WINNER+ IMT-Advanced Evaluation Group

Similar documents
Canadian Evaluation Group

Radio Interface and Radio Access Techniques for LTE-Advanced

Capacity Enhancement Techniques for LTE-Advanced

WINNER+ Miia Mustonen VTT Technical Research Centre of Finland. Slide 1. Event: CWC & VTT GIGA Seminar 2008 Date: 4th of December 2008

System Performance Challenges of IMT-Advanced Test Environments

LTE-Advanced research in 3GPP

RF exposure impact on 5G rollout A technical overview

Institute of Electrical and Electronics Engineers (IEEE)

Daniel Bültmann, Torsten Andre. 17. Freundeskreistreffen Workshop D. Bültmann, ComNets, RWTH Aachen Faculty 6

Radio Access Techniques for LTE-Advanced

Performance Studies on LTE Advanced in the Easy-C Project Andreas Weber, Alcatel Lucent Bell Labs

Analytical Validation of the IMT- Advanced Compliant openwns LTE Simulator

3GPP: Evolution of Air Interface and IP Network for IMT-Advanced. Francois COURAU TSG RAN Chairman Alcatel-Lucent

3GPP TR V ( )

Report ITU-R M.2198 (11/2010)

System-Level Performance of Downlink Non-orthogonal Multiple Access (NOMA) Under Various Environments

Proposal for Candidate Radio Interface Technologies for IMT Advanced Based on LTE Release 10 and Beyond (LTE Advanced)

LTE-ADVANCED - WHAT'S NEXT? Meik Kottkamp (Rohde & Schwarz GmBH & Co. KG, Munich, Germany;

3GPP TR V9.0.0 ( )

Test Range Spectrum Management with LTE-A

Survey of Power Control Schemes for LTE Uplink E Tejaswi, Suresh B

Feedback Compression Schemes for Downlink Carrier Aggregation in LTE-Advanced. Nguyen, Hung Tuan; Kovac, Istvan; Wang, Yuanye; Pedersen, Klaus

Performance Analysis of Downlink Inter-band Carrier Aggregation in LTE-Advanced Wang, Hua; Rosa, Claudio; Pedersen, Klaus

ETSI TR V9.0.0 ( ) Technical Report

2016 IEEE. Personal use of this material is permitted. Permission from IEEE must be obtained for all other uses, in any current or future media,

Closed-loop MIMO performance with 8 Tx antennas

WirelessMAN. Phillip Barber Chief Scientist, Huawei Technologies

LTE-A Carrier Aggregation Enhancements in Release 11

Guidelines for evaluation of radio interface technologies for IMT-2020

LTE Aida Botonjić. Aida Botonjić Tieto 1

LTE-Advanced Evolving LTE towards IMT-Advanced

Testing Carrier Aggregation in LTE-Advanced Network Infrastructure

Interference management Within 3GPP LTE advanced

An Update from the LTE/SAE Trial Initiative

System Performance of Cooperative Massive MIMO Downlink 5G Cellular Systems

A Flexible Frame Structure for 5G Wide Area Pedersen, Klaus I.; Frederiksen, Frank; Berardinelli, Gilberto; Mogensen, Preben Elgaard

ETSI TR V ( )

Study on LTE MIMO Schemes for Indoor Scenarios

PMSE LTE Coexistence

Investigation on Multiple Antenna Transmission Techniques in Evolved UTRA. OFDM-Based Radio Access in Downlink. Features of Evolved UTRA and UTRAN

Voice over IP Realized for the 3GPP Long Term Evolution

LTE & LTE-A PROSPECTIVE OF MOBILE BROADBAND

LTE: The Evolution of Mobile Broadband

Analytical Evaluation of the Cell Spectral Efficiency of a Beamforming Enhanced IEEE m System

Aalborg Universitet. Published in: I E E E V T S Vehicular Technology Conference. Proceedings

Test strategy towards Massive MIMO

IEEE Project m as an IMT-Advanced Technology

Analytical Validation of an IMT-Advanced Compliant LTE System Level Simulator

Keysight Technologies Performing LTE and LTE-Advanced RF Measurements with the E7515A UXM Wireless Test Set

