Project: IEEE P Working Group for Wireless Personal Area Networks N

Similar documents
Project: IEEE P Working Group for Wireless Personal Area Networks N

Project: IEEE P Working Group for Wireless Personal Area Networks N

Project: IEEE P Working Group for Wireless Personal Area Networks N

Elham Torabi Supervisor: Dr. Robert Schober

COMPARATIVE ANALYSIS OF ULTRA WIDEBAND (UWB) IEEE A CHANNEL MODELS FOR nlos PROPAGATION ENVIRONMENTS

IEEE P Wireless Personal Area Networks

Project: IEEE P Working Group for Wireless Personal Area Networks N

IEEE P a. IEEE P Wireless Personal Area Networks. UWB Channel Characterization in Outdoor Environments

Project: IEEE P Working Group for Wireless Personal Area Networks N

Channel Division Multiple Access Based on High UWB Channel Temporal Resolution

Lecture 7/8: UWB Channel. Kommunikations

IEEE Working Group on Mobile Broadband Wireless Access <

Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs)

CAPACITY OF UNDERWATER WIRELESS COMMUNICATION CHANNEL WITH DIFFERENT ACOUSTIC PROPAGATION LOSS MODELS

Spatial Characteristics of 3D MIMO Wideband Channel in Indoor Hotspot Scenario at 3.5 GHz

Project: IEEE P Working Group for Wireless Personal Area Networks N

THE EFFECTS OF NEIGHBORING BUILDINGS ON THE INDOOR WIRELESS CHANNEL AT 2.4 AND 5.8 GHz

Ranging detection algorithm for indoor UWB channels and research activities relating to a UWB-RFID localization system

An Empirical Ultra Wideband Channel Model for Indoor Laboratory Environments

Document: c-minutes-channel-model-conference-call-june June 7, 2005

Project: IEEE P Working Group for Wireless Personal Area Networks N

Ultra Wideband Radio Propagation Measurement, Characterization and Modeling

On the Plane Wave Assumption in Indoor Channel Modelling

Performance and Capacity analysis of MIMO system at 5 GHz and 60GHz in Indoor Environment

CHANNEL MODELLING & PERFORMANCE ANALYSIS OF WIFI

Channel Modelling ETIM10. Channel models

Overview of MIMO Radio Channels

ULTRAWIDEBAND (UWB) radio has mainly been considered

Low Delay Wind Noise Cancellation for Binaural Hearing Aids

Simulation Model for a Frequency-Selective Land Mobile Satellite Communication Channel

Channel Models for IEEE MBWA System Simulations Rev 03

THE TRADEOFF BETWEEN DIVERSITY GAIN AND INTERFERENCE SUPPRESSION VIA BEAMFORMING IN

Performance Measures of a UWB Multiple-Access System: DS/CDMA versus TH/PPM

MEASUREMENT AND MODELING OF INDOOR UWB CHANNEL AT 5 GHz

January doc.: thz_THz_Wireless_Communications_Challenges_and_Opportunities

UWB Channel Modeling

Channel Modeling ETI 085

DWT-OFDM Diversity for TSV-Model Based 60 GHz WPAN System

Coverage and Rate Analysis for Millimeter Wave Cellular Networks

IEEE TRANSACTIONS ON ANTENNAS AND PROPAGATION, VOL. -, NO. -, - 1

Performance of Orthogonal and Non-Orthogonal TH-PPM for Multi-User UWB Communication Systems

Radio Channel Measurements With Relay Link at 780 MHz in an Outdoor to Indoor Propagation Environment

Project: IEEE P Working Group for Wireless Personal Area Networks N

Statistical Channel Model with Multi-Frequency and Arbitrary Antenna Beamwidth for Millimeter-Wave Outdoor Communications

Secure Physical Layer Key Generation Schemes: Performance and Information Theoretic Limits

Pulsed RF Signals & Frequency Hoppers Using Real Time Spectrum Analysis

Top Down Design of Joint MODEM and CODEC Detection Schemes for DSRC Coded-FSK Systems over High Mobility Fading Channels

