What is the status of 5G standardiza2on. Sofie Pollin ESAT TELEMIC, KU Leuven

Similar documents
Towards 5G NR Commercialization

5G standards towards 2020

Lo sviluppo del 5G: Evoluzione o rivoluzione? Quali sfide per l industria e le istituzioni

Toward 5G Deployment in 2020 and Beyond

Possible network parameters on IMT-2020/5G transport network

Leading the Path to 5G

5G Standards and Progress

Technologies and bands best suited to meet requirements of 5G

R&D Status of IMT-2020 (5G) Promotion Group. WANG Zhiqin May 24, 2017

ZTE All rights reserved. Leading 5G Innovations

5G Update. Kai Sahala, Head of 5G E2E Sales APJ May 2018

Toward a 5G Ecosystem with More Vitality and Long Life Cycle

Minimum Technical Performance Requirements for IMT-2020 radio interface(s)

5G Design and Technology. Durga Malladi SVP Engineering Qualcomm Technologies, Inc. October 19 th, 2016

5GPPP Workshop Spectrum for 5G

Original Circular Letter

On the roads to 5G: theory and practice

Next-generation Mobile Communications System: 5G

Making 5G a commercial reality

Making 5G NR a reality

6th Global 5G Event Brazil - Versão de 30 ago

# F N. 5G Glossary Alphabetical Index. 3GPP 3 5G 3 5G-NR 3 5GTF ax 3. FWA 7 Network Slicing 12. NSA Mode 12 NB IoT 12 Gigabit LTE 8

5G Priorities. Luke Ibbetson, R&D Director Vodafone Group. C1: Public

Dr. Evaldas Stankevičius, Regulatory and Security Expert.

NTT DOCOMO s Views on 5G

5G for people and things Key to the programmable world

5G: an IP Engineer Perspective

Bringing 5G into Reality

Brainstorming Workshop on 5G Standardization: WISDOM. by A.K.MITTAL Sr. Deputy Director General Telecom Engineering Centre, K.L.

Mobile-enabled THe 5G future

5G Impact: Remote Surgery Enabled via InterDigital s EdgeLink mmw Transport InterDigital, Inc. All Rights Reserved.

Roadmap for 5G Enhancements to Communication Technology

Towards 5G Commercial Deployment. Janne Peisa, Ericsson Research

Koloběh digitálního života. Budoucnost patří. 5G

Radio Network Evolution 4G to 5G

Session 7: 5G networks and 3GPP Release 15

ITU Arab Forum on Future Networks: "Broadband Networks in the Era of App Economy", Tunis - Tunisia, Feb. 2017

CWIC18 5G AND NETWORK INNOVATION NEW CAPABILITIES IN 5G NETWORKS. 4 July Anne Leino GSA Spectrum Group, CEPT vice-chair

5G in Cable. The Future of Broadband Access. Mar 29, Nokia 2017

5G transport latency requirement analysis. Lujing Cai, Abdellah Tazi AT&T

Une vision d opérateur sur les usages et déploiements de la 5G. Eric Hardouin, Orange Labs 26 September 2017

Towards 5G: Advancements from IoT to mmwave Communcations. Next Generation and Standards Princeton IEEE 5G Summit May 26, 2015

Network Vision: Preparing Telefónica for the next generation of services. Enrique Blanco Systems and Network Global Director

Making 5G NR a reality

Global Tier 1 5G Deployments and X-Hauling

5G Technology Introduction, Market Status Overview and Worldwide Trials

5G in reality technology Workshop

5G the next major wireless standard

5G Technology update. Dr. David Hammarwall Head of Product Line 5G, Ericsson

Roads to 5G Era. Li Haijun CMO of SRAN Product Line, Wireless Network

LTE-Advanced The solution for IMT-Advanced

Status of KT s 5G trial service at PyeongChang Winter Olympic Games

Next Generation and Standards August Intel 5G Next Generation and Standards

Perspectives and research progress on 5G standard. MIIT, CHINA October 20, 2015

5G in Reality. Mikael Höök, Director Radio Research Ericsson Research

5G enabling the 4th industrial revolution

Takashi Shono, Ph.D. Intel 5G Tokyo Bay Summit 2017

Making 5G a reality: Addressing the strong mobile broadband demand in 2019 & beyond

5G WIRELESS FOR 2020 AND BEYOND

5G Standards and Outlook for 5G Unlicensed

Wireless access. Dr. Christian Hoymann Principal Researcher, Ericsson Research

ITSF - TIMING FOR 5G SYNCHRONISATION REQUIREMENTS FOR 5G

Making Mobile 5G a Commercial Reality. Peter Carson Senior Director Product Marketing Qualcomm Technologies, Inc.

