Radionavigation Systems

Similar documents
Signals, and Receivers

Table of Contents. Frequently Used Abbreviation... xvii

Radar Equations. for Modern Radar. David K. Barton ARTECH HOUSE BOSTON LONDON. artechhouse.com

Understanding GPS: Principles and Applications Second Edition

Guochang Xu GPS. Theory, Algorithms and Applications. Second Edition. With 59 Figures. Sprin ger

Mobile-to-Mobile Wireless Channels

Bernhard Hofnlann-Wellenhof Herbert Lichtenegger Elmar Wasle. GNSS - Global Navigation Satellite Systenls. GPS, GLONASS, Galileo, and nl0re

Foreword by Glen Gibbons About this book Acknowledgments List of abbreviations and acronyms List of definitions

Understanding GPS/GNSS

Basics of Satellite Navigation an Elementary Introduction Prof. Dr. Bernhard Hofmann-Wellenhof Graz, University of Technology, Austria

Avionics Navigation Systems, Second Edition Myron Kayton and Walter R. Fried John Wiley & Sons, Inc (Navtech order #1014)

Fundamentals of Global Positioning System Receivers

Introduction to: Radio Navigational Aids

Global Navigation Satellite Systems II

Supplement to. Global navigation satellite systems (GNSS) L E C T U R E. Zuzana Bělinová. TELEMATIC SYSTEMS AND THEIR DESIGN part Systems Lecture 5

Keywords. DECCA, OMEGA, VOR, INS, Integrated systems

Satellite Navigation (and positioning)

Integrated navigation systems

THOMAS PANY SOFTWARE RECEIVERS

SPREAD SPECTRUM CHANNEL MEASUREMENT INSTRUMENT

Historical Navigation Systems

Digital Communication Systems Engineering with

GPS Technical Overview N5TWP NOV08. How Can GPS Mislead

INTRODUCTION TO RF PROPAGATION

2 INTRODUCTION TO GNSS REFLECTOMERY

Introduction to the Global Positioning System

B SCITEQ. Transceiver and System Design for Digital Communications. Scott R. Bullock, P.E. Third Edition. SciTech Publishing, Inc.

NAVIGATION (2) RADIO NAVIGATION

Introduction to NAVSTAR GPS

NAVIGATION INSTRUMENTS - BASICS

Aircraft Communication and Navigation Systems

Localization. of mobile devices. Seminar: Mobile Computing. IFW C42 Tuesday, 29th May 2001 Roger Zimmermann

Phase-Locked Loop Engineering Handbook for Integrated Circuits

RADIOWAVE PROPAGATION

GPS and Recent Alternatives for Localisation. Dr. Thierry Peynot Australian Centre for Field Robotics The University of Sydney

GPS for. Land Surveyors. Jan Van Sickle. Fourth Edition. CRC Press. Taylor & Francis Group. Taylor & Francis Croup, an Informa business

Advances in Direction-of-Arrival Estimation

PRINCIPLES AND FUNCTIONING OF GPS/ DGPS /ETS ER A. K. ATABUDHI, ORSAC

Introduction to Geographic Information Science. Last Lecture. Today s Outline. Geography 4103 / GNSS/GPS Technology

UNIT 1 - introduction to GPS

Global Navigation Satellite Systems (GNSS)Part I EE 570: Location and Navigation

Introduction to the Global Positioning System

AIRLINE TRANSPORT PILOTS LICENSE ( NAVIGATION)

EE 570: Location and Navigation

Sources of Error in Satellite Navigation Positioning

NUMBER OF TIMES COURSE MAY BE TAKEN FOR CREDIT: One

GPS Geodetic Reference System WGS 84

ATOMIC CLOCK AUGMENTATION FOR RECEIVERS USING THE GLOBAL POSITIONING SYSTEM

MOBILE COMPUTING 1/28/18. Location, Location, Location. Overview. CSE 40814/60814 Spring 2018

