Submission doc.: IEEE 11-14/0131r1 January 2014 Masashi Shimizu, NTT CorporationSlide 1 The New Public Phone Service -Non Contact Ultra High Speed Contents.

Slides:



Advertisements
Similar presentations
Doc.: IEEE /1196r1 Submission Data Rate and Spectrum Requirements for IEEE aj (45 GHz) Date: Authors: Haiming Wang (SEU)Slide.
Advertisements

mmWave MIMO Link Budget Estimation for Indoor Environment
Wi-Gig Utilizing Unlicensed 60 GHz Spectrum. Usage Models Wireless Display Desktop storage and display Projection to TV or projector in conference room.
Submission Sep doc.: IEEE /1046r2 Zhigang Wen,et. al (BUPT)Slide 1 Discussion on Massive MIMO for HEW Date: Authors:
Doc.: IEEE /0153r1 Submission March, 2004 Ami Kanazawa, CRLSlide 1 Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs)
Comparison of different MIMO-OFDM signal detectors for LTE
Aida BotonjićTieto1 LTE Aida Botonjić. Aida BotonjićTieto2 Why LTE? Applications: Interactive gaming DVD quality video Data download/upload Targets: High.
D-LINK HQ -WRPD Apr 10 th, 2012 Sales Guide v1.00.
Doc.: IEEE /0630r0 Submission May 2015 Intel CorporationSlide 1 Verification of IEEE ad Channel Model for Enterprise Cubical Environment.
Submission doc.: IEEE /0594r0 May 2015 Slide 1 60 GHz band Japanese Regulatory Update Date: 2015-May-xx Authors: Kazu Takahashi, Panasonic.
Submission doc.: IEEE 11-15/ Approach to NG60 Peak Rate Slide 1 January 2015 Yi Wang, Huawei Authors: NameAffiliationAddressPhone Hong LiHuaweiNo.2222,
CSI Feedback for MIMO-OFDM Transmission in IEEE aj (45 GHz)
July 2015 doc.: IEEE /XXXXr0 July 2015
WiMAX Presented By Ch.Srinivas Koundinya 118T1A0435.
Doc.: IEEE : thz Submission Slide 1 Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission.
Submission doc.: IEEE 11-12/0844r0 Slide 1 Non-linear Multiuser MIMO for next generation WLAN Date: Authors: Shoichi Kitazawa, ATR.
Doc.: IEEE /1399r0 Submission November 2014 Multi-Carrier Training Field for OFDM Transmission in aj (45GHz) Authors/contributors: Date:
Doc.: IEEE /1160r0 Submission September 2014 Lei Huang, PanasonicSlide 1 Ultra Short Range (USR) Communications Usage Models for NG60 Date:
Space Time Processing for Fixed Broadband Wireless A. Paulraj Gigabit Wireless & Stanford University ISART 6 -8 September, 2000 Boulder, CO.
Doc.: IEEE d Submission May 2014 Ken Hiraga, NTT Corporation Slide 1 Project: IEEE P Working Group for Wireless Personal Area.
Doc.: IEEE /1153r2 Submission November 2009 Carlos Cordeiro, IntelSlide 1 Motivation and Requirements on 60 GHz Beamforming Date: Authors:
Submission doc.: IEEE 11-14/0114r0 January, 2014 James Gilb, TensorcomSlide 1 Requirements for Next Generation mmWave Systems Date: Authors:
Doc.: IEEE /0364r1 SubmissionEldad Perahia, Intel CorporationSlide 1 Date: Authors: Antenna Array Gain from Measured Data for n/ac.
Doc.: IEEE d Submission Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission Title: [ Proposal.
Doc.: IEEE /0007r0 Submission January 2006 Ichihiko Toyoda, NTTSlide 1 Project: IEEE P Working Group for Wireless Personal Area Networks.
Doc.: IEEE e Submission March 2015 Ken Hiraga (NTT) et al, Slide 1 Project: IEEE P Working Group for Wireless Personal Area.
Submission doc.: /0929r00 Jim Lansford(CSR), et al Slide 1 Expansion of ac to 6-10GHz Date: Authors: July 2012.
Doc.: IEEE /0935r0 Submission July 2012 Vinko Erceg, Broadcom 6-10GHz UWB Link Budget and Discussion Date: Authors: Slide 1.
Doc.: n-proposal-statistical-channel-error-model.ppt Submission Jan 2004 UCLA - STMicroelectronics, Inc.Slide 1 Proposal for Statistical.
Project: IEEE P Working Group for Wireless Personal Area Networks(WPANs) Submission Title: Link Budget for m Date Submitted: 5 March 2012.
Submission Sep doc.: IEEE XXXXr1 Zhigang Wen,et. al (BUPT)Slide 1 Discussion on Massive MIMO for HEW Date: Authors:
Doc.: IEEE Submission, Slide 1 Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission Title: [The Usage of.
