Claudio Fiandrino, IMDEA Networks, Madrid, Spain

Similar documents
5G Mobile Communications in the mm-wave spectrum - Opportunities and Challenges Mythri Hunukumbure-Samsung R&D Institute, UK

Adrian Loch, Hany Assasa, Joan Palacios, and Joerg Widmer IMDEA Networks Institute. Hans Suys and Björn Debaillie Imec Belgium

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

Reconfigurable Hybrid Beamforming Architecture for Millimeter Wave Radio: A Tradeoff between MIMO Diversity and Beamforming Directivity

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

Next Generation Mobile Communication. Michael Liao

System Level Challenges for mmwave Cellular

Beamforming for 4.9G/5G Networks

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

Millimeter Wave Communications:

Multi-Aperture Phased Arrays Versus Multi-beam Lens Arrays for Millimeter-Wave Multiuser MIMO

2015 The MathWorks, Inc. 1

Millimeter Wave Wireless Communications Workshop #1: 5G Cellular Communications

PROGRESSIVE CHANNEL ESTIMATION FOR ULTRA LOW LATENCY MILLIMETER WAVE COMMUNICATIONS

mm-wave communication: ~30-300GHz Recent release of unlicensed mm-wave spectrum

Interference in Finite-Sized Highly Dense Millimeter Wave Networks

All Beamforming Solutions Are Not Equal

Coverage and Rate in Finite-Sized Device-to-Device Millimeter Wave Networks

mm Wave Communications J Klutto Milleth CEWiT

Estimating Millimeter Wave Channels Using Out-of-Band Measurements

Muhammad Nazmul Islam, Senior Engineer Qualcomm Technologies, Inc. December 2015

Auxiliary Beam Pair Enabled AoD Estimation for Large-scale mmwave MIMO Systems

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

Wideband Channel Tracking for mmwave MIMO System with Hybrid Beamforming Architecture

Compressed-Sensing Based Multi-User Millimeter Wave Systems: How Many Measurements Are Needed?

What is the Role of MIMO in Future Cellular Networks: Massive? Coordinated? mmwave?

Millimeter Wave Cellular Channel Models for System Evaluation

What s Behind 5G Wireless Communications?

5G Millimeter-Wave and Device-to-Device Integration

WHITE PAPER. Hybrid Beamforming for Massive MIMO Phased Array Systems

NR Physical Layer Design: NR MIMO

PoC #1 On-chip frequency generation

(some) Device Localization, Mobility Management and 5G RAN Perspectives

Massive MIMO for the New Radio Overview and Performance

Vehicle-to-X communication for 5G - a killer application of millimeter wave

Multiple Antenna Processing for WiMAX

5G, WLAN, and LTE Wireless Design with MATLAB

Wearable networks: A new frontier for device-to-device communication

Prototyping Next-Generation Communication Systems with Software-Defined Radio

5G Outlook Test and Measurement Aspects Mark Bailey

5G System Concept Seminar. RF towards 5G. Researchers: Tommi Tuovinen, Nuutti Tervo & Aarno Pärssinen

Low-Complexity Beam Allocation for Switched-Beam Based Multiuser Massive MIMO Systems

Technical challenges for high-frequency wireless communication

High Speed E-Band Backhaul: Applications and Challenges

Harvesting Millimeter Wave Spectrum for 5G Ultra High Wireless Capacity Challenges and Opportunities Thomas Haustein & Kei Sakaguchi

University of Bristol - Explore Bristol Research. Peer reviewed version. Link to published version (if available): /ICCE.2012.

Challenges and Solutions for Networking in the Millimeter-wave Band

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

MIllimeter-wave (mmwave) ( GHz) multipleinput

Exploring the Potential of mmwave for 5G Mobile Access

Challenges & Solutions for above 6 GHz Radio Access Network Integration for Future Mobile Communication Systems

Millimeter wave opportunities & challenges: an industry perspective. Carlos Cordeiro Senior Director/Senior Principle Engineer Intel Corporation

K E Y N O T E S P E E C H. Deputy General Manager / Keysight Technologies

Millimeter-wave Field Experiments with Many Antenna Configurations for Indoor Multipath Environments

Hybrid Transceivers for Massive MIMO - Some Recent Results

Simulation for 5G New Radio System Design and Verification

Understanding End-to-End Effects of Channel Dynamics in Millimeter Wave 5G New Radio

5G Antenna Design & Network Planning

Millimeter Waves. Millimeter Waves. mm- Wave. 1 GHz 10 GHz 100 GHz 1 THz 10 THz 100 THz 1PHz. Infrared Light. Far IR. THz. Microwave.

