WRC-15 5G Spectrum. DIGITALEUROPE recommendations for spectrum above 6 GHz Luigi Ardito

Similar documents
The journey for 5g

Sharing scenarios of 5G (IMT-2020) networks with the incumbent and future satellite communication systems

5G deployment below 6 GHz

Does anybody really know what 5G is? Does anybody really care?

FUTURE SPECTRUM WHITE PAPER DRAFT

9. Spectrum Implications

Finding right frequencies

Japan s Radio Policies Towards 5G

Requirements on 5G Development Device manufacturer s perspective

Evolution of cellular wireless systems from 2G to 5G. 5G overview th October Enrico Buracchini TIM INNOVATION DEPT.

Mario Maniewicz Deputy-Director, Radiocommunication Bureau Commonwealth Spectrum Management Forum London, October 2017

5G: implementation challenges and solutions

AIS Annual Investor Day 2016 Digital Transformation at AIS. 18 November 2016

9. Spectrum Implications

5G: New Air Interface and Radio Access Virtualization. HUAWEI WHITE PAPER April 2015

Millimeter wave: An excursion in a new radio interface for 5G

Use of TV white space for mobile broadband access - Analysis of business opportunities of secondary use of spectrum

Update on ITU-R Working Party 5D on IMT-2020 for 5G

THE USE OF MHZ FOR 5G EARLY ROLLOUT: OPPORTUNITIES AND CHALLENGES

Spectrum studies in 5GMF

Contents. Introduction Why 5G? What are the 4G limitations? Key consortium and Research centers for the 5G

RADIO SPECTRUM COMMITTEE

When technology meets spectrum: Bring 5G vision into Reality

Huawei response to the Ofcom call for input: Fixed Wireless Spectrum Strategy

Spectrum related aspects for nextgeneration

5G Synchronization Aspects

Millimeter-Wave Communication and Mobile Relaying in 5G Cellular Networks

ACHIEVING SPECTRUM HARMONISATION TO DELIVER CONNECTIVITY TO NEXT 1 BILLION Joaquin Restrepo, Chief of Outreach and Publication Services Division, BR/

RADIO SPECTRUM COMMITTEE

Testing Carrier Aggregation in LTE-Advanced Network Infrastructure

Introduction. Our comments:

AGENDA ITU Regional Workshop Current Trends and Best Practices of Satellite Communications Minsk, May ATDI Experience

SaskTel Comments: Gazette Notice SLPB Consultation on the Spectrum Outlook 2018 to February 16, Page 1

COMMENTS OF TELESAT CANADA

Long Term Evolution (LTE) and 5th Generation Mobile Networks (5G) CS-539 Mobile Networks and Computing

Network Energy Performance of 5G Systems. Dr. Ylva Jading Senior Specialist Ericsson Research

UMTS Forum key messages for WRC 2007

Key technologies for future wireless systems

RAPTORXR. Broadband TV White Space (TVWS) Backhaul Digital Radio System

5G: Opportunities and Challenges Kate C.-J. Lin Academia Sinica

Tomorrow s Wireless - How the Internet of Things and 5G are Shaping the Future of Wireless

Communicator II WIRELESS DATA TRANSCEIVER

Executive Summary Introduction to 5G Applications Driving 5G Spectrum Requirements... 3

SPECTRUM FOR IMT AI 1.1.3

High Speed E-Band Backhaul: Applications and Challenges

mmwave Fixed Wireless Regulatory Aspects

Future use of millimetre waves outcome of WRC-15 and study priorities for WRC-19

A 5G Paradigm Based on Two-Tier Physical Network Architecture

RIDE RADWIN 5000 HPMP HIGHWAY. RADWIN 5000 HPMP product brochure. RADWIN 5000 HPMP High Capacity Point to Multi-Point Solution

Your response. Our case is set out in the attachment below:

RADWIN 5000 HPMP HIGH CAPACITY POINT TO MULTI-POINT. RADWIN 5000 HPMP product brochure RIDE RADWIN 5000 HPMP WIRELESS HIGHWAY

Journal of Telecommunications System & Management

MSIT 413: Wireless Technologies Week 10

Minimum requirements related to technical performance for IMT-2020 radio interface(s)

Next Generation Mobile Networks

Delivering effective 5G/IMT-2020 service implementation economically. Joaquin Restrepo, Chief of Outreach and Publication Services Division,BR/ ITU

Satellite Services Regulatory Issues and Broadband Internet

IARU Positions on WRC-15 Agenda Items

PERCEIVED INFINITE CAPACITY

Huawei response to the Ofcom consultation on Future use of the 700MHz band

How to tackle 5G challenges Dr. Dominique Noguet Head of Communication and Security Technologies Dpt CEA-LETI

Director General 25 May 2007 Telecommunications Policy Branch Industry Canada 1612A, 300 Slater St. Ottawa,Ontario K1A 0C8. Dear Mr.