Doc.: IEEE /263r0 Submission May, 2004 Yozo Shoji, CRL Slide 1 Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs)
Submission doc.: /1320r00 Bo, Sun (ZTE Corp), et al Slide 1 11aj 45GHz Link Budget for use cases discussion Date: Authors: Nov 2012.
Doc.: IEEE /1489r0 Submission Nov 2013 Airport Capacity Analysis Date: Authors: Graham Smith, DSP GroupSlide 1.
Doc.: IEEE e Submission September 2015 Various Authors (TG3e Proposal) Slide 1 Project: IEEE P Working Group for Wireless.
Submission doc.: IEEE 11-13/0523r2 May 2013 Katsuo Yunoki, KDDI R&D LaboratoriesSlide 1 Understanding Current Situation of Public Wi-Fi Usage - Possible.
Doc.: IEEE /514r0 Submission September 2004 Slide 1 Hiroyo Ogawa, NICT Project: IEEE P Working Group for Wireless Personal Area Networks.
Doc.: IEEE /0909r0 Submission July 2012 Jong S. Baek, AlereonSlide 1 Analysis, simulation and resultant data from a 6-9GHz OFDM MAC/PHY Date:
Chapter 3 Data and Signals. 3.2 Last Lecturer Summary Bit Rate Bit Length Digital Signal as a Composite Analog Signal Application Layer Distortion Noise.
Doc.: IEEE /0112r0 Zhanji Wu, et. Al. January 2013 Submission Joint Coding and Modulation Diversity for the Next Generation WLAN Date:
Doc.: IEEE /1198r0 Submission Sept 2012 Zhenyu XiaoSlide 1 Date: Authors: Performance Evaluation for 60GHz mmWave Communications with.
Doc.: IEEE /1044r0 Submission September 2008 Alexander Maltsev, IntelSlide 1 60 GHz WLAN Experimental Investigations Date: Authors:
Submission doc.: IEEE /1347r0 November 2015 Filippo Tosato, ToshibaSlide 1 Strategies to reduce MIMO feedback overhead Date: Authors:
Doc.: IEEE /0361r0 Submission Hyun Seo Oh, ETRI March 2008 Slide 1 March 2008 Slide 1 WAVE Enhancement Technologies Date: Authors:
Doc.: IEEE /1229r1 Submission November 2009 Alexander Maltsev, IntelSlide 1 Application of 60 GHz Channel Models for Comparison of TGad Proposals.
Doc.: IEEE /0632r0 Submission May 2015 Intel CorporationSlide 1 Experimental Measurements for Short Range LOS SU-MIMO Date: Authors:
PHY Rate for NG60 Date: Authors: November 2014
Doc.: IEEE d Submission May 2014 Ken Hiraga et al, NTT Corporation Slide 1 Project: IEEE P Working Group for Wireless Personal.
Doc.: IEEE /159r0 Submission March 2002 S. Hori, Y Inoue, T. Sakata, M. Morikura / NTT. Slide 1 System capacity and cell radius comparison with.
RADWIN 5000 JET Product Introduction
1) A binary transmission system uses a 8-bit word encoding system. Find the Bandwidth and the SNR dB of the system if the channel capacity is bps.
Doc.: IEEE /0535r0 Submission May 2008 Thomas Kenney, Minyoung Park, Eldad Perahia, Intel Corp. Slide 1 PHY and MAC Throughput Analysis with 80.
Doc.: IEEE /522r2 Submission July 2003 N.Kita, Y.Inoue, NTTSlide 1 Multipath Delay Profiles in a 5GHz band Naoki Kita and Yasuhiko Inoue NTT
TECHNICAL SEMINAR S V Suresh 08731A1254 By. 1 st GENERATION:  Introduced in 1980  Analog cellular mobile,Data speed 2.4kbps  1G mobiles- AMPS,NMT,TACS.
 First generation systems utilized frequency axis to separate users into different channels  Second generation systems added time axis to increase number.
doc.: IEEE <doc#>
Doc.: IEEE /0778r0 Submission Zhendong Luo, CATR July MHz PHY Transmission Date: Authors: Slide 1.
Introduction to RPW system
“An Eye View On the Future Generation Of Phones”
244-6: Higher Generation Wireless Techniques and Networks
On the Channel Model for Short Range Communications
Month Year doc.: IEEE /0523r0 May 2013
Technology and Use Cases for TGac
6-10GHz Rate-Range and Link Budget
Submission Title: [Proposed resolution to MIMO CES]
Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission Title: [The Usage of Polarized Antenna System] Date.
Technology and Use Cases for TGac
Enhanced Beam Tracking Against Blockage: Resolution to CID 145
120 MHz PHY Transmission Date: Authors: January 2010
Presentation transcript:

