"Principles of Modern Radar: Basic Principles" is a comprehensive and modern textbook for courses in radar systems and technology at the college senior and graduate student level; a professional training textbook for formal in-house courses for new hires; a reference for ongoing study following a radar short course; and a self-study and professional reference book. "Principles of Modern Radar" focuses on four key areas: Basic concepts, such as the the radar range equation and threshold detection; radar signal phenomenology, such as radar cross section models, clutter, atmospheric effects, and Doppler effects; descriptions of all major subsystems of modern radars, such as the antenna, transmitter, receiver, including modern architectural elements such as exciters, and advanced signal processors; and signal and data processing basics, from digital signal processing (DSP) fundamentals, through detection, Doppler processing, waveforms and pulse compression, basic imaging concepts, and tracking fundamentals. While several established books address introductory radar systems, "Principles of Modern Radar" differs from these in its breadth of coverage, its emphasis on current methods (without losing sight of bedrock principles), and its adoption of an appropriate level of quantitative rigor for the intended audience of students and new professional hires. The manuscript for this book was reviewed by over 50 professionals in academia, military, and commercial enterprises. These reviewers were among thousands of potential users approached by the publisher and asked to share their expertise and experience in radar training and instruction. Their extensive comments, corrections, and insights ensure that "Principles of Modern Radar" will meet the needs of modern radar educators and students around the world. Written and edited by world-renowned radar instructors and critically reviewed by users before publication, this is truly a radar community-driven book.

Phased-Array Radar Design is a text-reference designed for electrical engineering graduate students in colleges and universities as well as for corporate in-house training programs for radar design engineers, especially systems engineers and analysts who would like to gain hands-on, practical knowledge and skills in radar design fundamentals, advanced radar concepts, trade-offs for radar design and radar performance analysis. This book is a concise yet complete treatment of the relationship between mission-level requirements and specific hardware and software requirements and capabilities. Although focusing on surface-based radars, the material is general enough to serve as a useful addition to books currently available for this purpose. It covers all phases of design and development, including the development of initial concepts and overall system requirements, system architecture, hardware and software subsystem requirements, detailed algorithms and system integration and test. This book provides a wealth of information rarely covered in one book. It is unique in that it provides a hands on and how to perspective on applying radar theory to design and analysis. Rather than being a theory and derivations-type, this book is applications-oriented making it different from other published works on this subject.

Chapter titles are ...(1) Introduction ...(2) Radar Polarimetry ...(3) Polarization of Monochromatic Plane Waves ...(4) Polarization Sphere of Tangential Phasors...(5) Rotation Transformation on the Sphere ...(6) Change of Phase, Orthogonality and Spatial Reversal Transformation on the Sphere ...(7) Scattering and Propagation Matrices ...(8) The Poincare Sphere Analysis ...(9) Poincare Sphere Geometrical Model of the Scattering Matrix ...(10) Special Polarizations of the Bistatic Scattering Matrix ...(11) Constant Received Power Curves on the Poincare Sphere ...(12) The Basis-Invariant Decompositions of the Sinclair Matrix ...(13) Decomposition of the Partially Depolarizing Kennaugh Matrix into Four Non-Depolarizing Components ...(14) The Polarimetric Two-Ports ...(15) The Four-Sphere of Partial Polarization and Its Applications ...(16) Appendices.

A comprehensive overview of the basic principles of radar polarimetry is presented. The relevant fundamental field equations are first provided. The importance of the propagation and scattering behavior in various frequency bands, the electrodynamic foundations such as Maxwell's equations, the Helmholtz vector wave equation and especially the fundamental laws of polarization are presented in the first section. Main poins are the polarization Ellipse, the polarization ratio, the Stokes Parameter, and the Stokes and Jones vector formalisms as well as its presentation on the Poincare sphere and on relavent map projections. The Polarization Fork descriptor and the associated van Zyl polarimetric power density and Agrawal polarimetric phase correlation signatures are introduced also in order to make understandable the polarization state formulations of electromagnetic waves in the frequency domain. The different relevant matrices, the respective terms like Jones Matrix, S-matrix, Muller M-matrix, Kennaugh K-matrix, etc. and its interconnections are defined and described together with change determined for the coherent and partially coherent cases, respectively. Concludes with worked examples and references for further reading.

