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

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

Outline Project details Scope Challenges and Concept Targets Workplan CTTC participation 2

Project Details 3

Project Details COMBO: COnvergence of fixed and Mobile BrOadband access / aggregation networks Start Date: January 1 st, 2013 36Months Consortium (17): Operators: Deutsche Telekom (technical leader), Telefónica I+D, France Telecom and Türk Telekom Vendors: Alcatel Lucent Italia, Ericsson and ADVA Opt. Networking (UK and Germany), SME: FON, AITIA, TELNET and JCP (management leader) Academia (Universities / R+D centers): BME, POLIMI, IT-TB, ULUND and CTTC Budget and Effort: Effort: 947 MM Project Funding: 7,449,000 Kick-Off meeting: 28-30 January 2013, Rennes (Fr) organized by JCP and hosted by FT 4

Introduction 5

Introduction In the following years it is expected a huge growth of data traffic in fixed and mobile access networks Fixed broadband access: different ADSL flavors, FTTCurb, FTTH Mobile access: 2G, 3G, LTE, LTE-A, WIMAX 6

Introduction Fixed & mobile networks have been optimized / evolved independently Complete functional & physical separation of fixed access/aggregation and mobile networks E.g.: the availability of locations for mobile base station sites and fixed network central offices are not re-considered by each other for future deployments Challenges Cope with the huge capacity demand Attain more cost / energy efficient mobile / fixed network infrastructures Solution Design / deploy scalable Fixed Mobile Convergence (FMC) networks FMC idea: to define framework for a common converged network capable of supporting both mobile and fixed services 7

Scope Lot of uncertainty wrt technological evolution due to many technical options in FMC --> COMBO project Scope of COMBO project 8

Challenges and concept 9

COMBO Challenges COMBO project will answer the key questions addressing FMC challenges: Save cost: reduce CAPEX and OPEX ensuring QoE Deal with the increasing traffic and changing applications: scalability / flexibility Adapt network structure: node consolidation Where to locate the intelligence in the network: functions such as handover between cells and technologies, OAM, synchronization, etc. Enable multi-operator / multi-vendor environment: interoperability Reduce energy: reduce 20% of energy consumption Joint optimization of fixed and mobile access and aggregation networks 10

COMBO Concept COMBO proposes a new access / aggregation network architecture around the innovative concept of NG-POP NG-POP disruptive evolution of the Central Office node / local POP First aggregation node: mediation between access and core network Several constraints: different services and technologies, scalability, operations,. 11

COMBO Concept NG-POP combines two basic aspects of FMC: functional and structural Functional convergence (@ or below L3, IP) Openness of network interfaces, interoperability among access technologies, unified control plane, better distribution/localization of essential network functionalities (BBUs, P-GW, etc.) aim: enhance the QoS, QoE, scalability and flexibility Example1: fast handover between technologies (WiFi, WiMax, LTE/LTE-A) and cell sizes (macro, micro, pico, femto) Example 2: optimized localization of centralized BBU and P-GW, traffic offloading techniques to efficiently balance traffic load 12

COMBO Concepts 13

COMBO Concept Structural convergence Mutualisation of fixed and mobile access / aggregation network infrastructures and HW Central office consolidation and BBU hotelling techniques aim: joint fixed/mobile equipment and infrastructures Example 1: convergence of traditional PON access and dedicated wavelengths for mobile traffic backhauling on a single infrastructure with packet over optical aggregation transport segment Access segment: PON technologies Aggregation segment: MPLS-TP over WSON 14

Targets 15

COMBO: targets Main target: to deploy FMC networks achieving: optimal QoE for the end user optimized network infrastructure in terms of increased performance, reduced cost and energy consumption Associated objectives: Assess multi-operator/vendor FMC scenarios Experimental demonstration of FMC features and concepts in lab and field trials Drive standardization activities 16

COMBO: Workplan WP1 Project management and coordination (leader JCP) WP2 Framework definition, architecture and evolution (leader TID) General framework for FMC, KPI (bit rate, bw, delay, reach, ), traffic modelling, etc. WP3 Fixed mobile convergent architectures (leader FT) Define and technically assess candidate architectures for FMC WP4 Traffic and performance management (leader EAB) Define measurable QoS parameters to optimize FMC networks (e.g., capacity, quality and energy consumption). Performance monitoring and management tools WP5 Techno-economic assessment (leader BME) Assess qualitatively FMC architectures based on cost and energy consumption. Evaluate the impact on business ecosystems WP6 Functional development & experimental research activities (leader ADVA) Experimentally validate and demonstrate investigated convergence levels within COMBO WP7 Dissemination and standardization (leader DTAG) 17

CTTC Participation 18

CTTC participation WP1 CTTC: 0.5 MM WP2 CTTC: 7MM T2.2 and T2.3: study the evolution of wireless and access aggregation segments, traffic offloading techniques, and the aggregation network integrating packet and optical switching technologies WP3 CTTC: 11MM T3.2 and T3.3: definition of a control plane (e.g., GMPLS/PCE, OpenFlow) handling the multi-layer (packet/optical) aggregation network 19

CTTC participation WP4 CTTC: 24 MM T4.2 and T4.3 (leader): topics related to self-organized schemes for energy-aware RRM and network-managed traffic offloading; experimentally validate / evaluate dynamic packet and optical transport infrastructures for mobile backhaul WP5 CTTC: 7MM T5.4: Assessment of energy saving benefits through applying the novel approach to set up RRM enablers in RAN WP6 CTTC: 10MM T6.2: Experimentally validate selected functions of specific parts of defined FMC architecture: emulated RAN (based on LTE), optical aggregation network and limited EPC functions WP7 CTTC: 1MM 20

Thank you! Questions? http://wikiona.cttc.es