Submission doc.: IEEE 11-14/0131r1 January 2014 Masashi Shimizu, NTT CorporationSlide 1 The New Public Phone Service -Non Contact Ultra High Speed Contents Download Date: 2014/01/21 Authors: NameAffiliationsAddressPhone Masashi ShimizuNTT CorporationHikarinooka 1-1, Yokosuka Japan Ken HiragaNTT CorporationHikarinooka 1-1, Yokosuka Japan Kazumitsu SakamotoNTT CorporationHikarinooka 1-1, Yokosuka Japan Tomohiro SekiNTT CorporationHikarinooka 1-1, Yokosuka Japan Toshimitsu TsubakiNTT CorporationHikarinooka 1-1, Yokosuka Japan Hideki ToshinagaNTT CorporationHikarinooka 1-1, Yokosuka Japan Tadao NakagawaNTT CorporationHikarinooka 1-1, Yokosuka Japan

Submission doc.: IEEE 11-14/0131r1 Abstract This contribution will present the non-contact ultra high speed transmission service over 60-GHz band. With this contribution, it is considered that the 60-GHz band will be useful in non-contact file download kiosk system with up to 24 G bit/s and with over 100 G bit/s using MIMO. Purpose: Input for discussion on utilizing MIMO over line-of-sight channel for download kiosk application in “beyond ad”. Slide 2Masashi Shimizu, NTT Corporation January 2014

Submission doc.: IEEE 11-14/0131r1 Slide 3Masashi Shimizu, NTT Corporation January 2014 Real WLAN Speed Measurements 9:00 AM at Tokyo Station LTE Tethering g Real Speed was estimated as 2.1Mbps

Submission doc.: IEEE 11-14/0131r1 Slide 4Masashi Shimizu, NTT Corporation January 2014 High Speed Data Download Service NTT must provide carrier grade services. P-to-P is mandate to keep high transmission rate. NTT must provide carrier grade services. P-to-P is mandate to keep high transmission rate. Book 4K Images Photo and Cam Big Data Point-to-Multipoint Point-to-Point High speed Data size is growing up LTE/3G, WiFi, WiMAX, etc Optical NW Crowd server Music Movie Game High Speed Reliable communication (guaranteed quantity) Reliable communication (guaranteed quantity) Data rate was defined by the number of users.

