Superfluidity A Superfluid CloudNative Converged Edge System Call

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Superfluidity: A Superfluid, Cloud-Native, Converged Edge System Call: H 2020 -ICT-2014 -2 Topic: ICT

Superfluidity: A Superfluid, Cloud-Native, Converged Edge System Call: H 2020 -ICT-2014 -2 Topic: ICT 14 – 2014: Advanced 5 G Network Infrastructure for the Future Internet Project Coordinator: Nicola Blefari Melazzi Pedro A. Aranda Gutiérrez pedroa. aranda@telefonica. com

Challenges around the (5 G) corner • ITU-T is planning in the long term

Challenges around the (5 G) corner • ITU-T is planning in the long term beyond LTE [IMT-2020] • Trends in communications call for – – – No experienced latency Increased Experienced Bandwidth (x 100 times more than today) Much connection higher density (O(106 ) connections/km 2) Resulting in increased traffic volume density (O(10 Tbps/km 2)) Support for much faster mobility (what can I say in the land of the Shinkansen? ) • Challenging some laws of nature Spectrum is not infinite => higher spectrum efficiency – Not moving bits around for free… with much more moving around => lower cost per bit – Performance should not be bought at the expense of higher energy consumption – 27/11/2020 2

Overall Idea • Run network processing virtualized, on-demand on third-party infrastructure located throughout the

Overall Idea • Run network processing virtualized, on-demand on third-party infrastructure located throughout the network At the core in data-centers – At micro data-centers at Po. Ps in telecom networks – At the edge, in RANs next to base stations and at aggregation sites – • Develop technologies to allow such services to be “superfluid”: Fast instantiation times (in milliseconds) – Fast migration (in hundreds of milliseconds or less) – High consolidation (running thousands on a single server) – High throughput (10 Gb/s and higher) – 27/11/2020 3

Superfluid Architecture microserver platform LTE CORE NETWORK deploy micro-DC platform deploy microserver platform deploy

Superfluid Architecture microserver platform LTE CORE NETWORK deploy micro-DC platform deploy microserver platform deploy AGGREGATION NETWORK x 86 platform ACCESS NETWORK Po. P Internet Multi-cell aggregation site Point-of. Presence site micro-DC platform Po. P 5 G base station site Spectrum allocation Amplifier Mobile context MAC Nulling higher delay, high compute/storage capacity Content cache Firewall Open. Flow Switch NAT Op. Flex Switch DPI VLAN X 86 VM . NET Elastic Map Reduce functional view low delay, low compute/storage capacity 27/11/2020 Data center 4

Main Project Goals • Converged architecture: the superfluid platform will abstract the heterogeneity of

Main Project Goals • Converged architecture: the superfluid platform will abstract the heterogeneity of (1) the underlying hardware and (2) the underlying access technologies • Security by design, to automatically verify that deploying a particular virtualized service won’t negatively affect the network or other services • Next generation virtualization: very low instantiation/migration delays, high I/O bandwidth, tiny memory footprints for massive deployments. • Heterogeneous hardware acceleration: leveraging commodity hardware such as FPGAs, GPUs, TCAMs, So. Cs, etc), includes dynamic resource allocation algorithms 27/11/2020 5

Why are we significant for the NFVRG? • The Four ‘I’s Location independence: services

Why are we significant for the NFVRG? • The Four ‘I’s Location independence: services can be deployed (and relocated) at various networks depending on application needs – Time independence: fast deployment and relocation in tiny timescales to guarantee service continuity – Scale independence: transparently scale services in a cloud-like manner, provide massive consolidation – Hardware independence: the network services (i. e. , software) should run on all platforms, irrespective of the underlying hardware – • This can only be achieved with a ‘better’ SDN – Flexible NFV with VFNs that can be moved around quickly • Granularity at the VNFC level – 27/11/2020 Bring NFV to cover areas of the network that are not IP centric at the mobile edge 6

Sample Use Cases • Next generation emergency services • Minimum-delay cloud storage • Localized

Sample Use Cases • Next generation emergency services • Minimum-delay cloud storage • Localized services (e. g. , gaming, video conferencing, etc. ) • Edge offloading (e. g. , ad blocking, firewalling, etc. ) • On-the-fly monitoring • DDo. S Filtering • Virtual CDNs • Virtual CPEs 27/11/2020 7

Who and where are we? 27/11/2020 8

Who and where are we? 27/11/2020 8

Partners Consorzio Nazionale Interuniversitario per le Telecomunicazioni Alcatel Lucent Bell Labs France Alcatel Lucent

Partners Consorzio Nazionale Interuniversitario per le Telecomunicazioni Alcatel Lucent Bell Labs France Alcatel Lucent Israel British Telecom Citrix EBlink Intel Ireland NEC Europe On. App Portugal Telecom Innovation and Systems Red Hat Telcaria Telefonica I+D Unified Streaming University Ben Gurion University of Liège University of Technology Dresden University Politehnica of Bucharest 27/11/2020 IT FR IL UK GR FR IE UK UK PT IL ES ES NL IL BE DE RO 9

Thank you. Questions? 27/11/2020 10

Thank you. Questions? 27/11/2020 10

References [IMT-2020] http: //www. itu. int/dms_pub/itur/oth/0 a/06/R 0 A 0600005 D 0001 PDFE. pdf

References [IMT-2020] http: //www. itu. int/dms_pub/itur/oth/0 a/06/R 0 A 0600005 D 0001 PDFE. pdf 27/11/2020 11