Radar, including its maintenance, was a dark secret throughout World War II. After the war, radar per se received much publicity, but the Navy's program for selecting and preparing personnel to become electronics specialists - one of the most challenging training activities of all times - has remained almost unknown.
Noted scientist/historian Louis Brown made no mention of the program in his highly acclaimed book, A Radar History of World War II. He subsequently commented, "It is an omission that I greatly regret, especially because it is the kind of history that I value."
This book has been written to finally document the history of this program. It is especially intended for the few remaining men who participated in this activity and their descendants. It should also be of interest to the huge number of persons whose careers have been greatly influenced by aftereffects of the war's electronic miracles, as well as to students and others in broadening their knowledge of electronics evolution.
Radar was first demonstrated at the Naval Research Laboratory, and the U.S. fleet had its initial operational system in 1939. It was then directed that radar be incorporated on all major ships. At the time of Japan's attack on Pearl Harbor, however, only 79 sets had been installed on the Navy's approximately 2,000 vessels.
In the then-existing Navy and Marine forces, only a few hundred men were qualified in advanced electronics and essentially none in radar. Further, President Roosevelt had ordered huge increases in ships, aircraft, and submarines; many thousands of highly qualified personnel would be needed to maintain the associated electronics. Thus, there was a crisis innaval electronics, especially radar.
The crisis was solved through the Electronics Training Program - an activity of almost unbelievable intensity, cramming the major topics of a standard electrical engineering curriculum into less than a year. The program began in mid-1942 as a combined effort of six engineering colleges and several highly advanced Navy schools. Captain William C. Eddy was largely responsible for its coordination. An admissions examination, commonly called the Eddy Test, was used in selecting the students.
Chapters 1 and 2 review the evolution of electronics during the first four decades of the 20th century. Chapter 3 examines the avalanche of radar and the resulting crisis. Chapters 4, 5, and 6 cover in detail the Electronics Training Program -- its origin, curriculum, locations, facilities, and key personnel. Information on the many types of wartime electronic systems is given in Appendix I, and Appendix II summarizes radar developments in other countries. Extensive pictures are included throughout the book.
During the war years, about 30,000 men made it through the Navy's electronics training, corresponding roughly to 6 percent of those initially taking the Eddy Test and 35 percent of those admitted to the program. The final appendix of this book gives brief biographies of 33 representative graduates, members of what Tom Brokaw has called "the greatest generation."

This book deals with the basic theory for design and analysis of Low Probability of Intercept (LPI) radar systems. The design of one such multi-frequency high resolution LPI radar, PANDORA, is covered. This work represents the first time that the topic of multi-frequency radars is discussed in such detail and it is based on research conducted by the author in The Netherlands. The book provides the design tools needed for development, design, and analysis of high resolution radar systems for commercial as well as military applications. Software written in MATLAB and C++ is provided to guide the reader in calculating radar parameters and in ambiguity function analysis. Some radar simulation software is also included.

This third edition of Principles of Space-Time Adaptive Processing provides a detailed introduction to the fundamentals of space-time adaptive processing, with emphasis on clutter suppression in airborne or spacebased phased array radar, covering specifically the principles of airborne or spacebased MTI radar for detection of slow moving targets for use in the fields of earth observation, surveillance and reconnaissance, with special attention paid to clutter rejection techniques. The book includes topics such as signal processing, clutter models, array processing, bandwidth effects, non-linear antenna arrays, anti-jamming techniques, adaptive monopulse, bistatic radar configurations, SAR and ISAR, and sonar. After the success of the first and second editions, this third edition has been extensively updated and extended to reflect the numerous advances in the field. A completely new chapter has been added on the impact of the radar range equation, which is of particular importance for radar system designers. This edition concludes with an updated list of more than 750 references on STAP and related topics, representing the worldwide state of-the-art research in space-time adaptive processing. The book will be of particular interest to electronic and aerospace engineers, university lecturers, postgraduate students, research scientists, radar system engineers and managers working in civilian and military airborne and spacebased radar, as well as potential users of air- and spaceborne radar.