Submission doc.: IEEE 11-14/0131r1 Slide 5Masashi Shimizu, NTT Corporation January 2014 Service roadmap NW Contents Provider Crowd Server Rental Video Platform Any Where!! Step 1 Contents Provider (Rental Video) Step 2 ( Convenience Store:48,000 、 Station:9300 Public Phone 210,000) Contents Provider Stations Public phone Gas station Convenience Store Step 3 57,000,000 Subscriber ・ At first, Solution for contents provider will launch at ・ Services will expand to public space application. ・ Finally we will these services contain anywhere. Cash Files Public Space Stations Convenience Stores

Submission doc.: IEEE 11-14/0131r1 Slide 6Masashi Shimizu, NTT Corporation January 2014 AnalogDigitalDigital (IC-card payment) 2000~2013 FY 2012 FY 1999FY 2000FY 2001FY 2002FY 2003FY 2004FY 2005FY 2006FY 2007FY 2008FY 2009FY 2010FY 2011 Number of Public Phone

Submission doc.: IEEE 11-14/0131r1 Slide 7Masashi Shimizu, NTT Corporation January 2014 We focus on the usage of millimeter wave communications with ultra short range communication (non contact). Not only ultra high speed. The Total Contact Time must be less than 1 Second. Our Target Usage Models 【 Rapid Download / Upload】 Content Holder Kiosk Home GW movie Authentication Audio and Video equipment ⇔ mobile terminal Public use Local use Throughput : > 2Gbps Range : < 5cm Throughput : > 2Gbps Range : < 5cm

Submission doc.: IEEE 11-14/0131r1 Slide 8Masashi Shimizu, NTT Corporation January 2014 Standard Comparison Communication Range Throughput (Bps) 1m 100M 1G 10G Near field Communication 10cm Transfer Jet ad New standard 10m ~ ~ ~ ~ Target Our target system concept is similar to TransferJet. But data rate is less than 1 Gbps. TrasferJet Consortium Promoters (9 Companies) Sony Corporation Toshiba Corporation etc. Adopters(36 Companies) NTT Docomo, INC. KDDI Corporation etc. ISO15693 ISO14443

Submission doc.: IEEE 11-14/0131r1 Slide 9Masashi Shimizu, NTT Corporation January 2014 Standard Specifications Frequency band ModulationRangeBeamformingIPTopologyDRM TransferJet4.5 GHzUWB 560Mbps (max) < 5cmNot RequiredNot support P to PSupport ( CPRM etc.) IEEE ad 60 GHz1.115Gbps ( SC, BPSK ) Option: 6.756Gbps ( OFDM, 64QAM ) In room gaming,…5m Rapid sync-n-go file transfer…8m Projection to TV or projection in conf. room…8m MandatorySupportAP-based BSS (Basic Service Set) PBSS (Personal BSS)…P to P Support over IP (DTCP-IP) Target60 GHz>2Gbps OFDM or SC+FDE < 5cmNot RequiredSupportP to PSupport

Submission doc.: IEEE 11-14/0131r1 Slide 10Masashi Shimizu, NTT Corporation January 2014 Discussion We need a fast link establishment. (about 100 msec or less) WiGig: Association/Authentication About 1 sec SD: File System Mount About 3 sec Data transmission Target time 100 msec or less

Submission doc.: IEEE 11-14/0131r1 Slide 11Masashi Shimizu, NTT Corporation January 2014 Surveillance of Waiting Time for Web Site Response AverageMenWomenAge 20’sAge 30’sAge40’s 3Sec 17.0 ( 17.0 ) Sec 23.8 ( 40.8 ) Sec 7.5 ( 48.3 ) Sec 25.0 ( 73.3 ) Sec 13.3 ( 86.6 ) Sec 8.0 ( 94.6 ) More than 30Sec 5.5 ( 100 ) (%) How long can you wait a response on the web site without stress ?

Submission doc.: IEEE 11-14/0131r1 Slide 12Masashi Shimizu, NTT Corporation January 2014 ContentsFile size Download time (Sec) First Step Second Step Transfer Jet ac (Draft) Read Speed 2 Gbit/s Read Speed 4 Gbit/s Real Speed 375 Mbit/s Read Speed 530 Mbit/s Book 1 MByte Comic 30 MByte Magazine 300 MByte CD 700 MByte Movie (1hour) 1.8 GByte Movie (2hour) 3.6 GByte Download Time Comparison