Interference Management in Two Tier Heterogeneous Network

REPORT ITU-R M

Technical Aspects of LTE Part I: OFDM

3G Evolution HSPA and LTE for Mobile Broadband Part II

Derivation of Power Flux Density Spectrum Usage Rights

3G/4G Mobile Communications Systems. Dr. Stefan Brück Qualcomm Corporate R&D Center Germany

Performance of Amplify-and-Forward and Decodeand-Forward

Radio Performance of 4G-LTE Terminal. Daiwei Zhou

2015 SoftBank Trial Akihabara,Tokyo

Proposal for Uplink MIMO Schemes in IEEE m

Keysight Technologies LTE-Advanced Signal Generation and Measurement Using SystemVue. Application Note

Introduction to Shortened TTI And Processing Time for LTE. Sam Meng HTC

Planning of LTE Radio Networks in WinProp

DOWNLINK ADAPTIVE CLOSED LOOP MIMO RESEARCH FOR 2 ANTENNAS IN TD-LTE SYSTEM

Downtilted Base Station Antennas A Simulation Model Proposal and Impact on HSPA and LTE Performance

ECC Report 203. Approved 8 November 2013

LTE systems: overview

Multiple-Antenna Techniques in LTE-Advanced

Low-power shared access to spectrum for mobile broadband Modelling parameters and assumptions Real Wireless Real Wireless Ltd.

LTE-Advanced and Release 10

Training Programme. 1. LTE Planning Overview. 2. Modelling a LTE Network. 3. LTE Predictions. 4. Frequency and PCI Plan Analysis

Addressing Future Wireless Demand

Field Test of Uplink CoMP Joint Processing with C-RAN Testbed

Coordinated Multi-Point MIMO Processing for 4G

Enhanced MIMO Influence on LTE-Advanced Network Performances

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

Providing Extreme Mobile Broadband Using Higher Frequency Bands, Beamforming, and Carrier Aggregation

Beamforming for 4.9G/5G Networks

Multi-Cell Interference Coordination in LTE Systems using Beamforming Techniques

Fair Performance Comparison between CQI- and CSI-based MU-MIMO for the LTE Downlink

TECHTRAINED. Foundations Explained. Learn Technology in 10 minutes. Contact:

Performance of Uplink Carrier Aggregation in LTE-Advanced Systems Wang, Hua; Rosa, Claudio; Pedersen, Klaus

Carrier Aggregation and MU-MIMO: outcomes from SAMURAI project

Half- and Full-Duplex FDD Operation in Cellular Multi-Hop Mobile Radio Networks

ETSI TR V9.0.0 ( ) Technical Report

Block Error Rate and UE Throughput Performance Evaluation using LLS and SLS in 3GPP LTE Downlink

Part I Evolution. ZTE All rights reserved

Improving MU-MIMO Performance in LTE-(Advanced) by Efficiently Exploiting Feedback Resources and through Dynamic Scheduling

Further Vision on TD-SCDMA Evolution

When technology meets spectrum: Bring 5G vision into Reality

LTE Air Interface. Course Description. CPD Learning Credits. Level: 3 (Advanced) days. Very informative, instructor was engaging and knowledgeable!

DOWNLINK AIR-INTERFACE...

MEASUREMENTS ON HSUPA WITH UPLINK DIVERSITY RECEPTION IN INDOOR ENVIRONMENT. Tero Isotalo and Jukka Lempiäinen

Performance evaluation of LTE in unlicensed bands for indoor deployment of ultra-broadband mobile networks

Utilization of Channel Reciprocity in Advanced MIMO System

5G deployment below 6 GHz

IMT-2000 members UTRA-TDD and UTRA-FDD

ETSI TR V1.2.1 ( )

A REVIEW OF RESOURCE ALLOCATION TECHNIQUES FOR THROUGHPUT MAXIMIZATION IN DOWNLINK LTE

Massive MIMO a overview. Chandrasekaran CEWiT

Scheduling Algorithm for Coordinated Beamforming in Heterogeneous Macro / Pico LTE-Advanced Networks

Transcription:

IEEE L802.16-10/0064 WINNER+ IMT-Advanced Evaluation Group Werner Mohr, Nokia-Siemens Networks Coordinator of WINNER+ project on behalf of WINNER+ http://projects.celtic-initiative.org/winner+/winner+ Evaluation Group.html Slide 1

