PON2 Next Generation PON. Single Technology Plataform for all Services

Can You Haul Me Now? Bart Filipiak Market Development Manager 18 March 2009 Piedmont SCTE

Challenges in Fixed / Mobile Converged broadband access networks

Converged Ethernet for Next- Generation x-haul

The Analysis of SARDANA HPON Networks Using the HPON Network Configurator

Evolving to an Open C-RAN Architecture for 5G

Summary of Planned Experimental Activities and Gap Analysis

Evolutions for FTTH deployment in the access Network

NG- PON2 & XGS- PON: Lowering the Cost of Consolida<ng Residen<al and Business Services

D2.1 - Framework reference for fixed and mobile convergence

Joint ITU-T/IEEE Workshop on Next Generation Optical Access Systems. Standards Overview of ITU-T SG15/Q2

Optical Transport Platform

Multiformat Home Networks using Silica Fibres

D2.1- Framework reference for fixed and mobile convergence

Guaranteed Service Ethernetbased DWDM co-hauling

Millimetre-wave in 5G-Crosshaul

Matthias Förster Technetix BV

First there was circuit switching, then packet switching. Now it is time to move on to fusion switching.

Passive Optical Networks: Fundamental Deployment Considerations

5G World Summit London, 30 th June 2016

FLASHWAVE 7120 Micro Packet Optical Networking Platform

Victor Marques Future Internet Summit 2013, Aveiro, Portugal Session 2: Internet Architectures Fixed and Wireless

Multiaccess in Ethernet Passive Optical Networks (EPON)

Next Generation EPON Considerations of ODN, Coexistence and Transmission Speed

5G Transport Network Blueprint and Its Requirement Analysis for Dense Urban Scenarios

ERicsson pau 140o family photonic attachment unit

Flexible Access System Architecture: FASA

PSTN, NGA and cable access networks compared: a technical perspective

Flexibility Evaluation of Hybrid WDM/TDM PONs

Joint ITU-T/IEEE Workshop on Next Generation Optical Access Systems. Requirements for Next Generation PON

Claus Popp Larsen, Anders Gavler & Kun Wang Acreo Netlab

Global Footprint. Sorrento Networks. Trusted Transport. The 5G Reality Steve Pegrum September 2017

Looking for a Smarter City? Eugene Botes RCDD/NTS Technical Manager MEPA CommScope

5G Transport Network Blueprint and Dimensioning for a Dense Urban Scenario

Enhancing PON capabilities using the wavelength domain

ITU-T STUDY GROUP 15. Networks, Technologies and Infrastructures for Transport, Access and Home. Summary of Results Study Period

Open ContEnt Aware Networks

5G/IMT2020 Transport Requirements Considerations and Next Steps

METRO/ENTERPRISE WDM PLATFORM

Architecture Analysis of Hybrid TDM/WDM PON

Multilayer Design. Grooming Layer + Optical Layer

Passive optical LAN explained

Fibre in access: a necessary revolution?

Next Generation Optical Access Networks: A Review

DAPHNE Developing aircraft photonic networks Newsletter #1 Feb-10

MetroWAVE CWDM REFERENCE GUIDE

Super-PON Call For Interest Consensus Deck

The next-generation access network : transition from copper to fiber optics

5G Transport Network Requirements, Architecture and Key Technologies

Future Service Adaptive Access/Aggregation Network Architecture

Overview of ITU-T standards for optical systems for terrestrial transport networks. 1 Ericsson, 2 Telecom Italia Lab

Klaus-Michael KOCH TECHNIKON Forschungsgesellschaft mbh DRS-workshop Vienna

Economic issues of (broadband) access networks. C. Courcoubetis

Leveraging Existing Building Cabling Infrastructure to Meet the Needs of FTTH/FTTP Rollout in MDUs

Flexible Ethernet Fronthaul. Philippos Assimakopoulos Communications Research Group, University of Kent, Canterbury, UK

5G-PICTURE. 5G Programmable Infrastructure Converging disaggregated network and compute Resources

BoR (17) 182. BEREC Report on the New Forms of Sharing Passive Optical Networks Based on Wavelength Division Multiplexing

5G AND NEXT-GEN BROADBAND. A Symbiotic Relationship

COMPLETE SOLUTION IN I&M OF FIBER OPTIC

Framework reference for fixed and mobile convergence

Oct Global Forum, Bucherest. György Csepeli ICT and recovery: The Digital Public Utility

COMBO Architecture. Demo Day Lannion 28 th of April

Transport is now key for extended SAN applications. Main factors required in SAN interconnect transport solutions are:

Next Generation Transceivers: The Roadmap Component Driver Contributions from Roadmap team. Dominic O Brien Mike Schabel