Communication and Navigation Systems for Aviation

FieldGenius Technical Notes GPS Terminology

Wireless Communications Over Rapidly Time-Varying Channels

MDPI AG, Kandererstrasse 25, CH-4057 Basel, Switzerland;

Fundamentals of GPS Navigation

VOLUME 2. Appendices TABLE OF CONTENTS

Digital Imaging and Deconvolution: The ABCs of Seismic Exploration and Processing

SATELLITE COMMUNICATION

LASER DIODE MODULATION AND NOISE

The Global Positioning System

Learning Objectives 062 Radio Navigation

Modelling GPS Observables for Time Transfer

GPS Milestones, cont. GPS Milestones. The Global Positioning Sytem, Part 1 10/10/2017. M. Helper, GEO 327G/386G, UT Austin 1. US GPS Facts of Note

Digital Land Surveying and Mapping (DLS and M) Dr. Jayanta Kumar Ghosh Department of Civil Engineering Indian Institute of Technology, Roorkee

Copyrighted Material. Contents

ORBITAL NAVIGATION SYSTEMS PRESENT AND FUTURE TENDS

Application of GNSS for the high orbit spacecraft navigation

Deep Space Communication The further you go, the harder it gets. D. Kanipe, Sept. 2013

APPENDIX GPS TERMINOLOGY

Effect of Quasi Zenith Satellite (QZS) on GPS Positioning

GNSS: orbits, signals, and methods

ANTENNA THEORY. Analysis and Design. CONSTANTINE A. BALANIS Arizona State University. JOHN WILEY & SONS New York Chichester Brisbane Toronto Singapore

Radar and Navigational Aids. Navigational Aids By K M Vyas DIET Rajkot

Fundamentals of Global Positioning System Receivers

CHAPTER 2 GPS GEODESY. Estelar. The science of geodesy is concerned with the earth by quantitatively

RECOMMENDATION ITU-R M *

Global Positioning Systems (GPS) Trails: the achilles heel of mapping from the air / satellites

Kadi Sarva Vishwavidyalaya Gandhinagar

Analysis on GNSS Receiver with the Principles of Signal and Information

Ground-based, Hyperbolic Radiolocation System with Spread Spectrum Signal - AEGIR

t =1 Transmitter #2 Figure 1-1 One Way Ranging Schematic

Botswana Radio Frequency Plan, Published on 16 April TABLE OF CONTENTS

WLAN Location Methods

GPS (Introduction) References. Terms

AIRCRAFT AVIONIC SYSTEMS

RF and Baseband Techniques for Software Defined Radio

Wave Propagation and Antenna Engineering

APPLICATIONS OF TRANSPONDERS IN SATELLITE COMMUNICATION SYSTEM

RESOLUTION MSC.233(82) (adopted on 5 December 2006) ADOPTION OF THE PERFORMANCE STANDARDS FOR SHIPBORNE GALILEO RECEIVER EQUIPMENT

GNSS in Maritime and Education in Egypt

CH GPS/GLONASS/GALILEO/SBAS Signal Simulator. General specification Version 0.2 Eng. Preliminary

Multiband Integrated Antennas for 4G Terminals. David A. Sanchez-Hernandez Universidad Politecnica de Cartagena. Editor.

GPS: The Basics. Darrell R. Dean, Jr. Civil and Environmental Engineering West Virginia University. Expected Learning Outcomes for GPS

GLOBAL NAVIGATION SATELLITE SYSTEMS (GNSS) ECE 2526E Tuesday, 24 April 2018

PRECISE TIME DISSEMINATION USING THE INMARSAT GEOSTATIONARY OVERLAY

Dhanalakshmi College of Engineering. Department of electronics and communication engineering. EC Radar and Navigational Aids

Modern Communications Jamming Principles and Techniques

UNIT-4 Part A 1. What is kickback noise? [ N/D-16]

RF Power Amplifiers for Wireless Communications

1. Discuss in detail the Design Consideration of a Satellite Communication Systems. [16]

Integrity of Satellite Navigation in the Arctic

Transcription:

Radionavigation Systems Börje Forssell 1 ARTECH HOUSE BOSTON LONDON artechhouse.com

Contents Preface xiii Part I: Terrestrial Systems 1 1 The f undamentais of terrestrial navigation 3 1.1 The shape of the earth 3 1.2 Maps and coordinate systems/datum 6 1.3 Distances and directions on the surface of the earth 13 1.3.1 Great circle course on a spherical earth 13 1.3.2 Loxodrome course 15 1.3.3 Distances and directions on an ellipsoidal earth 16 2 Error calculations 19 2.1 Lines of position 19 2.1.1 Errors in lines of position 19 2.2 The geometrical influence on two-dimensional position errors 21 2.2.1 Errors in measurements of distance and distance differences 21 2.2.1.1 Distance measurements 21 2.2.1.2 Measurements of distance differences 23 2.2.2 Error ellipses 30 2.2.2.1 Distance measurement error ellipses 35 2.2.2.2 Error ellipses for a hyperbolic navigation system 37 2.3 Accuracies 40 2.4 Two-dimensional position determination by means of more than two LOPs 45 v

vi Contents 3 Wave propagation 3.1 Free space propagation 3.2 Reflection from surroundings 3.3 The ground wave 3.4 Tropospheric influence 3.5 Ionospheric influence System descriptions 4 Hyperbolic Systems 4.1 Introduction 4.2 General 4.3 Phase measurements 4.4 OMEGA 4.4.1 General 4.4.2 Signal format 4.4.3 Wave propagation at VLF 4.4.3.1 General 4.4.3.2 Conditions in the lower part of the ionosphere 4.4.3.3 The directional dependence of the reflection coefficient of the ionosphere 4.4.3.4 Influence of the earth and the Solution of the wave equations 4.4.4 Receivers 4.4.5 Transmitters 4.4.6 Accuracy 4.4.7 Differential OMEGA 4.4.8 Prospects 4.5 DECCA 4.5.1 Introduction 4.5.2 Frequencies 4.5.3 Receivers 4.5.4 Transmitter stations 4.5.5 Maps and corrections of the measurement result 4.5.6 Accuracy and coverage 4.5.7 Perspectives 4.6 LORAN-C 4.6.1 General 4.6.2 Signal format 4.6.3 Interference and use of pulse groups

Contents vii 4.6.4 4.6.5 4.6.6 4.6.7 4.6.8 4.6.9 4.6.10 Coded pulse groups Receivers Grouping of pulses for automatic search Transmitters Accuracy and ränge Differential LORAN-C Prospects 122 123 131 136 138 140 143 5 Direction finding 146 5.1 Introduction 146 5.2 Frequencies and transmitters 147 5.3 Directivity 148 5.4 Receiver antennae 149 5.4.1 Antennae for improved accuracy 154 5.4.1.1 The Adcock antenna 154 5.4.1.2 Doppler direction finders 156 5.5 Accuracies 158 6 Aircraft Systems 160 6.1 Introduction 160 6.2 VOR 162 6.2.1 Operation 162 6.2.2 The receiver 163 6.2.3 Doppler VOR 164 6.3 DME 166 6.3.1 Principles of Operation 166 6.3.2 Search procedure 167 6.3.3 The transponder 169 6.3.4 Accuracies/Use 170 6.3.5 DME/P 170 6.4 ILS 175 6.4.1 System principles 175 6.4.2 Markers 176 6.4.3 Angular Information 177 6.4.4 Accuracy/Sources of error 180 6.5 MLS 182 6.5.1 Introduction 182 6.5.2 TRSB angular information 183 6.5.3 The data message 188 6.5.4 Use 188 6.5.5 Accuracies and coverage 188 6.5.6 Costs and perspectives 191