Submission doc.: IEEE 11-14/0131r1 Slide 13Masashi Shimizu, NTT Corporation January 2014 Realization of “Real touch-and-get” “Real touch-and-get” within 0.5 sec download with toll-gate <0.5-sec download 4 newspapers 1 Magazine 1 CD 1-hr Video (MPEG2) 1 DVD Transmission rate [Gbit/s] File size [GBytes] Gbit/s Blu-ray Disc With 100 Gbit/s, data sizes of up to a DVD (4.7 GBytes) are downloaded within 0.5 sec. Maximum file sizes allowed in 0.5-sec download Video: Busy toll-gates in the train station e.g., “ ”

Submission doc.: IEEE 11-14/0131r1 Slide 14Masashi Shimizu, NTT Corporation January 2014 RateDownload time for DVD data (4.7 GBytes) ModulationNo. of frequency channels MIMO 4.5 Gbit/s8.4 sec16QAM1 - (SISO) 6.8 Gbit/s5.5 sec64QAM1 27 Gbit/s1.4 sec64QAM4 100 Gbit/s0.4 sec 16QAM2 16x16 64QAM1 Transmission rates over 60-GHz band IEEE802.11ad OFDM PHY MCS#17: 2.1 Gbit/s (QPSK, Code rate=3/4) MCS#21: 4.5 G bit/s(16QAM,Code rate=13/16) MCS#24: 6.8 G bit/s (64QAM,Code rate=13/16) 100 Gbit/s rates are attainable using MIMO ・・・・・・ ・・・・・・ TXRX #1 #2 #M #1 #2 #M Line-of-sight environment Short-Range MIMO (SR-MIMO)

Submission doc.: IEEE 11-14/0131r1 Slide 15Masashi Shimizu, NTT Corporation January Gbit/s performance estimation d d= 4.1 mm D = 10 mm Electromagnetic simulation model of transmission channel [1] Tx array Rx array OFDM transmission simulation ParameterValue Frequency channelCh2 (f c =60.48 GHz), Ch3 (f c =62.64 GHz) No. of branches16 x 16 Transmission distanceD = 10 mm Element spacingd = 4.1 mm = 0.82 λ 0 (Optimized for this transmission distance) MIMO detectionZero Forcing (ZF) No. of data subcarriers336 Subcarrier spacing MHz ModulationQPSK, 16QAM, 64QAM Frequency channels 66 GHz57 GHz Ch1 Ch2Ch3 Ch Microstrip antenna 23mm

Submission doc.: IEEE 11-14/0131r1 Slide 16Masashi Shimizu, NTT Corporation January 2014 Over 100 Gbit/s is attainable with 16x16 MIMO using small (23 mm x 23 mm) antenna arrays that can be installed on portable devices. 100 Gbit/s performance estimation Frequency channels in 60-GHz band Ch1 Ch2Ch3 Ch [GHz] ModulationNo. of frequency channels Transmission rate QPSK133 Gbit/s 267 Gbit/s 16QAM172 Gbit/s 2144 Gbit/s 64QAM1108 Gbit/s 2216 Gbit/s Transmission rates with each modulation 16 x 16 MIMO Simulated bit error rate (BER)

Submission doc.: IEEE 11-14/0131r1 Slide 17Masashi Shimizu, NTT Corporation January 2014 Calculation conditions Transmission distance: D=1 mm Element spacing: d = 2.5 mm 16x16 MIMO 193bit/s/Hz 9x9 MIMO 115 bit/s/Hz 25x25 MIMO 284 bit/s/Hz Capacity enhancement with SR-MIMO With short-range MIMO transmission, channel capacity is almost in proportion to the number of MIMO branches. Further capacity is expected.

