Doc.: IEEE 802.11-10/0112r2 Submission January, 2010 Hirokazu Sawada, Tohoku UniversitySlide 1 [Intra-cluster response model and parameter for channel.

Slides:



Advertisements
Similar presentations
Doc.: IEEE c Submission July, 2006 Tony Pollock, NICTASlide 1 Project: IEEE P Working Group for Wireless Personal Area Networks.
Advertisements

Doc.: IEEE /0645r0 Submission May, 2010 Shuzo Kato, NICT/TUSlide 1 [Intra cluster response model and parameter for the enterprise cubicle environments.
Submission doc.: IEEE /0296r0 March 2015 Cagatay Capar, EricssonSlide 1 Long range indoor channel measurements for the 60 GHz band Date:
Doc.: IEEE /0436r0 Submission February 2011 Mediatek Path Loss and Delay Spread Models for 11ah Date: Authors: Slide 1.
Doc.: IEEE /0630r0 Submission May 2015 Intel CorporationSlide 1 Verification of IEEE ad Channel Model for Enterprise Cubical Environment.
802.11ax scenario 1 CCA Date: Authors: March 2015
July 2015 doc.: IEEE /XXXXr0 July 2015
Doc.: IEEE /0489r1 Submission May 2010 Alexander Maltsev, IntelSlide 1 PHY Performance Evaluation with 60 GHz WLAN Channel Models Date:
Doc.: IEEE /1361r3 Submission Channel Measurement for IEEE aj (45 GHz) Date: Authors/contributors: Haiming Wang (SEU)Slide 1.
Doc.: IEEE /0323r1 Submission March 2009 Vinko Erceg, BroadcomSlide 1 TGad Channel Model Requirements Date: Authors:
Doc.: IEEE c Submission January 2006 Slide 1 Hiroyo Ogawa, NICT Project: IEEE P Working Group for Wireless Personal Area Networks.
Doc.: IEEE /0402r2 Submission May 2012 Haiming Wang, Xiaoming PengSlide 1 Date: Authors: Overview of CWPAN SG5 QLINKPAN.
Doc.: IEEE /1152r0 Submission November 2009 Tian-Wei Huang, National Taiwan UniversitySlide 1 60-GHz Living-Room Channel Measurements Date:
Doc.: IEEE htsg Submission July 2003 MetalinkSlide 1 Time Variable HT MIMO Channel Measurements Nir Tal Metalink
Doc.: IEEE /0364r1 SubmissionEldad Perahia, Intel CorporationSlide 1 Date: Authors: Antenna Array Gain from Measured Data for n/ac.
Doc.: IEEE c Submission March, 2006 Tony Pollock, NICTASlide 1 Project: IEEE P Working Group for Wireless Personal Area Networks.
Submission doc.: IEEE /0416r1 Slide 1 Broadband Indoor TVWS Channel Measurement and Characterization at 670 MHz Date: Mar 2012 Ming-Tuo.
Doc.: IEEE /0090r0 SubmissionMartin Jacob, TU Braunschweig January 2010 Slide 1 Modeling the Dynamical Human Blockage for 60 GHz WLAN Channel.
Doc.: IEEE /0336r0 Submission March 2009 Alexander Maltsev, Intel CorporationSlide 1 Conference Room Channel Model for 60 GHz WLAN Systems - Summary.
Doc.: IEEE /1011r0 Submission September 2009 Alexander Maltsev, IntelSlide 1 Verification of Polarization Impact Model by Experimental Data Date:
Doc.: IEEE /0553r1 Submission May 2009 Alexander Maltsev, Intel Corp.Slide 1 Path Loss Model Development for TGad Channel Models Date:
Doc.: IEEE c Submission January 2006 C. Liu et.alSlide 1 Project: IEEE P Working Group for Wireless Personal Area Networks.
Doc.: IEEE /0431r0 Submission April 2009 Alexander Maltsev, Intel CorporationSlide 1 Polarization Model for 60 GHz Date: Authors:
Doc.: IEEE c Submission March 2006 Slide 1 Chang-Soon Choi, NICT Project: IEEE P Working Group for Wireless Personal Area Networks.
November 2015 doc.: IEEE /XXXXr0 November 2015
Doc.: IEEE /0799r2 Submission June 2014 Nihar Jindal, Broadcom Modifications to Simulation Scenarios and Calibration Process Date:
Doc.: IEEE c Submission July, 2006 Tony Pollock, NICTASlide 1 Project: IEEE P Working Group for Wireless Personal Area Networks.
November 2015 doc.: IEEE / ay SubmissionCamillo Gentile, NISTSlide 1 Preliminary Q-D Model for Lab Environment at 83 GHz Date:
Doc.: IEEE /0161r1 Submission doc.: IEEE /0087r0 January 2010 R. Kudo, K. Ishihara and Y. Takatori (NTT) Slide 1 Measured Channel Variation.
May 2006 Zhiguo Lai, University of Massachusetts - Amherst Slide 1 doc.: IEEE c Submission Project: IEEE P Working Group for.
Doc.: IEEE /1044r0 Submission September 2008 Alexander Maltsev, IntelSlide 1 60 GHz WLAN Experimental Investigations Date: Authors:
Doc.: IEEE /0133r0 Submission January 2010 Alexander Maltsev, Intel TGad Channel Model Update Authors: Date:
Doc.: IEEE /0161r1 Submission doc.: IEEE /1031r0 Measurement results for OBSS in home network scenarios Date: September 2009.
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:
Doc.: IEEE /0811r1 Submission July 2008 Alexander Maltsev, IntelSlide 1 Channel Modeling for 60 GHz WLAN Systems Date: Authors:
Interdigital Communications Submission doc.: IEEE /1333r1 November 2015 Feasibility of SU-MIMO under Array Alignment Method Date: Slide.
Doc.: IEEE /1121r0 Submission November 2009 I. Siaud, Orange LabsSlide 1 Path Loss Models for TGad Channel Models: Antenna and Dispersion Impact.
Doc.: IEEE /0372r0 Submission March, 2010 Hirokazu Sawada, Tohoku UniversitySlide 1 [Intra-cluster response model and parameter for the enterprise.
Submission doc.: IEEE /0871r1 Jul Jiyong Pang, et. al. Huawei Further Calibration Results towards Integrated System Level Simulation Date:
Doc.: IEEE c Submission September 2006 Slide 1 Hirokazu Sawada, NICT Project: IEEE P Working Group for Wireless Personal Area.
Doc.: IEEE /0015r1 Submission Large-Scale Characteristics of 45 GHz Based on Channel Measurement Authors/contributors: Date: Presenter:
InterDigital, Inc. Submission doc.: IEEE /0911r1 July 2016 Link Level Performance Comparisons of Open Loop, Closed Loop and Antenna Selection.
Doc.: IEEE /0499r1 Submission May 2009 Eldad Perahia, Intel CorporationSlide 1 Simulation Scenario Floor Plans Date: Authors:
Doc.: IEEE /1209r0 Submission Hotel lobby SU-MIMO channel modeling: 2x2 golden set generation Date: September 2016 Alexander Maltsev,
Doc.: IEEE /0664r0 Submission May 2010 Alexander Maltsev, Intel TGad Channel Model Update Authors: Date:
TGad interference modeling for MAC simulations
Channel Measurement for IEEE aj (45 GHz)
Small-Scale Characteristics of 45 GHz Based on Channel Measurement
60 GHz Cubicle Wall Reflectivity
<month year> doc.: IEEE c January, 2006
Large-Scale Characteristics of 45 GHz Based on Channel Measurement
TGad Channel Model Update
TGad July 2009 Closing Report
doc.: IEEE <doc#>
TGad September 2009 Closing Report
TGad January 2010 Closing Report
<month year> doc.: IEEE c January, 2006
Large-Scale Characteristics of 45 GHz Based on Channel Measurement
Update on “Channel Models for 60 GHz WLAN Systems” Document
Submission Title: [Wireless Display Throughput Requirements]
doc.: IEEE <doc#>
January, 2010 [Intra-cluster response model and parameter for channel modeling at 60GHz (Part 3)] Date: Authors: Hirokazu Sawada, Tohoku University.
doc.: IEEE <doc#>
802.11ax scenario 1 CCA Date: Authors: March 2015
802.11ax scenario 1 CCA Date: Authors: March 2015
Simulation Scenario Floor Plans
Channel Modeling with PAA Orientations
802.11ax scenario 1 CCA Date: Authors: March 2015
Presentation transcript:

doc.: IEEE /0112r2 Submission January, 2010 Hirokazu Sawada, Tohoku UniversitySlide 1 [Intra-cluster response model and parameter for channel modeling at 60GHz (Part 3)] Date: Authors:

doc.: IEEE /0112r2 Submission Abstract This paper will give all intra-cluster parameters for 3 different environments defined by TGad To align intra-cluster channel models, this paper has adopted K-factor and ready to be integrated with inter- cluster channel models given by doc. 09/334r4 by Alexander For simpler PHY simulations: Single channel model for each living, conference, and cubicle room environment is good preferable rather than too many channel models We suggest to use the channel model with 30 degree HPBW antennas and vertical polarization for simulation scenarios for directional antenna communications. January, 2010 Hirokazu Sawada, Tohoku UniversitySlide 2

doc.: IEEE /0112r2 Submission Measurement system Instrument: Vector network analyzer Antenna: Conical horn antenna   Hirokazu Sawada, Tohoku UniversitySlide 3 January, 2010

doc.: IEEE /0112r2 Submission Measurement set up ParameterValue Center frequency62.5 GHz Band width3 GHz Number of frequency points801 Frequency step3.75 MHz HPBW of antenna (Gain)30degree(STA), 90 degree(AP) PolarizationVertical(STA), Circular(AP) CalibrationDirect port connection without antennas Hirokazu Sawada, Tohoku UniversitySlide 4 January, 2010

doc.: IEEE /0112r2 SubmissionSlide 5 Antenna height: 1.5m (LoS scenario) 1.0 m (NLoS scenario) Hirokazu Sawada, Tohoku University January, 2010 Living room environment ‘defined by TGad’ D = 3m

doc.: IEEE /0112r2 Submission Conference room environment “defined by TGad” Hirokazu Sawada, Tohoku UniversitySlide 6 January, 2010

doc.: IEEE /0112r2 Submission Floor plan of cubicle office Slide 7Hirokazu Sawada, Tohoku University January, 2010

doc.: IEEE /0112r2 Submission STA-STA link Rx Tx Measurement set up N.A. Rx Tx Manually rotation (30deg step) This is a very short transmission scenario. Hirokazu Sawada, Tohoku UniversitySlide 8 July, 2009

doc.: IEEE /0112r2 Submission AP-STA link AP-STA Link Tx Rx Inside of a cubicle This is a vertical transmission link scenario. Hirokazu Sawada, Tohoku UniversitySlide 9 January, 2010

doc.: IEEE /0112r2 Submission Circular polarization is adopted for AP antenna Slide 10 RotationE E C Pol. AP antenna Polarization mismatch is generated by rotation of PC Circular polarized signal wave has adopted for AP antenna Hirokazu Sawada, Tohoku University January, 2010

doc.: IEEE /0112r2 Submission Intra-cluster parameters for all environments (Ant. HPBW: 30deg, V pol.) January, 2010 Hirokazu Sawada, Tohoku UniversitySlide 11 Environments k f [dB] k b [dB]  f [ns]  b [ns] f [ns -1 ] b [ns -1 ] Distribution Living room Rayleigh Conference room Rayleigh CubicleSTA-STA LOS N/A AP-STAN/A24.5N/A0.690N/A1.13N/A Rayleigh t = 0 Time of arrival kb k f Central ray of intra-cluster Arrival rate, b Arrival rate, f Ray decay factor,  b Ray decay factor,  f Rayleigh distribution

doc.: IEEE /0112r2 Submission January 2010 Hirokazu Sawada, Tohoku University Summary of Intra-cluster Parameters for Conference Room Environment ParameterNotation Value Doc.09/433r4 Averaged Value Pre-cursor rays K-factorKfKf 5 dB 10 dB Pre-cursor rays power decay time ff 1.3 ns 3.7 ns Pre-cursor arrival rate f 0.20 ns ns -1 Pre-cursor rays amplitude distributionRayleigh Number of pre-cursor raysNfNf 2 6 Post-cursor rays K-factorKbKb 10 dB 14.2 dB Post-cursor rays power decay time bb 2.8 ns 4.5 ns Post-cursor arrival rate b 0.12 ns ns -1 Post-cursor rays amplitude distributionRayleigh Number of post-cursor raysNbNb 4 8 Proposal; Averaged intra-cluster parameters are used for conference room channel model –two measured environments (Doc.09/433r4 and Doc.10/112r1)

doc.: IEEE /0112r2 Submission January 2010 Hirokazu Sawada, Tohoku University Summary of Intra-cluster Parameters for Living Room Environment ParameterNotationValue Pre-cursor rays K-factorKfKf 11.5 dB Pre-cursor rays power decay time ff 1.25 ns Pre-cursor arrival rate f 0.28 ns -1 Pre-cursor rays amplitude distributionRayleigh Number of pre-cursor raysNfNf 6 Post-cursor rays K-factorKbKb 10.9 dB Post-cursor rays power decay time bb 8.7 ns Post-cursor arrival rate b 1.0 ns -1 Post-cursor rays amplitude distributionRayleigh Number of post-cursor raysNbNb 8 Proposal; Intra-cluster parameters extracted from measured data (Doc.10/112r1)

doc.: IEEE /0112r2 Submission Conclusion Intra-cluster channel models for two environments are integrated and proposed (Doc.09/433r4 and Doc.10/112r1): 30 degree HPBW antennas for both Tx/Rx and vertical polarization Ready to merge with inter-cluster channel models Preliminary intra-cluster parameters for cubicle environment are presented January, 2010 Hirokazu Sawada, Tohoku UniversitySlide 14