Co-channel Interference Suppression Techniques for STBC OFDM System over Doubly Selective Channel

The Measurement and Characterisation of Ultra Wide-Band (UWB) Intentionally Radiated Signals

Self-Interference Canceller for Full-Duplex Radio Relay Station Using Virtual Coupling Wave Paths

Estimation and Control of Lateral Displacement of Electric Vehicle Using WPT Information

Three Dimensional End-to-End Modeling and Directivity Analysis for Graphene-based Antennas in the Terahertz Band

Project: IEEE P Working Group for Wireless Personal Area Networks N

Multi-Target Localization of Breathing Humans

Multihop Routing in Ad Hoc Networks

Performance analysis of STFC MB-OFDM UWB in WBAN channels

Effect of Estimation Error on Adaptive L-MRC Receiver over Nakagami-m Fading Channels

Implementation of PV and PIV Control for Position Control of Servo Motor

Narrow- and wideband channels

2-3 Study on Propagation Model for Advanced Utilization of Millimeter- and Terahertz-Waves

Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs)

Applications of Monte Carlo Methods in Charged Particles Optics

Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs)

Project: IEEE bb Task Group

THE EMERGING IEEE ad wireless local area

Channel Modelling for Beamforming in Cellular Systems

UNIVERSITY OF MICHIGAN DEPARTMENT OF ELECTRICAL ENGINEERING : SYSTEMS EECS 555 DIGITAL COMMUNICATION THEORY

FEASIBILITY STUDY ON FULL-DUPLEX WIRELESS MILLIMETER-WAVE SYSTEMS. University of California, Irvine, CA Samsung Research America, Dallas, TX

Channel. Muhammad Ali Jinnah University, Islamabad Campus, Pakistan. Multi-Path Fading. Dr. Noor M Khan EE, MAJU

Channel modelling repetition

Performance Evaluation of a UWB Channel Model with Antipodal, Orthogonal and DPSK Modulation Scheme

Mobile Communications

Announcements. Tuesday April 15 covers material from chapters: 1-3, 5-6 emphasis on material since last midterm

Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs)

Comparison of Channel Models for Devices with Low-Height Antennas

BER Performance of UWB Modulations through S-V Channel Model

5098 IEEE TRANSACTIONS ON WIRELESS COMMUNICATIONS, VOL. 14, NO. 9, SEPTEMBER 2015

Power Delay Profile Analysis and Modeling of Industrial Indoor Channels

EE 529 Remote Sensing Techniques. Radar

BER Performance of UWB Modulations through S-V Channel Model

T HE E VOLUTION OF WIRELESS LANS AND PANS ABSTRACT

Rate-Allocation Strategies for Closed-Loop MIMO-OFDM

RECOMMENDATION ITU-R P The prediction of the time and the spatial profile for broadband land mobile services using UHF and SHF bands

Hybrid Digital-to-Analog Beamforming for Millimeter-Wave Systems with High User Density

Part 4. Communications over Wireless Channels

MODERN telecommunication applications require data

Effect of Random Walk Phase Noise on MIMO Measurements

Channel Modeling and Characteristics

MIMO Wireless Communications

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

Channel Models. Spring 2017 ELE 492 FUNDAMENTALS OF WIRELESS COMMUNICATIONS 1

PhaseU. Real-time LOS Identification with WiFi. Chenshu Wu, Zheng Yang, Zimu Zhou, Kun Qian, Yunhao Liu, Mingyan Liu

Wireless Communication Fundamentals Feb. 8, 2005

Antennas and Propagation. Chapter 6b: Path Models Rayleigh, Rician Fading, MIMO

Wireless LAN Comes of Age: Understanding the IEEE n Amendment

A Compact Wide Bandpass Filter based on Substrate Integrated Waveguide (SIW) Structure

A Novel Method for Doppler and DOD- DOA Jointly Estimation Based on FRFT in Bistatic MIMO Radar System

