Pathloss Model Considerations for ah

Slides:



Advertisements
Similar presentations
7. Channel Models.
Advertisements

Doc.: IEEE /0272r0 Submission February 2011 Ron Porat, Broadcom Outdoor Path Loss Models for ah Date: Authors: Slide 1.
Doc.: IEEE /0436r0 Submission February 2011 Mediatek Path Loss and Delay Spread Models for 11ah Date: Authors: Slide 1.
EELE 5490, Fall, 2009 Wireless Communications Ali S. Afana Department of Electrical Engineering Class 6 Dec. 4 th, 2009.
Summary of Path Loss in Propagation
Doc.: IEEE /0361r0 Submission March 2011 David Halasz, OakTree WirelessSlide 1 Indoor Channel Models for ah Date: Authors:
Wireless Communication Channels: Large-Scale Pathloss
Doc.: IEEE /0577r1 Submission May 2014 Nihar Jindal, Broadcom Path Loss Model for Scenario 1 Date: Authors: Slide 1.
Submission doc.: IEEE 11-12/0421 March 2012 Alina Liru Lu, NICTSlide 1 Outdoor Channel Models for af Date: Authors:
Doc.: IEEE /0858r0 Submission Enhanced Channel Model for HEW Slide 1 Date: Authors: July 2013 Shahrnaz Azizi (Intel)
Submission doc.: IEEE 11-14/0627r0 May 2014 Josiam et.al., SamsungSlide 1 Outdoor Channel Models for System Level Simulations Date: Authors:
Possible Indoor Channel Models for HEW System Simulations
Doc.: IEEE /0251r0 Submission February 2011 Ron Porat, Broadcom Outdoor Channel Models for ah Date: Authors: Slide 1.
Doc.: IEEE /0553r1 Submission May 2009 Alexander Maltsev, Intel Corp.Slide 1 Path Loss Model Development for TGad Channel Models Date:
1 Introduction to Fading Channels, part 1 Dr. Essam Sourour Alexandria University, Faculty of Engineering, Dept. Of Electrical Engineering.
Doc.: IEEE /0553-r1 Submission April 2011 James Wang, et al, Mediatek COST231 Walfish Ikegame Model for for 11ah Date: Authors: Slide.
Doc.: IEEE 11-13/1113r0 Submission Sept Minho Cheong (ETRI)Slide 1 Channel Modeling for Dense Wi-Fi Environments Date: Authors: NameAffiliationsAddressPhone .
Doc.: IEEE /0799r2 Submission June 2014 Nihar Jindal, Broadcom Modifications to Simulation Scenarios and Calibration Process Date:
Submission doc.: IEEE 11-10/1511r0 Company Confidential November 2011 Chittabrata Ghosh, NokiaSlide 1 Fairness of DCF in ah Date: Authors:
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 2008 Vinko Erceg, BroadcomSlide 1 VHT 60 GHz Channel Model Recommendation Date: Authors:
IEEE q Submission Slide 1 Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission Title: Channel.
Doc.: IEEE /1313r2 Submission November 2010 Roberto Aiello, Jim LansfordSlide 1 Channel model need for ah Date: Authors:
Corrections to TGah Channel Model
WUR Link Budget Analysis
WUR Link Budget Analysis
Channel Model Considerations for P802.11af
PHY Design Considerations for af
On the Channel Model for Short Range Communications
September 2004 Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission Title: Propagation Pathloss Model Comparison.
Regulatory Classes for 80 MHz Channel
Considerations on down-clocking ratio
Month Year doc.: IEEE yy/xxxxr0 November 2017
TGad interference modeling for MAC simulations
On the Suitability of Repetition for ah
Modeling wireless propagation
Summery of Channel Measurement for the ay Channel Model Document
Ricean K-Factor in Office Cubicle Environment
August 2004 doc.: IEEE /444r0 August 2004
August 2004 doc.: IEEE /444r0 August 2004
Large-Scale Characteristics of 45 GHz Based on Channel Measurement
Pathloss and Channel Model Considerations for P802.11ah
System Capacity Evaluation in OBSS Environment at 5 GHz band
TGad Channel Model Update
6-10GHz Rate-Range and Link Budget
Bandwidth Indication Design for 120MHz
November 2006 Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission Title: [TG3c Technical Requirement sub-group report]
TGah STA Analysis for Smart Grid Use Case
Heterogenous per-Client Doppler in MU-MIMO Scenarios
Some (Measured) Characteristics of V2V Channels
Month Year doc.: IEEE yy/xxxxr0 July 2015
802.11ac Channel Modeling Authors: Jan 19, 2009 Month Year
Update on “Channel Models for 60 GHz WLAN Systems” Document
Industrial Channels of Usecase 1d/2
Proposed US Channelization for IEEE ah
January, 2010 [Intra-cluster response model and parameter for channel modeling at 60GHz (Part 3)] Date: Authors: Hirokazu Sawada, Tohoku University.
TGac Channel Model Revisions for r7
doc.: IEEE yy/xxxxr0 Month Year May 2016
Link Budget Analysis Date: Authors: November 2015
System Capacity Evaluation in OBSS Environment at 5 GHz band
LB97 Coex: Duplicate DSSS
Some (Measured) Characteristics of V2V Channels
Pathloss and Channel Model Considerations for P802.11ah
Traffic Information Dissemination Use Case
Some (Measured) Characteristics of V2V Channels
Month Year doc.: IEEE yy/xxxxr0 Mar 2016
Pathloss Model Considerations for ah
<month year> IEEE Jan
VHT LO Leakage Requirement
Presentation transcript:

Pathloss Model Considerations for 802.11ah Month Year doc.: IEEE 802.11-yy/xxxxr0 November 2011 Pathloss Model Considerations for 802.11ah Date: November 7, 2011 Authors: Klaus Doppler, Nokia John Doe, Some Company

Month Year doc.: IEEE 802.11-yy/xxxxr0 November 2011 Abstract Currently proposed channel and pathloss models (doc.: IEEE 802.11-11/0883r0) includes a placeholder for an outdoor STA-STA pathloss model. This contribution reviews outdoor STA-STA pathloss models for urban environments in literature and proposes a STA-STA pathloss model. John Doe, Some Company

STA-STA pathloss models in urban environment Month Year doc.: IEEE 802.11-yy/xxxxr0 November 2011 STA-STA pathloss models in urban environment Very few pathloss model and measurement results for STA-STA link in urban environment available Z. Wang, E.K. Tameh, A. R. Nix, “Statistical Peer-to-Peer Channel Models for Outdoor Urban Environments at 2GHz and 5GHz”, VTC Fall, 2004 J. R. Hampton, N. M. Merheb, W. L. Lain, D. E. Paunil, R. M. Shuford,and W. T. Kasch, “Urban propagation measurements for ground based communication in the military UHF band,” IEEE Trans. Antennas and Propagat., vol. 54, no. 2, pp. 644–654, Feb. 2006. K. Konstantinos, S. Kang, T. Brown and C. Tzaras, ”Measurement and modelling of the propagation channel between low-height terminals”, IET Microw. Antennas Propag., 2011, Vol. 5, Iss. 4, pp. 412–418 Klaus Doppler, Nokia John Doe, Some Company

Pathloss model summary Month Year doc.: IEEE 802.11-yy/xxxxr0 November 2011 Pathloss model summary [1] PL_NLOS = 4.01+ 10*5.86 log10 (d in m) (f=2GHz) PL_LOS = 31.48 + 10*2 log10(d in m) (f=900MHz) [2] Model needs explicit modeling of streets and fewer measurements compared to 1. However, their measurements also suggest a pathloss exponent of 6-7 in NLOS case (only few measurements) [3] PL_NLOS (h_STA=1.5m, f=900MHz) = 16.90 + 42.4*log10(d in m) Proposal use the model in [3] which is based on measurements compared to the model in [1] which has been derived from a ray-tracing model Klaus Doppler, Nokia John Doe, Some Company

