METIS Concepts for 5G. Hugo Tullberg, Ph.D. METIS Technical Manager

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Transcription:

METIS Concepts for 5G Hugo Tullberg, Ph.D. METIS Technical Manager 2014-04-28

METIS Scenarios Amazingly fast (Very high data rate) Super real-time and reliable connections (Very low latency) Best experience follows you (Mobility) Great service in a crowd (Very dense crowds of users) Ubiquitous things communicating (Very low energy and cost. Massive number of devices) METIS Public 5G PPP Information day 2014-04-28 Page 2

METIS Objectives Develop a concept for future mobile and wireless communications system that supports the connected information society 1000x higher mobile data volumes 10x 100x higher number of connected devices 10x 100x typical end-user data rates 5x lower latency 10x longer battery life for low-power devices Affordable and sustainable METIS Public 5G PPP Information day 2014-04-28 Page 3

Direct Device-to-Device Communication Flexible TDD air interface D2D device discovery Communication mode selection - Distributed CSI-based mode selection - Location based mode selection, - Joint mode selection and scheduling for direct D2D. Interference management Mobility management D2D relay and relayed D2D Spectrum detection/management/sharing Local communication Relaying METIS goals addressed 1000x data volume 10 100x user data rate 10 100x number of devices 10x longer battery life 5x reduced E2E latency Energy efficiency and cost METIS Public 5G PPP Information day 2014-04-28 Page 4

Massive Machine Communication Time synchronous access. One common air interface supported by devices independent of the radio access type Both connectionless and alwaysconnected approaches should be supported. Both contention-based transmission and access reservation should be supported. For low cost devices half-duplex operation should be the working assumption Licensed IMT spectrum access is preferred for MMC More device centric processing for mobility c) a) b) METIS goals addressed 1000x data volume 10 100x user data rate 10 100x number of devices 10x longer battery life 5x reduced E2E latency Energy efficiency and cost METIS Public 5G PPP Information day 2014-04-28 Page 5

Moving Networks MN-M: Mobility-robust high-data rate communication - Access link enhancement - Framework for URC - Handover optimization mechanisms - Interference identification and prediction - Spectrum management MN-N: Flexible and demand-driven deployment of nomadic network nodes. - Node activation/deactivation, dynamic interference management, node clustering - Backhaul link and relaying enhancements - UE mobility management MN-V: V2X communications - Network-controlled and ad-hoc D2D for highly mobile devices - New waveforms and channel estimation for latency reduction and improved robustness - Framework for URC. - Optimized handover mechanisms Real-time, mobility-robust links METIS goals addressed 1000x data volume 10 100x user data rate 10 100x number of devices 10x longer battery life 5x reduced E2E latency Energy efficiency and cost METIS Public 5G PPP Information day 2014-04-28 Page 6

Ultra-Dense Networks UDN Core concept New OFDM-based spectrum-flexible TDD air interface optimized for UDN - Flexible spectrum from few GHz to mmw - Flexible UL/DL based on TDD - Reduction TTI and RTT latency Small cell integration and interaction - Fast node activation/deactivation - Clustering algorithms Wireless self-backhauling & network coding schemes. UDN Extended concept UDN/macro integration - potential split of control and user planes Efficient wireless backhaul for UDN Context information, service reliability, improved management METIS goals addressed 1000x data volume 10 100x user data rate 10 100x number of devices 10x longer battery life 5x reduced E2E latency Energy efficiency and cost METIS Public 5G PPP Information day 2014-04-28 Page 7

Ultra-Reliable Communication Reliable Service Composition Signaling structure Multi-RAT URC over a long term (URC-L) - Massive MIMO, - CoMP, - Radio node densification. URC in a short term (URC-S) - Techniques considering deadlines, e.g. deadline-driven HARQ - Prioritization of latency-critical messages down to the physical layer. URC for emergency (URC-E), - D2D concept - Multi-hop and relaying techniques, cooperative D2D communications. - Nomadic network nodes basic version 99.999% 99 % 97% 95% METIS goals addressed 1000x data volume 10 100x user data rate 10 100x number of devices 10x longer battery life 5x reduced E2E latency Energy efficiency and cost METIS Public 5G PPP Information day 2014-04-28 Page 8

Overall METIS concept Integrated multi/rat system that integrating: - MMC, MN and URC, - scalable data rates, and - scalable latencies, using a system architecture that supports - D2D communication, - UDN deployments and - evolved versions of existing systems to provide improved QoE and reliability to humans and devices/machines. Use of higher frequency bands Massive MIMO Full duplex, likely low-power radio nodes Air Interface #1 Air Interface #2 Air Interface #N Mobility mgmt Spectrum mgmt Architecture METIS Concept METIS Public 5G PPP Information day 2014-04-28 Page 9

METIS Architecture Dynamic RAN will efficiently handle - multiple layers and - a variety of air interfaces - nomadic nodes. Control and cope with dynamics in - traffic, - user behavior, and - active nodes involved. Handel variety of QoS characteristics: - ultra-low latency traffic, - ultra-reliable communications, - broadcast traffic etc. Utilizing - SDN - NFV and - SON METIS Public 5G PPP Information day 2014-04-28 Page 10

METIS simulation activities Simulation and evaluation of technology components supporting sub-concepts Simulation and evaluation of overall concept Simulation software and data available on METIS web site: https://www.metis2020.com/docu ments/simulations/ METIS Public 5G PPP Information day 2014-04-28 Page 11

Future research directions 5G Wireless system design 5G Air interface 5G for MTC 5G mm-wave interface 5G HW/SW platforms Architecture Backhaul/fronthaul METIS Public 5G PPP Information day 2014-04-28 Page 12

METIS Public 5G PPP Information day 2014-04-28 Page 13 http://www.metis2020.com