Channel Model Considerations for P802.11af

Tag Localization in Passive UHF RFID

FAST ANALYSIS OF ELECTRICALLY LARGE RADOME IN MILLIMETER WAVE BAND WITH FAST MULTIPOLE ACCELERATION

Transcription:

Project: IEEE P802.15 Working Group for Wireess Persona Area Networks N (WPANs( WPANs) Tite: [MATLAB Simuation Program for TSV-channe mode] Date Submitted: [September 18, 2006] Source: [Hiroshi Harada, Ryuhei Funada, Hirokazu Sawada, Chang-soon Choi, Yozo Shoji, Shuzo Kato] Company [NICT] Address[3-4 Hikari-no-oka, Yokosuka-shi, Kanagawa 239-0847, Japan] Voice:[+81-46-847-5074] FAX:[+81-46-847-5440] E-Mai:[harada@nict.go.jp, funada@nict.go.jp, sawahiro@nict.go.jp, shoji@nict.go.jp, cschoi@nict.go.jp,shu.kato@nict.go.jp] Re: [] Abstract: [Proposing a MATLAB Simuation Program for TSV-channe mode] Purpose: [To be considered in 15.3c transmission performance by computer simuation] Notice: Reease: The contributors acknowedge and accept that this contribution becomes the property of IEEE and may be made pubicy avaiabe by P802.15. Side 1

MATLAB Simuation Program for TSV-channe mode Hiroshi Harada, Ryuhei Funada, Hirokazu Sawada,Chang-Soon Choi, Yozo Shoji, Shuzo Kato (NICT) Side 2

Summary of this document Finished to prepare MATLAB simuation program for TSV-channe mode Expain the fowchart of the MATLAB mode Show comparison of experimenta and simuated resuts Summarize avaiabe LOS / NLOS channe modes by the MATLAB-based TSV channe mode Side 3

β = α September 2006 2 μ PL D CIR: Definition of fina TSV mode L 1 M 1 () t = β δ () t + α, m δ ( t T τ, m ) δ ( ϕ Ψ ψ m ) h, = 0 m= 0 (Compex impuse response) τ γ k 2π 2h1h Γ0 exp j λ f D 2 D 2 Gt1Gr 1 + Gt 2Gr2 [ 1 δ ( m) ] G (, Ψ + ψ ), α Uniform [ 0,2π ) T Γ, m =Ω 0, 0e e m r, m, m Two-path response Path number of G ti and G ri (1: direct, 2 : refrect) Arriva rate: Poisson process p p ( T T ) = Λ exp[ Λ( T T )], 1 1 [ ( )], m > 0 ( τ τ, ( m 1) ) = λ exp λ τ τ, ( m 1) > 0 PL: Path oss of the first impuse response t: time[ns] δ( ): Deta function = custer number, m= ray number in -th custer, L = tota number of custers; M = tota number of rays in the -th custer; T = arriva time of the first ray of the -th custer; τ,m = deay of the m-th ray within the -th custer reative to the firs path arriva time, T ; Ω 0 = Average power of the first ray of the first custer Ψ Uniform[0,2π); arriva ange of the first ray within the -th custer ψ,m = arriva ange of the m-th ray within the -th custer reative to the first path arriva ange, Ψ 1 2 Two-path parameters (4) S-V parameters (7) D h h Uniform : Distance between Tx and Rx Uniform : Height of Uniform : Height of μ Average of distance between Tx and Rx Γ D 0 : Refection coefficient Γ Γ 0 0 Tx Rx 1: LOS Desktop environment (incident ange π 2) 0: Other LOS environment Γ : custer decay factor 1/ Λ : custer γ : ray decay factor 1/ λ : ray σ : custer ognorma standard deviation 1 σ : ray ognorma standard deviation 2 σ φ arriva rate arriva rate : Ange spread of ray within custer (Lapace distribution) K Antenna parameters (2) Gt Gr = L 1 M 1 ( θ, φ) : Antenna gain of Tx ( θ, ι) : Antenna gain of Rx = 0 m= 0 Rician factor (2) k :Sma Rician effect in each custer α 2, m δ ( t T τ ) δ ( ϕ Ψ ψ ) G ( 0, Ψ + ψ ), m 2 β, m r, m Side 4