Smart Antenna Techniques and Their Application to Wireless Ad Hoc Networks. Plenary Talk at: Jack H. Winters. September 13, 2005

Millimeter Wave Mobile Communication for 5G Cellular

Implications of mmw to Communications Systems Design & Test

HOW DO MIMO RADIOS WORK? Adaptability of Modern and LTE Technology. By Fanny Mlinarsky 1/12/2014

Low RF-Complexity Technologies for 5G Millimeter-Wave MIMO Systems with Large Antenna Arrays

RF Considerations for Wireless Systems Design. Frank Jimenez Manager, Technical Support & Service

This is an electronic reprint of the original article. This reprint may differ from the original in pagination and typographic detail.

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

Wireless Networked Systems

Coordinated Multi-Point Transmission for Interference Mitigation in Cellular Distributed Antenna Systems

5G systems: The mmmagic project perspective on Use cases and Challenges between GHz

5G: implementation challenges and solutions

University of Bristol - Explore Bristol Research. Peer reviewed version. Link to published version (if available): /TWC.2004.

RF Front-End. Modules For Cellphones Patent Landscape Analysis. KnowMade. January Qualcomm. Skyworks. Qorvo. Qorvo

Vehicle-to-X communication using millimeter waves

Old stuff refurbished for 5G:

Millimeter wave communication: From Origins to Disruptive Applications

TS 5G.201 v1.0 (2016-1)

Radio Resource Management Considerations for 5G Millimeter Wave Backhaul / Access Networks

Towards 100 Gbps: Ultra-high Spectral Efficiency using massive MIMO with 3D Antenna Configurations

International Journal of Engineering & Computer Science IJECS-IJENS Vol:13 No:03 1

White paper. Long Term HSPA Evolution Mobile broadband evolution beyond 3GPP Release 10

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

Why Time-Reversal for Future 5G Wireless?

MATLAB COMMUNICATION TITLES

High Spectral Efficiency Designs and Applications. Eric Rebeiz, Ph.D. Director of Wireless Technology 1 TARANA WIRELESS, INC.

5G 무선통신시스템설계 : WLAN/LTE/5G

Simple Algorithm in (older) Selection Diversity. Receiver Diversity Can we Do Better? Receiver Diversity Optimization.

802.11ax Design Challenges. Mani Krishnan Venkatachari

Fast and Infuriating: Performance and Pitfalls of 60 GHz WLANs Based on Consumer-Grade Hardware

CHAPTER 10 CONCLUSIONS AND FUTURE WORK 10.1 Conclusions

Challenges of 5G mmwave RF Module. Ren-Jr Chen M300/ICL/ITRI 2018/06/20

K.NARSING RAO(08R31A0425) DEPT OF ELECTRONICS & COMMUNICATION ENGINEERING (NOVH).

Interference management Within 3GPP LTE advanced

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

Operational aspects of FSOLs are considered in Report ITU-R F.2016 [1]. Mobile network backhaul is recommended as one of the basic applications of FSO

On the Security of Millimeter Wave Vehicular Communication Systems using Random Antenna Subsets

5G Communications at mmwave Frequency Bands: from System Design Aspect

Millimeter Wave for 5G Network: A Survey

Beyond 4G: Millimeter Wave Picocellular Wireless Networks

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

Transcription:

1 Claudio Fiandrino, IMDEA Networks, Madrid, Spain

2

3 Introduction on mm-wave communications Localization system Hybrid beamforming Architectural design and optimizations

4 Inevitable to achieve multi-gbit/s data rates expected in 5G Spectrum is very crowded at current frequencies up to ~6 GHz GHz of spectrum available at mm-wave frequencies (> 24 GHz) BUT: High frequency related path loss Atmospheric absorption at very high frequencies More noise due to very wide bandwidth Most materials block the signal (also humans!) Communication primarily line-of-sight RF design much harder at these frequencies

5 Very directive signal align the beams and keep alignment Short range frequent handovers or multi-hop relaying Many access points efficient network management and control, energy efficiency Blockage fall back to lower frequency Little interference encourage parallel transmissions No omni-directional control signals for coordination new MAC paradigms High rate variations requires flexible transport protocol Typical packet size too small for Gbit/s rates extreme packet aggregation (100s of packets) and many many more