This book provides an authoritative account of the current understanding of radar sea clutter, describing its phenomenology, EM scattering and statistical modelling and simulation, and their use in the design of detection systems and the calculation and practical evaluation of radar performance. The book pays particular attention to the compound K distribution model developed by the authors during the past 20 years. The evidence for this model, its mathematical formulation and development and practical application to the specification, design and evaluation of radar systems are all discussed. In addition, the book sets the previously empirical development of the K distribution model in the wider context of recent advances in the calculation of low grazing angle electromagnetic scattering and oceanographic modelling of the statistics of the sea surface. The authors discuss in detail the prediction of the performance of specified radar systems; at the same time, their presentation of the underlying physical principles and analytic and computational techniques employed in these calculations is sufficiently comprehensive for the reader to be well equipped to tackle related problems with confidence. These features, and appendices reviewing pertinent mathematical background material and the calculation of low grazing angle scattering by corrugated surfaces, make this book invaluable to specialist radar engineers and academic researchers, while being of considerable interest to the wider applied physics and mathematics communities.

This book text provides an overview of the radar target recognition process and covers the key techniques being developed for operational systems. It is based on the fundamental scientific principles of high resolution radar, and explains how the underlying techniques can be used in real systems, taking into account the characteristics of practical radar system designs and component limitations. It also addresses operational aspects, such as how high resolution modes would fit in with other functions such as detection and tracking.

Since 1958 the Maritime Administration has continuously conducted instructions in use of collision avoidance radar for qualified U.S. seafaring personnel and representatives of interested Federal and State Agencies. Beginning in 1963, to facilitate the expansion of training capabilities and at the same time to provide the most modern techniques in training methods, radar simulators were installed in Maritime Administration's three region schools. It soon became apparent that to properly instruct the trainees, even with the advanced equipment, a standardize up-to-date instruction manual was needed. The first manual was later revised to serve both as a classroom textbook and as an onboard reference handbook. This newly updated manual, the fourth revision, in keeping with Maritime Administration policy, has been restructured to include improved and more effective methods of plotting techniques for use in Ocean, Great Lakes, Coastwise and Inland Waters navigation. Robert J. Blackwell Assistant Secretary for Maritime Affairs

This book presents a comprehensive tutorial exposition of radar detection using the methods and techniques of mathematical statistics. The material presented is as current and useful to today's engineers as when the book was first published by Prentice-Hall in 1968 and then republished by Artech House in 1980.

The book is divided into six parts. Part I is introductory and describes the nature of the radar detection problem. Part II reviews the mathematical tools necessary for a study of detection theory. Part III contains tutorial expositions in a radar context of the classical signal-to-noise and a posteriori theories, both of which have played important roles in the evolution of modern radar.

The unifying theme of the book is provided by statistical decision theory, introduced in the last chapter of Part III, which provides the framework for the chapters that follow. The first three chapters of Part IV contain a unified tutorial exposition of single and multiple hit detection theory. The last two chapters are respectively devoted to the use of the radar equation and a discussion of cumulative detection probability. The latter includes a procedure for minimizing the power-aperture product of a search radar. The performance of near-optimum multiple hit detection strategies are considered in Part V. These include binary and pulse train detection strategies.

The first chapter in Part VI applies sequential detection theory to the radar detection problem. It includes the Marcus and Swerling test strategy and a two-step approximation to sequential detection. The second chapter contains the development of Bayes decision rules and Bayes receivers for optimizing the detection ofmultiple targets with unknown parameters, such as range, velocity, angle, etc.

Ground penetrating radar has come to public attention in recent criminal investigations, but has been a developing and maturing remote sensing field for some time. In the light of recent growth of the technique to a wide range of applications, the need for an up-to-date reference text has become pressing. This fully revised and expanded edition of David Daniels' bestselling text, Surface-Penetrating Radar (IEE, 1996) presents, for the non-specialist user or engineer, all the key elements of this technique, which span several disciplines including electromagnetics, geophysics and signal processing. The book enables the user to assess the potential of the technique and apply it effectively with current technology. The new edition is a greatly expanded treatment of a radar technique that penetrates the surface of the ground or man-made structures and contains many additional contributions by leading experts in the field. Ground penetrating radar is increasingly used to examine archaeological sites, engineering structures (e.g. bridges, roads) etc., and has come to some prominence in forensic investigations. GPR is also used for the detection of landmines. The book presents the principles with an emphasis on practical applications and also includes a CD with many examples of GPR data and processing techniques as Mathcad worksheets.