REGULATORY GUILDELINES FOR DEPLOYMENT OF BROADBAND SERVICES ON THE GHz BAND

RRS-17 Africa Forum Emerging Innovative Technologies

Deployment scenarios and interference analysis using V-band beam-steering antennas

Mobile Broadband Everywhere: Impact of the Spectrum Harmonisation

New Radio for 5G. The future of mobile broadband

5GCHAMPION. mmw Hotspot Trial, Results and Lesson Learned. Dr. Giuseppe Destino, University of Oulu - CWC Dr. Gosan Noh, ETRI

Radio frequencies designated for enhanced road safety in Europe - C-Roads position on the usage of the 5.9 GHz band

5G - The multi antenna advantage. Bo Göransson, PhD Expert, Multi antenna systems Systems & Technology

3GPP RAN1 Status: LTE Licensed-Assisted Access (LAA) to Unlicensed Spectrum Richard Li

5G and IMT Identification - Views from CEPT- Alexander Kühn (CPG-19 Chairman) March 2017

Mark Niehus, RCDD DAS Simplified

Electronic Communications Committee (ECC) within the European Conference of Postal and Telecommunications Administrations (CEPT)

WRC-15: Decisions & Implications Ethan Lavan GVF

5G Outlook Test and Measurement Aspects Mark Bailey

Progress on LAA and its relationship to LTE-U and MulteFire. Qualcomm Technologies, Inc. February 22, 2016

ATDI Software Use for Space Services Yerevan, 15 December 2017

Smart Meter connectivity solutions

Prototyping Next-Generation Communication Systems with Software-Defined Radio

The 5th Smart Antenna Workshop 21 April 2003, Hanyang University, Korea Broadband Mobile Technology Fumiyuki Adachi

WRC-19 Agenda Item HAPS. Ashwani Rana Head of Connectivity Policy, Facebook, South & Central Asia

Vehicle-to-X communication using millimeter waves

5GMF activities for 2020 and beyond in Japan

2.4GHz & 900MHz UNLICENSED SPECTRUM COMPARISON A WHITE PAPER BY INGENU

I E E E 5 G W O R L D F O R U M 5 G I N N O V A T I O N S & C H A L L E N G E S

Millimeter Wave Communication in 5G Wireless Networks. By: Niloofar Bahadori Advisors: Dr. J.C. Kelly, Dr. B Kelley

RF exposure impact on 5G rollout A technical overview

RADIO SPECTRUM POLICY GROUP. Opinion on Spectrum Aspects of Intelligent Transport Systems

mm Wave Communications J Klutto Milleth CEWiT

ANNEX TO QUALCOMM COMMENTS ON THE DRAFT IMT ROADMAP

5G in Macedonia and QoS Regulation

RADWIN 5000 JET REDEFINING POINT-TO-MULTIPOINT WIRELESS CONNECTIVITY IN SUB-6GHZ BANDS

Mr. Marc Dupuis Director General, Engineering, Planning and Standards Branch Industry Canada 19 th Floor, 300 Slater Street Ottawa ON K1A 0C8

Ultra Dense Network: Techno- Economic Views. By Mostafa Darabi 5G Forum, ITRC July 2017

LONG HAUL MULTI- GIGABIT MICROWAVE: A NEW APPROACH. An Advanced Technology Webinar From Aviat Networks. 14 August 2013

Cover note to draft ECC/DEC/(06)AA on UWB

Spectrum for "5G" where is the problem? Jens Zander Scientific Director, KTH The Royal Institute of Technology, Stockholm, Sweden

Broadband Wireless Access: Radio Spectrum Policy aspects

Exalt Microwave Backhaul Systems

Transcription:

WRC-15 5G Spectrum DIGITALEUROPE recommendations for spectrum above 6 GHz Luigi Ardito 14, Rue de la Science, 1040 Brussels [Belgium] T: +32 2 609 53 10 F: +32 2 431 04 89 www.digitaleurope.org - info@digitaleurope.org

