5G Network Control in ITU-T SG13: perspective and challenges

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ITU-T Workshop on "Control plane of IMT-2020 and emerging networks. Current issues and the way forward" Geneva, Switzerland, 15 November 2017 5G Network Control in ITU-T SG13: perspective and challenges Luca Pesando, TIM SG13/WP1 Co-Chairman

Content ITU-T/SG13 and 5G activities General context of IMT2020: std development and deployment Focus on control protocol aspects IMT2020 control architecture and protocols development: SG13 perspective Conclusions

IMT2020: the 5G standard challenge in ITU 5G, a multidirectional evolution involving all of ITU for IMT2020 development: New Radio and improved fixed access Backhaul and fronthaul technologies to support massive mobile and Ultra-BB on any access New Core Cloud becoming integrated in the network to host its functions All always connected: IoT, V2X, V2V IMT2020 Network in SG13- Start addressing fundamentals of 5G challenge: Start from FG IMT 2020 prestandard studies Creation of WP1 to address IMT2020 network requirements and architecture in 2017-20 SP Focus on fixed line access and transport aspects Prepare the ground for the following protocol specifications in SG 11 Coordinate with SG15 for FH/BH aspects and optical access AI and ML starting with some work alredy ongoing in Q21/13

WP1/13 Structure Who does what on IMT2020 Question Q6 Q20 Q21 Title Quality of service (QoS) aspects including IMT-2020 networks Continuation of Q.6/13 from the last study period IMT-2020: Network requirements and functional architecture Transformation from Architecture WG of FG IMT-2020 Network softwarization including software-defined networking, network slicing and orchestration Continuation of Q. 14/13 and 12/13 from the last study period Transformation from Softwarization WG and Network Management WG of FG IMT- 2020 Upcoming network technologies for IMT-2020 and Future Networks Q22 Continuation of Q. 13/13 and 15/13 from the last study period Transformation from ICN WG of FG IMT-2020 Fixed-Mobile Convergence including IMT-2020 Q23 Continuation of Q. 4/13, 9/13 and 10/13 from the last study period Transformation from FMC WG of FG IMT-2020

Softwarisation and multi-slice network Provider A Applications Applications Provider B Network must be open to 3 rd party applications Legacy 4G 3GPP Standard TS 23251 and evolutions for 5G cover network Core Network Data Center sharing and can be applied to slices Call (signalling) flows for slice selection are under definition in SA2 Virtual Generic control and service exposure from the control plane network functions are discussed and modifications to TS 23.502 Virtual Virtual defined Slice embb Slice mmtc Slice urllc «Slices» can be open or not Provider 1 Macro cells NR B43 Shared Radio Access Network Small Cells Provider 2 Macro cells NR B43 multi-operator access

hy 5G makes life more complicated for network control? The most evident aspects impacting control emerging from WP1/13 work so far and from FG IMT-2020 before The new vision of the network indicates we need to consider that : In a virtualised scenario control becomes more complex Definition of interfaces (and protocols) between virtualised functions between VNFs, VIMs and orchestrators, and between orchestrators of different rank and in different domains Multiple networks of heterogeneous nature need to communicate and to adapt to particular needs (dynamic configuration vs semi-permanent)

but not only: Extreme performance requirements impact not only on physical layer technologies as radio and fibre They put requirements on control and the way protocols support service implementation and delivery The extreme consequences of softwarisation will be a single Network OS : integrating management, control and orchestration generalised APIs allowing interaction at each vertical stage. Access to control functions could be extended to users The new control paradigm will need to face this innovation

Q6/13: QoS in 5G Not only high bandwidth and better terminals, QoS is tightly bond to control! Diferentiated QoS in 5G scenarios requires adaptive behaviour of the network Y.IMT-2020.qos-mon (IMT-2020 network QoS monitoring architectural framework) Y.qos-ml (Requirements of machine learning based QoS assurance for IMT-2020)

Q20/13 work and its impact on control Expected for consent this meeting, Requirements are the beginning of everything... As well as it is the establishing a common language : Y.3100 Terms and definitions for IMT-2020 network