Modelling the impact of Next Generation Access (NGA) on voice termination cost

Internet Traffic Analysis: A Case Study From Two Major European Operators

EE 233. LIGHTWAVE. Chapter 5. Lightwave Systems

Call For Interest Bidirectional 10Gb/s and 25Gb/s optical access PHYs. Mar 2018

Concluding results by the European FP7 OASE project

The path toward C-RAN and V-RAN: benefits and challenges from operator perspective

Next Genera*on EPON Requirements and Architecture Considera*ons II

Transcription:

IEEE HPSR Conference Budapest, 2015 July 1-4 FMC Tutorial Structural Convergence 1 Fixed mobile Convergence: Structural convergence Preliminary results Dirk Breuer Tibor Cinkler Stéphane Gosselin Ali Hamidian Stefan Höst Tahar Mamouni Stephan Pachnicke Jose Torrijos Gijón Erik Weis, Frank Geilhardt, Thomas Monath, Sandro Krauß Budapest University of Technology and Economics, Hungary Telecom Bretagne, France Lund University, Sweden AITIA Internaeonal, Inc., Hungary ADVA Opecal Networking SE, Germany Telefónica Invesegación y Desarrollo, Spain This ongoing work receives funding from the European Union's Seventh Framework Programme (FP7/2007-2013) under grant agreement n 317762 COMBO project

IEEE HPSR Conference Budapest, 2015 July 1-4 FMC Tutorial Structural Convergence 2 Technology comparison: Backhaul Example: Main CO Urban FTTH area Backhaul, urban Reference NG-PON2 WR-WDM-PON WS-WDM-PON OLT shelves n/a 3 3 4 System elements per service area Interfaces (3 Gb/s) 1076 1122 1122 1122 Passive optics 68 172 89 118 Amplifiers 0 1 0 9 Total Latency [µs] ~10 ~10 ~10 ~10 Fibres per service area Total count (length) 825 (743 km) 661 (562 km) 789 (692 km) 800 (696 km) WDM overlay NG-PON2 requires more shelf space and addioonal amplifiers due to high power split for residenoal customers CWDM, WR and WS WDM addioonal infrastructure required

IEEE HPSR Conference Budapest, 2015 July 1-4 FMC Tutorial Structural Convergence 3 Technology comparison: Fronthaul Example: Main CO Urban FTTH area Fronthaul, urban Reference NG-PON2 WR-WDM-PON WS-WDM-PON OLT shelves n/a 6 3 6 System elements per service area Interfaces (3 Gb/s & 10 Gb/s) 1490 2180 2180 2180 Passive optics 112 206 115 121 Amplifiers 0 20 0 12 Total Latency [µs] ~0.01 ~0.02 ~0.02 ~0.02 Fibres per service area Total count (length) 847 (785 km) 666 (572 km) 800 (696 km) 802 (700 km) WDM overlay NG-PON2 requires more shelf space and addioonal amplifiers due to high power split for residenoal customers CWDM, WR and WS WDM addioonal infrastructure required Observa(on: Can t put the BBU hostel further form the Main CO

Summary Preliminary qualitaeve assessment of coordinaeon architectures for Backhaul and Fronthaul Per service area (urban) Reference NG-PON2 WR-WDM-PON WS-WDM-PON Reduction in fibre count and length Reduction in number of interfaces Reduction in passive optics Reduction in amplifiers (reach) Potential of structural convergence Number of wavelengths per fibre Bitrate per wavelength Low latency (system level) Simple to operate (colourless) Reduction in active shelves in Main CO Ethernet aggregation in Main CO Legacy compatibility with fixed net. Re-use network infrastructure If low transport delay is realized backhaul + CoMP could deliver almost equal performance compared to fronthaul over exisong backhaul infrastructure IEEE HPSR Conference Budapest, 2015 July 1-4 FMC Tutorial Structural Convergence 4

IEEE HPSR Conference Budapest, 2015 July 1-4 FMC Tutorial Structural Convergence 5 Presented by annie.gravey@telecom-bretagne.eu peter.olaszi@aiea.ai bjorn.skubic@ericsson.com Dirk Breuer Tibor Cinkler Stéphane Gosselin Ali Hamidian Stefan Höst Tahar Mamouni Stephan Pachnicke Jose Torrijos Gijón Budapest University of Technology and Economics, Hungary Telecom Bretagne, France Lund University, Sweden AITIA Internaeonal, Inc., Hungary ADVA Opecal Networking SE, Germany Telefónica Invesegación y Desarrollo, Spain This ongoing work receives funding from the European Union's Seventh Framework Programme (FP7/2007-2013) under grant agreement n 317762 COMBO project