LTE evolution and road to 5G

5G First to Market. Nigel D Rozario Ericsson Australia. PA Commercial in confidence Page 1

5G Three UK s View. Prof Dr Erol Hepsaydir Head of RAN and Device Strategy & Architecture Three UK

On the verge of a smart future

Service Vision. Ubiquitous Connectivity. Everything on Cloud. Immersive Experience. Telepresence. Giga-bit Data Rate. Massive Connectivity

Orange. On the road to. Jean Michel SERRE CEO of Orange Japan-Korea

Designing 5G NR The 3GPP Release-15 global standard for a unified, more capable 5G air interface

4G Mobil-szélessáv: Hogyan jutunk 4-ről az 5-re. Novák Csaba Ericsson Magyarország. LTE Subscriptions

Sanjeev Athalye, Sr. Director, Product Management Qualcomm Technologies, Inc.

From Vision to Reality. Dr. Michael Meyer Ericsson Research, Herzogenrath

The Journey to 5G. PhD David Hammarwall Head of Product Line 5G RAN

5G and Automotive Cellular Vehicle-to-Everything (C-V2X) March 2017

#ericssonlive Slide title 70 pt CAPITALS Slide subtitle minimum 30 pt

Session 2: 4G to 5G networks and standard releases

5G-ENABLING INDUSTRY AND SOCIETY TRANSFORMATION. Željko Popović, Vanesa Čačković

Flexible networks for Beyond 4G Lauri Oksanen Head of Research Nokia Siemens Networks

Beyond 4G Introduction and LTE evolution

Huawei experience in 5G test network deployments

Transport Requirements for a 5G Broadband Use Case. Vishwanath Ramamurthi Thomas Tan Shankar Venkatraman Verizon

5G Mobile Communications for 2020 and Beyond

5G Air Interface Enhanced Mobile Broadband with Millimeter Wave

The Living Network: Leading the Path to 5G. Robert Olesen Director, InterDigital Inc InterDigital, Inc. All rights reserved.

On Forward Error Correction

Global 5G spectrum update

Enabling Technologies for Next Generation Wireless Systems

SK Telecom proprietary

Dr. Fiona Williams Ericsson

5G-oriented Terminal and Chipset Technology White Paper

The challenges, opportunities and setting the framework for 5G EMF and Health

Wireless access beyond Erik Dahlman Ericsson Research

Status and Trends of Global 5G spectrum. Xiaobei Chen Technology and Standards Research Institute, CAICT

MediaTek Proprietary 1. GCF 5G MENA Workshop November 28, G New Radio. Motivation, Design, Deployment Options & Challenges

ABOUT THE WIRELESS BROADBAND ALLIANCE ABOUT NGMN ALLIANCE

Bridging the gap between 5G and B5G

5G NR standards in 3GPP

Massive MIMO. Nokia Massive MIMO enables 5G-like user experiences. Executive Summary.

Towards 5G RAN Virtualization Enabled by Intel and ASTRI*

Transcription:

What is the status of 5G standardiza2on Sofie Pollin ESAT TELEMIC, KU Leuven 1

ITU Vision for IMT-2020 and Beyond > 10 Gbps Peak rates > 1M / km 2 Connec?ons < 1 ms Latency 2 [Source: Na?onal Instruments]