Q21: softwarisation A true revolution in networks Status of activities before this meeting Work items (Recs and drafts) under Q21 and their target Rec. Y.3110: MANO Reqts. (general, descriptive) Rec. Y.3111: MANO Framework Two-tier model; LCM level and per-instance level Focusing on MANO for slices Core technologies (modules) Automation, AI, QoS, Resource mgt and energy MANO for Slices Draft Y.IMT2020-Netsoft: Title: High level technical characteristic of network softwarization Leading document in high level Slice and other netsoft technologies Vertical aspects: top to bottom (e.g., slice, NF and resource) Horizontal aspects: end-to-end Draft Y.NSOM Title: Mobile network slicing orchestration and management Detailed requirements (and behaviors) Focus on the end to end slice (RAN, CORE, TRANSPORT and DC), guar antee of service quality for slice customer, automatic processing, etc. With assumptions of specific networks Focusing on mobile networks, especially IMT-2020 network UE MANO for Network Functions Transport NF over edge DC MANO for resources NF over core DC Draft Y.3MO Title: Requirements and Architectural Framework of 3MO for SDN SDN and transport-oriented multiple layers: packet layer and transport layer multiple domains: NWs for cloud, access, and core domains multiple technologies: wireless & wireline access, x-haul, mobile/fixed core technologies

Q21/13 recommendations with relevant impact on control Y.3110 Management and Orchestration Requirements - ten requirements addressing control Y.3111 - IMT-2020 Network Management and Orchestration Framework: the whole document is relevant for control aspects Before the ongoing meeting

Q22/13 new networking technologies: Network Control revolution? New WI proposal on requirements on ICN message content and ICN naming for edge computing and service chaining New WI proposal and draft recommendation on a framework for directory service to satisfy ultra-low latency requirements Eg Gap 3 in Supplement (from FG IMT2020 work): ICN It is necessary to modify and develop Mobility anchoring (ICN aware S-GW), call flows for ICN based device attachment, authentication and registration with content providers. Different approaches to be considered Similar to current single anchor like S-GW and P-GW Using the closest ICN router(s) as a single anchor Distributing anchors among points of attachment for ICN, multiple simultaneous gateways would be required

e.g. Some examples from FG IMT2020 demos Wireless Loss Detection and Recovery (WLDR): ICN application from Demos last year Signalling on enodeb to manage media flow on ICN developments In-Network caching for content in ICN neworks: Signalling is used to discover the nearest copy of the content Signalling is used to redirect traffic towards the most convenient cash

Q23 cloud solutions for FMC New WI proposals Y.FMC-SS (service scheduling for supporting FMC in IMT-2020 network) Y.FMC-CE (capability exposure enhancement for supporting FMC in IMT-2020 network ) Y.FMC-ARCH Y.FMC-MM Q23/13 Q23/13 Functional architecture for supporting fixed mobile convergence in IMT-2020 networks Mobility management for fixed mobile convergence in IMT- 2020 networks 2018-04 2018-10 Y.FMC-REQ Q23/13 Requirements of IMT-2020 fixed- mobile convergence 2017-11 Y.FMC-ReqMO Q23/13 IMT-2020 FMC functional requirements for management and orchestration 2018-10 Y.MM-RN Q23/13 Mobility management framework over reconfigurable networks 2017-11 We would like to have this, not that!

One concern: TIME!!! SG13 Reports on FMC documents available Cloud CO, FANS TR Virtual CPE TP SLICINg 8 docs (2 ramewrok) TP FMC 2 docs TP ICN 2 docs TP SLICING 13 docs (2 ramewrok) TP FMC 2 docs TP FMC 2 docs TP MGM 2 docs 3GPP remains the reference for all 5G STD development Progress in developing the specs is accelerating Work in ITU-T needs to compete with that Not easy with highly unbalanced participation TP: a way to structure and make more usable the outcome of WP1 work Coordination with SG11 and SG15

Conclusions IMT 2020 standards have now been in SG13 (and ITU-T in general) focus for more than two years The first documents on requirements and architecture for IMT2020 have now been published and SG13 Technical Packages YES, are WE progressing COULD well From these first ALWAYS document DECIDE the need TO for a big effort on protocols emerges quite clearly, with important involment of SG11 GO and FASTER!!!! other Collaboration and sync between different SGs is essential In 5G standardisation scenario 3GPP is the reference group, need to align to its pace to play a role!

Thank you! QUESTIONS?