WINNER+ evaluation program for the 3GPP LTE-based proposal Full evaluation of 3GPP LTE-based proposal Both FDD and TDD components ITU-R assumptions used ITU-R compliance templates and link budgets completed Guidelines on ITU-R IMT-Advanced web page taken into account 3GPP proposed configurations applied Slide 2

High level approach Analysis of proposal Analytical and inspection evaluation Calibration of environment simulations within WINNER+ Performance calibration within WINNER+ using material provided by proponents, e.g. for 3GPP LTE Rel 8 Choice of subset of 3GPP antenna configuration to study Simulation of chosen technologies and configurations Prepare Preliminary Evaluation Report (submitted to ITU-R WP5D #7) and Final Evaluation Report (to be submitted to ITU-R WP5D # 8) Slide 3

Preliminary Evaluation Report Preliminary Evaluation Report submitted to 7 th ITU-R WP5D meeting in Turin, Italy Characteristic for evaluation Method RITs, Link Directions, Test Environments Cell spectral efficiency Simulation (system level) FDD / TDD, DL / UL, InH, UMi, UMa, RMa Peak spectral efficiency Analytical FDD / TDD, DL / UL Bandwidth Inspection Cell edge user spectral efficiency Simulation (system level) FDD / TDD, DL / UL, InH, UMi, UMa, RMa Control plane latency Analytical FDD / TDD, DL / UL User plane latency Analytical FDD / TDD, DL / UL Mobility Intra- and inter-frequency handover interruption time Inter-system handover Simulation (system and link level) Analytical Inspection FDD / TDD, InH, UMi, UMa, RMa FDD / TDD, DL / UL VoIP capacity Simulation (system level) FDD / TDD, InH, UMi, UMa, RMa Deployment possible in at least one of Inspection the identified IMT bands Channel bandwidth scalability Inspection Support for a wide range of services Inspection Slide 4

Result summary in Preliminary Evaluation Report I Peak spectral efficiency WINNER+ concludes that peak spectral efficiency requirements for both DL and UL for both FDD RIT and TDD RIT are verified for the maximum antenna configuration specified in Report ITU-R M.2135. Bandwidth & Channel bandwidth scalability Both the FDD RIT and the TDD RIT fulfil the requirement to support a scalable bandwidth up to and including 40 MHz. With aggregated multiple components bandwidth up to 100 MHz can be supported. Both the FDD RIT and the TDD RIT fulfil the requirement to support of at least three bandwidth values. Control plane latency and User plane latency It is can be concluded that the user plane latency requirements for FDD RIT and TDD RIT are fulfilled. Intra- and inter-frequency handover interruption time WINNER+ concludes that both the FDD RIT and TDD RIT fulfil the handover interruption time requirements. Slide 5

Result summary in Preliminary Evaluation Report II Inter-system handover WINNER+ concludes that inter system handover between the proposal FDD and TDD RITs and another system is supported, fulfilling the corresponding requirement. Deployment possible in at least one of the identified IMT bands It is clear that the proposal supports usage of at least one IMT spectrum band and thus, that the requirement is fulfilled. Support for a wide range of services Hence, WINNER+ concludes that the service requirements are fulfilled for the FDD RIT and the TDD RIT. Slide 6

Final Evaluation Report Final Evaluation Report to be submitted to 8 th ITU-R WP5D meeting in Da Nang, Vietnam, will include in addition simulation results Characteristic for evaluation Method RITs, Link Directions, Test Environments Cell spectral efficiency Simulation (system level) FDD / TDD, DL / UL, InH, UMi, UMa, RMa Peak spectral efficiency Analytical FDD / TDD, DL / UL Bandwidth Inspection Cell edge user spectral efficiency Simulation (system level) FDD / TDD, DL / UL, InH, UMi, UMa, RMa Control plane latency Analytical FDD / TDD, DL / UL User plane latency Analytical FDD / TDD, DL / UL Mobility Simulation (system and link level) FDD / TDD, InH, UMi, UMa, RMa Intra- and inter-frequency handover Analytical FDD / TDD, DL / UL interruption time Inter-system handover Inspection VoIP capacity Simulation (system level) FDD / TDD, InH, UMi, UMa, RMa Deployment possible in at least one of the Inspection identified IMT bands Channel bandwidth scalability Inspection Support for a wide range of services Inspection Slide 7