Impuse response LOS penetration wave component Reative Ampitude β Ω 0 Rician factor (ΔK) Sma Rician factor (Δk) S-V mode response Γ,Λ,γ,λ Time of Arriva This response can be aso obtained in TSV mode by setting Γ0 =0 Side 5

Exampes of parameters for TSV mode TSV Sma S-V mode oriented parameters Number Mode Rician of custer factor Parameter Ω 0 (D) [db] k (Δk) Γ [ns] 1/Λ [ns] γ [ns] 1/λ [ns] σ 1 custer σ 2 ray σ φ [deg] N Tx:60 Rx:60 3.46 D- 98.4 3.97 22.3 21.1 17.2 2.68 7.27 4.42 38.1 3 Side 6

Function cas Main sv_params_tg3c sv_mode_ct_tg3c sv_cnvrt_ct_tg3c Side 7

Fowchart (overview) Main A input cm_num, number of channe reaizations (N), and minimum time resoution ca function sv_params_tg3c and get parameter regarding antenna beam-width, S-V parameters, and direct-component-reated parameters if necessary Cacuate and pot out performance metrics store off channe reaizations ca function sv_mode_ct_tg3c, and generate N impuse responses, using antenna gain determined by AOA information which are generated by the Monte Caro method done ca function sv_cnvrt_ct_tg3c and generate discrete time output from continuous time input decimate impuse response if necessary A Side 8

Fowchart of sv_mode_ct_tg3c yes function sv_mode_ct_tg3c generate N impuse responses yes LOS? no direct LOS component generated by SV mode no cacuate first custer arriva time cacuate direct LOS component and set the component at time 0 first custer arrives at time 0 no Tr: arriva time of ray in the k-th custer L: Number of custers to be generated k 0 k k+1, Tr 0, and set k-th custer s AOA N channes generated? no k=<l yes yes done no Tr<10*gam yes set ray AOA and then obtain antenna gain from the AOA cacuate ray arriva time Tr determine ray ampitude and phase using antenna gain and AOA Tr Tr+ Tr Side 9

Comparison of experimenta and simuated resuts Reative power [db] -70-80 -90-100 -110 0 20 40 60 80 100 Time of arriva [ns] LOS component (a) Experimenta resut Antenna height Tx: 170 mm Rx: 150 mm Beam width: 60 deg Distance: 3m S-V custer Reative power [db] -70-75 -80-85 -90-95 -100-105 Beam width: 60 deg Assumed distance: 3m S-V custers -110 0 20 40 60 80 100 Time of arriva [ns] LOS component Simuation data is a snap-shot. (b) Simuation resut Average RMS deay spread Experimenta resuts 10.6[ns] Side 10 Simuated resuts 9.2 [ns]

Summary of avaiabe LOS / NLOS channe modes by MATLAB based TSV-channe mode Office Residentia Desktop Library LOS Avaiabe (NICT) Avaiabe (NICT) Avaiabe (NICT) Avaiabe (IMST/Inte) NLOS Avaiabe (NICTA) N/A N/A N/A Measurement and anaysis to get TSV parameters are finished by NICT. MATLAB program is now avaiabe by using anayzed parameters. Measurement is finished by NICT. Anaysis to get TSV parameters is aso possibe within a coupe of week. MATLAB program wi be prepared by using anayzed parameters. Side 11

Summary Finished to prepare MATLAB simuation program for TSV-channe mode Expained the fowchart of the program Showed comparison of experimenta and simuated resuts Performance is amost simiar to the experimenta one Summarized avaiabe LOS / NLOS channe modes by MATLAB based TSV-channe mode NLOS as we as LOS can be covered by the proposed MATLAB program. Side 12