New ITU Report on IMT-2020 Minimum Requirements Metric Requirement Comments Peak Data Rate Peak Spectral Efficiency User Experienced Data Rate DL: 20 Gbps UL: 10 Gbps DL: 30 bps/hz (assuming 8 streams) UL: 15 bps/hz (assuming 4 streams) DL: 100 Mbps UL: 50 Mbps Area Traffic Capacity Indoor hotspot DL: 10 Mbps/m 2 embb Single embb mobile in ideal scenarios assuming all resources u?lized Single embb mobile in ideal scenarios assuming all resources u?lized 5% CDF of the embb user throughput User plane latency embb: 4ms URLLC: 1ms Single user for small IP packets, for both DL and UL (embb and URLLC) Control plane latency 20ms (encouraged to consider 10ms) Transi?on from Idle to Ac?ve (embb and URLLC) Connec?on Density 1M devices per km 2 For mmtc Reliability 99.9999% success prob. 32 L2 bytes within 1ms at cell edge Bandwidth >100 MHz; up to 1 GHz in > 6 GHz Carrier aggrega?on allowed 3 [Source: Na?onal Instruments] DRAFT NEW REPORT ITU-R M.[IMT-2020.TECH PERF REQ], Minimum requirements related to technical performance for IMT-2020 radio interface(s), Document 5/40-E, 22 February 2017

Denser networks to boost capacity Coverage Era Macro topology [+] Capacity Era HetNet topology [*] 5G Era Cell-free topology 200 users/cell 10 users/cell 10 antennas/user Planning Stochas?c Geometry Learning 2000 2010 2020 4 [+ Cooper s Law: capacity improvements due to densifica?on] [* WILL DENSIFICATION BE THE DEATH OF 5G?,IEEE ComSoc Technology News, May 5 th 2015 ]

The Death of 5G? WILL DENSIFICATION BE THE DEATH OF 5G? 5 5 IEEE ComSoc Technology News, May 5 th 2015

28 Ghz & 60 GHz 5G technology X 4 6

Beamforming! Large array => high direc?vity. Beamforming with tracking needed! Distance 2.4 GHz Distance 9.6 GHz 7 [Courtesy: C. Gustafson, Lund University]

Massive MIMO 8 [Lund] [KU Leuven] [Facebook]

Latency: mobile edge cloud 9 [hrps://www.youtube.com/watch?v=-4ffm2p1azy]

Internet of skills 10 [hrps://www.youtube.com/watch?v=ops0nut0jyi]

Transla2ng requirements into standards 11 Figure from 3gpp.org

How will 5G be standardized? 12 [Source: Qualcomm]

Early Non Standard 5G Releases Some operators and vendors have kicked off pre specifica?on 5G efforts These will be deployed significantly before New Radio Phase 1, as soon as end of 2017 Verizon 5GTF KT PyeongChang 5G Target applica?on is a narrow subset of NR target applica?ons è Fixed Wireless Access No support for mobility UEs are Consumer Premise Equipment (set-top box) Last mile connec?vity to replace fiber 13 [Source: Na?onal Instruments] Figure from Samsung Whitepaper on Fixed Wireless Access

5G Trial Deployments Have Started 14 [Source: Na?onal Instruments]

5G NR accelera?on based on NSA architecture 15 Ensuring commonality with Standalone 5G NR, plus forward compa?bility NSA opera?on requires aggrega?on of LTE-band and NR-band via Dual Connec?vity [Source: Qualcomm]

Poten2al deployment phasing EPC NextGen Core NextGen Core CP + UP UP CP + UP UP 16 LTE enb CP + UP NR gnb 1) Data flow aggregation across LTE enb and NR gnb via EPC elte enb 1) elte enb connected to NextGen Core elte enb CP + UP NR gnb 2) Data flow aggregation across elte enb and NR gnb via NextGen Core

Poten2al deployment phasing NextGen Core NextGen Core NextGen Core CP + UP UP CP + UP UP NR gnb 1) NR gnb connected to NextGen Core NR gnb CP + UP elte enb 2) Data flow aggregation across NR gnb and elte enb via NextGen Core NR gnb CP + UP NR gnb 3) Data flow aggregation across NR gnbs via NextGen Core 17