5G Vision and Usage Scenarios 5G will enable new services, connect new industries and empower new user experiences in networks with lower cost of deployment and operation, with a more consistent user experience, higher capacity and better energy efficiency High data rates and capacity will be provided, with target data rates of 10 Gbps or more in order to meet increasing requirements on quality and bit rates (e.g. for high resolution video streaming and augmented reality) and to satisfy the requirements of more cloud based services of all types: financial, entertainment, educational and many others. Massive increase of connectivity capabilities will serve the increasing number of connected devices (Internet of Things), due to e.g. machine-type communication and sensors (roads, railways, safety systems). Substantial reduction of latency, to the order of 1 ms or less will enable new latency-critical applications e.g. for traffic safety, critical infrastructure protection, gaming or emerging industrial internet applications. Energy-efficient systems and devices will reduce power consumption and enable ultra-long battery life. Lower network deployment and operational costs will drive affordable services.

5G Spectrum Requirements Traditional cellular frequency bands ( < 6 GHz) will remain important for mobile services, but will not provide sufficient bandwidth for all 5G applications. necessary to have access to a range of frequency bands > 6 GHz (coverage in urban/suburban areas, outdoor-toindoor coverage) different bands (below and above 6 GHz) may be used in conjunction for different deployment scenarios to provide very high bit rates and total throughput as well as guaranteed QoS/coverage. Harmonized and contiguous spectrum of sufficient bandwidth to deliver 5G services and to simplify implementation Contiguous channel bandwidths of about 1 GHz for peak bit rates of 10 Gbps or more as well as frequency bands of lower bandwidth, possibly in the order of 100 MHz, but with better coverage and lower complexity for equipment Carrier aggregation, also with spectrum below 6 GHz, to increase available bandwidth at the cost of increased complexity. Sufficient backhaul spectrum must be available to handle the increasing data rates and total traffic.

5G Spectrum Requirements above 6 GHz Spectrum < 20 GHz Propagation characteristics facilitate better area coverage with relatively simple antenna. Generally speaking, the potential bandwidth available in these frequencies may be limited for some 5G capabilities, especially for the possibility to deliver extremely high data rate services although bands of several hundred MHz in this range will be of relevance to 5G deployments Complementing spectrum below 6 GHz with bands between 6 and 20 GHz allows for incremental steps. Spectrum between around 20 GHz to around 40 45 GHz More challenging propagation characteristics but these may be overcome by using more complex antenna array technologies. Potential bands with very wide contiguous bandwidth suitable for the delivery of very high data rates. Complex antenna arrays can realistically be implemented in the limited space in handheld devices and component and sub-system technology is available to efficiently and cost-effectively deliver services in an outdoor mobile environment. Spectrum above around 45 GHz and up to the 70 GHz A key driver is the possibility for very wide frequency ranges (several GHz) that can support extremely high giga-bit services especially delivering high user quality of experience more suited to hot spot areas, in particular for indoor scenarios. Application of advanced antenna technology.

Regional Common Proposals Towards WRC-15

Conclusions and Recommendations Good support for an A.I. for IMT spectrum > 6 GHz toward WRC-19 with sufficient alternatives proposed > 30 GHz. Studies in a range of frequency bands are needed to satisfy the diverse range of 5G applications and usage scenarios. Spectrum bands in ranges <20 GHz will be important as well as those between 20 and 30 GHz, between 30 and 45 GHz and > 45 GHz. Bands < 20 GHz are under-represented in the WRC-15 AI10 proposals - Further frequency bands/ ranges < 20 GHz should be studied under the expected agenda item Studies are also needed to investigate sharing opportunities of other systems with 5G systems. CEPT should not take a vocal position against proposals from other Regions to include the 27.5 29.5 GHz band and continues to remain neutral on other bands/ranges below 30 GHz proposed for future studies. Opportunity for implementation harmonization provided by the bands 24.25/24.5 27.5 GHz and 27.5 29.5 GHz and thus both of these bands should be kept on the list for this study item. Spectrum requirements for backhaul should also be considered to assure a good functioning of the overall 5G systems.

Conclusions and Recommendations DIGITALEUROPE recommends European institutions and administrations to consider: Making available spectrum for 5G deployment by 2020. Developing a detailed investigation of spectrum within CEPT for spectrum above 6GHz covering all the existing Radio Services, their use and future needs and trends, in order to better understand the spectrum opportunities for 5G systems. Supporting harmonization of spectrum allocations, in order to enable economy-ofscale advantages for development of 5G systems. Consider flexible spectrum management capabilities, ranging from exclusive use of spectrum to license-shared access and license-exempt of the frequencies to enable the 5G use cases and business models.