6 Objectives: indoor localization and SLAM Additionally: network optimization AP association, beam steering, handover, rate adaptation Angle of arrival/departure information from the beam-training can be used for surprisingly accurate location system Exploit multi-path scarcity in mm-wave propagation High attenuation allows only for first- or at most second-order reflections Signals arriving at a receiver can be easily traced back to transmitter Room RX TX Third-order reflection is lost Joan Palacios, Paolo Casari, and Joerg Widmer. Jade: Zero-knowledge device localization and environment mapping for millimeter wave systems. IEEE INFOCOM, Atlanta, GA, USA, May 2017.

7 Joint Anchor and Device location Estimation (JADE) Unknown access point (AP) locations, unknown floor plan Learn: make use of history of locations for refinement Outperforms even algorithms that assume floor plan and APs are known! Two connected rooms APs User Trajectory

8 Overall objective is to develop a standard-ready mobile radio access technology (RAT) operating in wide contiguous bandwidth above 6 GHz (including mm-wave frequencies) 1 2 3 Investigate suitable frequency ranges (6-100 GHz) for extremely high capacity mobile broadband services Conduct measurements and develop accurate channel models for identified candidate frequency ranges. Develop novel mobile radio access technologies for 5G systems in frequency above 6 GHz 6 vendors Samsung (Coordinator), Ericsson(Technical Manager), Alcatel-Lucent, Huawei, Intel, Nokia 2 operators Orange, Telefonica, 3 research institutes HHI, CEA-Leti, IMDEA 4 universities Aalto, Bristol, Chalmers, Dresden 1 SME QAMCOM 2 test equipment suppliers Keysight, Rhode & Schwarz 3 White Papers 17 Public Deliverables 65+ Publications in top venues http://5g-mmmagic.eu/ Website Objectives Consortium Facts

9 Tradeoff between performance and complexity Capable of achieving multiplexing gains (multiple parallel streams) with low complexity hardware Phase shifters Heath et al. Channel estimation and hybrid precoding for mmwave wave cellular systems IEEE Journal on Sel. Topics in Sig. Proc., Oct 2014

10 Orthogonal Matching Pursuit (OMP) algorithm with dynamic dictionary learning mechanism Our work Fully digital Prior work Better beam shapes with lower complexity hardware 64 antenna elements Our work: design with 8 RF chains with 2-bit RF phase shifters Prior work: 32 RF chains with 7-bit RF phase shifters D. De Donno, J. Palacios and J. Widmer, "Millimeter-Wave Beam Training Acceleration Through Low-Complexity Hybrid Transceivers," in IEEE Trans on Wireless Communications, vol. 16, no. 6, pp. 3646-3660, June 2017. DOI: 10.1109/TWC.2017.2686402

11 TCP performs poorly over wireless links Mm-wave link offer high capacity In LOS the congestion window assumes high values Sudden (short) NLOS can lead TCP to RTO and recover from SS Radio Link Control (RLC) & RTO timer

12 Throughtput optimization:

13

14 Unacceptable propagation loss with omnidirectional antennas Use highly directional antennas Increase gain at transmitter and receiver to overcome high path loss and absorption Antenna size directly related to wavelength small form factor Typically: phased antenna arrays with analog phase shifters and many antenna elements Inexpensive, simple design (but sub-optimal beam shapes) Mobile AP Standard: IEEE 802.11ad Phased Antenna Array

15 Device discovery and beaconing become much more challenging compared to omni-directional communication Communicating devices need to precisely align their transmission and reception beams Beam training: Transmitter transmits a beacon packet including a sector ID on each of its transmit sectors Brute force

16 Joint Anchor and Device location Estimation (JADE) Several triangulation steps Reflections are transformed into vectors departing from the position of the virtual anchor Iterate over unknown position of terminal and unknown positions of anchors Needs user mobility over time Wall Reflection Terminal AP

17 Definition of enabling concepts for new Radio Access Network (RAN) Multi-connectivity and internetworking with LTE RRC_INACTIVE state Cell clustering Network Slicing Self-backhauling 5G PPP mmmagic, Architectural enablers and concepts for mm-wave RAN integration, White Paper, March 2017, Available at: https://5g-mmmagic.eu/

18 HARQ Process limiting factor...... ACK within same TTI possible solution Or flexible HARQ