LTE Rel-8 parameters for calibration purposes One step in the calibration work is to evaluate LTE Rel-8 under simple but common assumptions The focus is not on optimizing performance but on the calibration of the simulation tools 3GPP defined a reference LTE Rel-8 setup during the LTE-Advanced evaluation work Beneficial to use the same parameters values The 3GPP reference evaluation assumptions (and the results thereof) are available in 3GPP TR 36.814 http://www.3gpp.org/ftp/specs/html-info/36814.htm Slide 8

Proposal: Parameters for LTE Rel-8 I Parameter General Duplex method Network synchronization Handover margin Downlink transmission scheme Downlink scheduler Value Parameters and assumptions not explicitly stated here according to ITU guidelines M.2135 and 3GPP specifications FDD Synchronized 1dB 1x2 SIMO Round robin with full bandwidth allocation Downlink link adaptation Wideband CQI, no PMI on PUCCH (mode 1-0) Downlink HARQ Downlink receiver type Uplink transmission scheme Uplink scheduler 5ms periodicity, 6ms delay total (measurement in subframe n is used in subframe n+6) CQI measurement error: None MCSs based on LTE transport formats [5] Maximum four transmissions MRC 1x2 SIMO Frequency Domain Multiplexing non-channel dependent, share available bandwidth between users connected to the cell, all users get resources in every uplink subframe. With M users and Nrb PRBs available, Mh=mod(Nrb,M) users get floor(nrb/m)+1 PRBs whereas Ml=M-Mh users get floor(nrb/m) PRBs Source: 3GPP TS 36.213: Evolved Universal Terrestrial Radio Access (E-UTRA); Physical layer procedures (Release 8) Slide 9

Proposal: Parameters for LTE Rel-8 II Uplink Power control P0 = -106dBm, alpha = 1.0 Uplink Link adaptation Based on delayed measurements. Ideal channel estimate from UL transmission in subframe n can be used for rate adaptation in subframe n+7 MCSs based on LTE transport formats [5] Uplink HARQ Uplink receiver type Antenna configuration Channel estimation Control Channel overhead, Acknowledgements etc. BS antenna downtilt Feeder loss Channel model Intercell interference modeling Maximum four transmissions Proponent to specify IR or CC MMSE in frequency domain, MRC over antennas (no intercell interference rejection) Vertically polarized antennas 0.5 wavelength separation at UE, 10 wavelength separation at basestation Ideal, both demodulation and sounding LTE: L=3 symbols for DL CCHs, M=4 resource blocks for UL CCH, overhead for demodulation reference signals, ITU Indoor, indoor hotspot scenario (InH): N/A ITU Microcellular, urban micro-cell scenario (Umi): 12deg ITU Base coverage urban, Urban macro-cell scenario (Uma): 12deg ITU High speed, Rural macro-cell scenario (Rma): 6 deg Case 1 3GPP 3D: 15 deg Case 1 3GPP 2D: N/A 0dB, except for the ITU scenarios in step 1a where a feeder loss of 2dB is used. According to ITU for ITU scenarios SCM urban macro high spread for 3GPP case 1 Explicit Source: 3GPP TS 36.213: Evolved Universal Terrestrial Radio Access (E-UTRA); Physical layer procedures (Release 8) Slide 10

Calibration metrics Average SINR (per UE) distribution [db] Normalized user throughput distribution [bps/hz] The resulting statistics will be used for comparison between WINNER+ partners only, and will not be intended as a true measure of LTE Rel 8 performance. Slide 11

Calibrated scenarios Rel-8 User Throughput InH DL Rel-8 User Throughput UMi DL Rel-8 User Throughput UMa DL Rel-8 User Throughput RMa DL Rel-8 User Throughput InH UL Rel-8 User Throughput UMi UL Rel-8 User Throughput UMa UL Rel-8 User Throughput RMa UL Slide 12

Rel-8 User Throughput InH DL 100 90 C.D.F. [%] 80 70 60 50 Org. 1 Org. 2 Org. 4 Org. 5 Org. 6 3GPP 40 30 20 10 Statistics used for calibration only, not intended as a true measure of LTE Rel 8 performance. 0 normalized user throughput [bps/hz] 0,0 0,1 0,2 0,3 0,4 0,5 0,6 0,7 0,8 0,9 1,0 Slide 13