Submission doc.: IEEE 11-14/0131r1 SR-MIMO Channel Measurement (with 25-GHz scale model) Rx array Tx array Masashi Shimizu, NTT Corporation Rx#1 Rx#2 Tx#1 Tx#2 2.0 λ 0 d Rx array Tx array Frequency: 24.0GHz GHz (The scale model of 2- ch bonding of 60-GHz; Its relative bandwidth is the same as that in 60-GHz.) Element spacing: d = λ 0, λ 0, λ 0, λ 0, λ 0, λ 0 (λ 0 is the wavelength, 12.0mm) Transmission distance: D = 2.00 λ 0 Antenna element: Square microstrip antenna (Gain = 5.5 dBi, Beamwidth 74.8°at 25.0 GHz) Slide 18 Measurement setups

Submission doc.: IEEE 11-14/0131r1 Modem simulation using the measured SR-MIMO channel shown in the previous page clarified the BER of the short-range MIMO. Simulation setups Modulation : OFDM ( QPSK , 16QAM , 64QAM ) Subcarrier spacing : 2.13MHz No. of subcarriers : 355 Center frequency: 24.6 GHz (Ch1) and 25.4 GHz (Ch2) Masashi Shimizu, NTT Corporation SNR required for BER < BER curve (d = λ 0 ) SR-MIMO Channel Measurement (with 25-GHz scale model) Slide 19 Optimum element spacing is d = λ 0

Submission doc.: IEEE 11-14/0131r1 Slide 20Masashi Shimizu, NTT Corporation January 2014 Summary of 100 G bit/s over 60-GHz band using short-range MIMO Channel capacities of over 100 Gbit/s are attainable using MIMO at 60-GHz band With 100 Gbit/s, data sizes of up to a DVD (4.7 GBytes) are downloaded within 0.5 sec. → “Real touch-and-get” will be realized.

Submission doc.: IEEE 11-14/0131r1 References [1]Hiraga, K.; Seki, T.; Nishimori, K.; Nishikawa, K.; Uehara, K., "Ultra-high-speed transmission over millimeter-wave using microstrip antenna array," Radio and Wireless Symposium (RWS), 2010 IEEE, vol., no., pp.673,676, Jan January 2014 Masashi Shimizu, NTT CorporationSlide 21

Submission doc.: IEEE 11-14/0131r1 Backup Slide 22Masashi Shimizu, NTT Corporation January 2014

Submission doc.: IEEE 11-14/0131r1 Slide 23Masashi Shimizu, NTT Corporation January 2014 Regulation will be Changed EIRP 47dB antenna with 10mW output power. Low gain antenna was not assumed. It will be changed keeping same EIRP. Channel Bonding Now, channel band width was less than 2.15GHz. It is not arrowed Channel bonding. It will be changed. Certifications formulation More easy process to have certification

Submission doc.: IEEE 11-14/0131r1 Slide 24Masashi Shimizu, NTT Corporation January 2014 Public kiosks with downloadable movies, such as at an airport, are a great way. to make movies available to users with portable devices At multi-gigabit download speeds, a user can download an uncompressed, HD movie in one minute, or on the way to an airport gate before boarding. The kiosk can support multiple simultaneous transfers, which means even less time waiting in line.

Submission doc.: IEEE 11-14/0131r1 Slide 25Masashi Shimizu, NTT Corporation January 2014 Concept of short-range MIMO (SR-MIMO) ・・・・・・ ・・・・・・ TXRX #1 #2 #M #1 #2 #M Multipath- rich environment ・・・・・・ ・・・・・・ TXRX #1 #2 #M #1 #2 #M Line-of-sight environment (a) General MIMO(b) SR-MIMO Low spatial correlation is achieved without multipath propagation because path length differences is exploited

Submission doc.: IEEE 11-14/0131r1 Slide 26Masashi Shimizu, NTT Corporation January 2014 Further advantage of SR-MIMO We have clarified that the channel capacity obtained by zero forcing (ZF) at the receiver which does not use beam forming at the transmitter and channel state feedback is almost the same as that using eigenmode transmission when the element spacing is optimized.[1] Hence transceiver’s transmission signal processing cost for MIMO detection will be reduced compared with eigenmode transmission.

Submission doc.: IEEE 11-14/0131r1 Masashi Shimizu, NTT Corporation SR-MIMO Channel Measurement (with 25-GHz scale model) Measured frequency response (d = λ 0 ) Ch1Ch2 Ch1Ch2

Submission doc.: IEEE 11-14/0131r1 Frequency of scale model measurement Masashi Shimizu, NTT CorporationSlide 28 Scale model at 25-GHz band 25.0GHz24.561GHz25.439GHz 2-ch bonding Actual 60- GHz band