From LTE to 5G NR Phase 1 Frequency of Opera?on Carrier Bandwidth LTE Up to 6 GHz Max: 20 MHz Carrier Aggrega?on Up to 32 Up to 16 Analog Beamforming (dynamic) Not supported Supported NR Up to 6 GHz, ~28 GHz, ~39 GHz, other mmwave bands (Upto 52 GHz) Max: 100 MHz (@ <6 GHz) Max: 1 GHz (@ >6 GHz) Digital Beamforming Up to 8 Layers Up to 12 Layers Channel Coding Data: Turbo Coding Control: Convolu?onal Coding Data: LDPC Coding Control: Polar Coding Subcarrier Spacing 15 khz 15, 30, 60, 120, 240 khz Self Contained Subframe Not Supported Can be implemented Spectrum Occupancy 90% of Channel BW Up to 98% of Channel BW 18 [Source: Na?onal Instruments]

Some terminology LTE enb Capable of connec?ng to EPC (current LTE core network) elte enb Evolu?on of LTE enb capable of connec?vity to EPC and NextGen core gnb Equivalent of enb in 5G NR 19 NG The interface between NextGen core and gnb NG2: control plane interface between core network and RAN (S1-C in LTE) NG3: user plane interface between core network and RAN (S1-U in LTE)

New Frequency Ranges for NR Release 15 Frequency range Suppor2ng companies (min. 3) NTT DOCOMO, KDDI, SBM, CMCC, China Unicom, China 3.3-4.2 GHz Telecom, KT, SK Telecom, LG Uplus, E?salat, Orange, 4.4-4.99 GHz NTT DOCOMO, KDDI, SBM, CMCC, China Unicom, China Telecom, 24.25-29.5 GHz NTT DOCOMO, CMCC, KT, Verizon, T-mobile, Telecom Italia, BT 31.8-33.4 GHz Orange, Telecom Italia, Bri?sh Telecom 37-40 GHz AT&T, Verizon, T-mobile 20 [Source: Na?onal Instruments]

Release 15 LTE-NR Band Combina2ons For dual connec?vity Non-stand-alone (NSA) opera?on. 21 NR Freq. Range NR band LTE band 1 2 3 5 7 8 19 20 21 25 26 28 39 41 66 3.3-4.2 GHz YES YES YES YES YES YES YES YES YES YES YES YES 4.4-4.99 GHz YES YES YES YES YES YES YES YES YES YES 24.25-29.5GHz YES YES YES YES YES YES YES YES YES YES YES YES YES 31.8-33.4GHz YES YES YES YES 37-40GHz YES Band 7 YES YES YES Band 28 YES YES YES Band 41 YES YES YES YES Sources: RP-170847, RP-170826, R4-1702504 (DCM) YES YES YES

Feasible Maximum Channel BW To be studied further Sub-6 GHz: 100 200 MHz range Above 6 GHz: 100 MHz 1 GHz range Possibility to support maximum CBW with CA Use CA to u?lize spectrum larger than maximum CBW Note: RAN1 agreed on maximum CBW of 400 MHz in Rel-15 R4-170xxx 2GHz 2.5GHz 3.5GHz 6GHz 24GHz 43.5GHz52.3GHz Qualcomm 100M 400M 20M 50M Nokia 100M 200M 400M Samsung 200M 1G MediaTek 200M 1G Intel 100M 400M Source: R4-1702374 (Docomo, Samsung) 22 [Source: Na?onal Instruments]

Phase 2: Integrated Access and Backhaul Study support for wireless backhaul and relay links Enable flexible and very dense deployment of NR cells Avoid densifying the transport network propor?onately Both inband and outband relaying in indoor and outdoor scenarios 23 [Source: Na?onal Instruments]

Phase 2: V2X Use Cases for LTE and NR New evalua?on methodology to be defined for the new V2X use cases Vehicles Platooning Extended Sensors Advanced Driving (enables semi-automated or full-automated driving) Remote Driving Iden?fy regulatory requirements of direct communica?ons between vehicles in spectrum beyond 6GHz in different regions 63-64GHz (allocated for ITS in Europe) 76-81GHz Figure from Qualcomm website 24 [Source: Na?onal Instruments]

Conclusions 5G represents disrup2ve performance targets: 20 Gbps peak throughput Low latency To achieve this, disrup?ve technology is needed and being standardised: mmwave massive MIMO mobile edge cloud network slicing Key ques?on: cost/benefit 25

26 Thanks!