Rel-8 User Throughput UMi DL 100 90 80 70 C.D.F. [%] 60 50 40 Org. 1 Org. 2 30 Org. 4 Org. 5 20 10 Statistics used for calibration only, not intended as a true measure of LTE Rel 8 performance. Org. 6 Org. 7 0 0,0 0,1 0,2 0,3 0,4 0,5 0,6 0,7 0,8 0,9 1,0 normalized user throughput [bps/hz] Slide 14

Rel-8 User Throughput UMa DL 100 90 80 70 C.D.F. [%] 60 50 40 30 20 10 Statistics used for calibration only, not intended as a true measure of LTE Rel 8 performance. Org. 1 Org. 2 Org. 3 Org. 4 Org. 5 Org. 6 Org. 7 0 0,0 0,1 0,2 0,3 0,4 0,5 0,6 0,7 0,8 0,9 1,0 normalized user throughput [bps/hz] Slide 15

Rel-8 User Throughput RMa DL 100 90 80 70 60 C.D.F. [%] 50 40 30 20 10 Statistics used for calibration only, not intended as a true measure of LTE Rel 8 performance. Org. 1 Org. 2 Org. 3 Org. 4 Org. 5 Org. 6 0 0,0 0,1 0,2 0,3 0,4 0,5 0,6 0,7 0,8 0,9 1,0 Org. 7 normalized user throughput [bps/hz] Slide 16

Rel-8 User Throughput InH UL 100 90 80 70 60 C.D.F. [%] 50 40 30 20 Org. 1 Org. 5 10 Statistics used for calibration only, not intended as a true measure of LTE Rel 8 performance. 0 0,0 0,1 0,2 0,3 0,4 0,5 0,6 0,7 0,8 0,9 1,0 normalized user throughput [bps/hz] Slide 17

Rel-8 User Throughput UMi UL 100 90 80 70 60 C.D.F. [%] 50 40 30 20 10 Statistics used for calibration only, not intended as a true measure of LTE Rel 8 performance. Org. 1 Org. 5 0 0,0 0,1 0,2 0,3 0,4 0,5 0,6 0,7 0,8 0,9 1,0 normalized user throughput [bps/hz] Slide 18

Rel-8 User Throughput UMa UL 100 90 80 70 60 C.D.F. [%] 50 40 30 Org. 1 20 10 Statistics used for calibration only, not intended as a true measure of LTE Rel 8 performance. Org. 5 Org. 6 0 0,0 0,1 0,2 0,3 0,4 0,5 0,6 0,7 0,8 0,9 1,0 normalized user throughput [bps/hz] Slide 19

Rel-8 User Throughput RMa UL 100 90 80 70 60 C.D.F. [%] 50 40 30 20 10 Statistics used for calibration only, not intended as a true measure of LTE Rel 8 performance. Org. 1 Org. 5 0 0,0 0,1 0,2 0,3 0,4 0,5 0,6 0,7 0,8 0,9 1,0 normalized user throughput [bps/hz] Slide 20

Conclusions Preliminary Evaluation Report submitted to ITU-R WP5D 7 th meeting Analytical and inspection evaluation done Feedback from ITU-R WP5D 7 th meeting on peak spectral efficiency taken into account for Final Evaluation Report Calibration of link and system level simulators of different WINNER+ members under preparation by using Rel-8 results as benchmark Good alignment of simulators achieved Simulation results of required test cases will be submitted as part of Final Evaluation Report to ITU-R WP5D 8 th meeting Slide 21

References For structure, partner list, background and history see the WINNER+ presentation from ITU-R IMT-Advanced Workshop #3: http://groups.itu.int/default.aspx?tabid=721&dmxmodule=1154&entryid =186&Command=Core_Download WINNER+ evaluation home page: http://projects.celticinitiative.org/winner+/winner+%20evaluation%20group.html WINNER+ calibration document (living document): http://projects.celtic-initiative.org/winner+/winner+%20and%20itu- R%20EG%20documents/Calibration%20for%20IMT- Advanced%20Evaluations.pdf Slide 22

Thank you! Slide 23