viii Contents Part II: Satellite Systems 193 7 Satellite orbits and geometry 195 7.1 Introduction 195 7.2 Kepler'slaws 195 7.3 Distortionof theorbit 196 7.4 Coordinate Systems 198 8 Satellite navigation principles 204 8.1 Frequency measurements 204 8.2 Time measurements 206 8.3 Measurement principles 206 9 Error calculations 209 9.1 Error sources 209 9.2 The geometrical influence on the accuracy 214 9.2.1 Frequency measurements 214 9.2.2 Time measurements 217 9.2.2.1 Calculation of geometrical dilution of position 217 System descriptions 225 10 TRANSIT 10.1 10.2 10.3 10.4 10.5 10.6 10.7 10.8 10.9 Introduction The satellites Navigation principles 10.3.1 Satellite Signals 10.3.2 Position measurements The receiver The use of two carrier frequencies The iteration procedure Accuracy Translocation Fields of utilization/future 225 225 225 229 229 232 235 242 244 245 247 249 11 Spread spectrum: coding of satellite Signals 250 11.1 Introduction 250

Contents ix 11.2 Spread spectrum 251 11.2.1 Principles 251 11.2.2 Spreading functions 252 11.2.3 The correlation function 254 11.2.4 Generation of the codes (spreading functions) 258 11.2.5 Thereceiver 261 11.3 Spread spectrum in NAVSTAR/GPS 267 12 NAVSTAR/GPS 272 12.1 Introduction 12.2 Satellite orbits 12.3 The satellites 12.4 The control segment 12.5 The navigation message 12.5.1 Introduction 12.5.2 TLMandHOW 12.5.3 Data block 1 12.5.3.1 Clock corrections 12.5.3.2 Age of data/group delay 12.5.3.3 Corrections of ionospheric delays 12.5.4 Data block 2 12.5.4.1 Introduction 12.5.4.2 Parameter representation selection 12.5.5 Data block 3 12.6 Receivers 12.6.1 Introduction 12.6.2 Receiver types 12.6.3 Receiver description 12.6.4 Clock and frequency stability 12.6.5 Antennae 12.7 Differential GPS 12.7.1 Presumptions and possibilities 12.7.2 Work up to now 12.8 Interferometric use 12.9 Accuracy 12.10 Integration with other navigation Systems 12.10.1 GPS and inertial navigation Systems 12.10.2 GPS and LORAN-C 12.10.3 Other combinations 12.11 Perspectives 272 272 276 278 281 281 281 281 284 284 286 287 287 289 292 293 293 294 297 303 304 306 306 308 311 315 318 318 319 320 321

X Contents 13 GLONASS 322 13.1 13.2 13.3 13.4 13.5 13.6 13.7 Introduction Satellite orbits The navigation Signals The codes The navigation message Receivers Accuracy 322 323 324 325 326 327 327 14 Other satellite navigation Systems 328 14.1 14.2 14.3 14.4 14.5 Introduction TSIKADA STARFIX GEOSTAR/LOCSTAR NAVSAT 328 329 330 330 332 Appendix 1: Datum transformation 335 Appendix 2: Formulas from spherical trigonometry 338 A2.1 Theorems concerning right-angled spherical triangles 338 A2.2 Theorems concerning arbitrary spherical triangles 339 Appendix 3: The radii of curvature of an ellipsoidal surface 341 Appendix 4: The Standard deviation of the error in a two-dimensional position 344 Appendix 5: Position determination by the method of least Squares 346 Appendix 6: Errors in DECCA user lines of position due to phase errors caused by the master-to-slave, master-to-user and slave-to-user Signal paths 352 Appendix 7: Satellites in orbit 356 A7.1 Derivation of Kepler'slaws 356 A7.2 The orbital velocity 361 A7.3 Orbital coordinates as time functions 363 A7.4 Launching of satellites into a desired orbit 368

Appendix 8: A method of satellite selection in time Contents xi measurement Systems 371 Appendix 9: Basic Kaiman fiiter equations 375 References 377 Index 387