Frequency scaling 2GHz  900MHz for [1] Month Year doc.: IEEE 802.11-yy/xxxxr0 November 2011 Frequency scaling 2GHz  900MHz for [1] The Path-loss model in [1] can be converted to frequency range 450 – 900 MHz by applying different frequency dependence coefficients in the range 20 – 35 dB per decade specified for frequency ranges 0.45 – 1.5, 1.5 –2.0 and 2.0 – 6.0 GHz separately. (See Table 4-1. in [4]) Pathloss for urban scenario decreases 10.18dB from 2GHz to 900MHz PL_NLOS = -6.17+ 58.6 log10 (d in m) Klaus Doppler, Nokia John Doe, Some Company

Pathloss model comparison Month Year doc.: IEEE 802.11-yy/xxxxr0 November 2011 Pathloss model comparison 20-50dB difference at a distance of 1km when using Macro AP-STA pathloss model compared to STA-STA models in urban scenario 10-35dB difference at distance of 1k when compared to Pico AP-STA pathloss model Crossover between STA-STA models at 16m [3] too close to pico? Klaus Doppler, Nokia John Doe, Some Company

Month Year doc.: IEEE 802.11-yy/xxxxr0 November 2011 Conclusion Include one of the following two options in the channel model document section 3.2 (outdoor pathloss model for D2D) The antenna height is assumed 1.5m and the path loss in [dB] is given by the formula Option 1: PL= 16.90 + 42.4*log10(d) [1] Option 2: PL = -6.17 + 58.6*log10(d) [3] where d is in meters and the RF carrier is assumed at 900MHz. The above formulas represent the average path loss. Deviation around this average to account for shadowing should be modelled by adding a random Gaussian variable with zero mean and a standard deviation of 7.5dB. Klaus Doppler, Nokia John Doe, Some Company

Month Year doc.: IEEE 802.11-yy/xxxxr0 November 2011 Strawpoll Option 1: --- Yes --- No --- Abstain Option 2: --- Yes --- No --- Abstain Klaus Doppler, Nokia John Doe, Some Company

Motion (select option based on strawpoll result) Month Year doc.: IEEE 802.11-yy/xxxxr0 November 2011 Motion (select option based on strawpoll result) Include the following text in the channel model document section 3.2 (outdoor pathloss model for D2D) The antenna height is assumed 1.5m and the path loss in [dB] is given by the formula Option 1: PL= 16.90 + 42.4*log10(d) [1] Option 2: PL = -6.17 + 58.6*log10(d) [3] where d is in meters and the RF carrier is assumed at 900MHz. The above formulas represent the average path loss. Deviation around this average to account for shadowing should be modelled by adding a random Gaussian variable with zero mean and a standard deviation of 7.5dB. --- Yes --- No --- Abstain Klaus Doppler, Nokia John Doe, Some Company

Month Year doc.: IEEE 802.11-yy/xxxxr0 September 2011 References Z. Wang, E.K. Tameh, A. R. Nix, “Statistical Peer-to-Peer Channel Models for Outdoor Urban Environments at 2GHz and 5GHz”, VTC Fall, 2004 J. R. Hampton, N. M. Merheb, W. L. Lain, D. E. Paunil, R. M. Shuford,and W. T. Kasch, “Urban propagation measurements for ground based communication in the military UHF band,” IEEE Trans. Antennas and Propagat., vol. 54, no. 2, pp. 644–654, Feb. 2006. K. Konstantinos, S. Kang, T. Brown and C. Tzaras, ”Measurement and modelling of the propagation channel between low-height terminals”, IET Microw. Antennas Propag., 2011, Vol. 5, Iss. 4, pp. 412–418 WINNER+ D5., WINNER+ Final Channel Models, June 2010 Klaus Doppler, Nokia John Doe, Some Company