Principles of Radar and Sonar Signal Processing offers you a thorough presentation of the latest technologies in conventional and adaptive signal processing theory, and covers techniques for detailed analysis of physical signatures of targets and clutter. You learn how target signature analysis provides you with a better understanding of the various techniques used in anechoic chambers and modern radar systems.

Extensively supported with over 440 equations and more than 110 illustrations.

This document describes human factors challenges that need to be considered in the implementation of planned enhancements to the Standard Terminal Automation Replacement System (STARS), Common Automated Radar Terminal System (ARTS), and the ARTS Color Display (ACD) in the Terminal Radar Approach Control (TRACON) environment.

What is radar? What systems are currently in use? How do they work? Understanding Radar Systems provides engineers and scientists with answers to these critical questions, focusing on actual radar systems in use today. It's the perfect resource for those just entering the field or a quick refresher for experienced practitioners. The book leads readers through the specialized language and calculations that comprise the complex world of modern radar engineering as seen in dozens of state-of-the-art radar systems. The authors stress practical concepts that apply to all radar, keeping math to a minimum. Most of the book is based on real radar systems rather than theoretical studies. The result is a valuable, easy-to-use guide that makes the difficult parts of the field easier and helps readers do performance calculations quickly and easily.

Interest in the applications of ultrawideband (UWB) radar systems is increasing rapidly all over the world. This is evident from the number of monographs recently published on the subject and from the many papers presented at international conferences on the general problems involved in UWB radar and on its promising new applications. Conventional (classical) methods seem to have exhausted their potential and studies in the field are undergoing a profound change. This book presents some of the novel approaches to radar system analysis now being investigated. A good source of information on UWB signals is their structural analysis in the time domain. This allows a greater understanding of the specific features of UWB radar systems, such as the properties of receiving and transmitting antennas, and various characteristics of near- and far-range target scattering fields. It is shown how the systematic application of numerical procedures can provide new results in the evaluation of UWB radar target responses. The authors do not try to cover all of the possible solutions to the problem of multidimensional representation of target responses; rather they aim to give a general understanding of the techniques of confluent analysis, computer holography and adaptive synthesis of antenna apertures. These methods have great potential for solving conventional radar problems in target detection and recognition, and they are sure to stimulate the use of UWB signals in many fields such as subsurface probing and ecological monitoring.

Offers the basic meaning of terms and concepts related to radar, antenna and microwave technology. This reference text covers every aspect of the technology, including systems, components, targets, performance features, environmental effects and more. More than 5000 alphabetically-arranged entries offer the reader concise descriptions, listings of related terms, detailed equations and illustrations, and up-to-date references for more advanced research.

This book describes the basic theory and design tools you need to develop, design, and analyze high-resolution radar systems, subsystems, components, and processing methods.

A distillation of technical material culled from key radar publications and conferences that have occurred over the past five years, this book provides access to the answers to common design problems with designer crib sheets. William Morchin has also written Airborne Early Warning Radar.

This is an enlarged and revised second edition of a book first published in 1978 and reprinted twice since then. The new edition includes updates to all the original chapters, plus two new chapters on developments in superresolution techniques and their application to direction-finding arrays. Modern direction finders, capable of measuring elevation angles as well as azimuth angles on the components of multi-ray wavefields, have become powerful tools for research in ionospheric physics and HF radio propagation. The complexity of the problem of resolving closely-spaced rays requires the combined use of wide aperture antenna arrays, multichannel receiving systems and sophisticated digital processing techniques. Published research papers over the last 12 years provide a rich source of information on the development of superresolution algorithms for use in radar, sonar, geophysics and spectral analysis, as well as radio direction finding. Dr Gething reviews the important methods and results, showing how some of the new techniques are related to the wavefront analysis methods described in the first edition. The text is illustrated with computer plots of model wavefields and contain important results on the loci of constant phase and amplitude, and on the statistical properties of bearing-error distributions for specified models. The collection and interpretation of ionospheric data for the purpose of mode identification, and the statistical theory of DF plotting algorithms, are also discussed. Wavefront analysis and superresolution may be regarded as extensions to classical array theory. The basic principles are widely applicable and should therefore be of interest to research workers in radar, sonar, radioastronomy and adaptive array theory, as well as HF radio direction finding.

The material presented in this book is intended to provide the reader with a practical treatment of Weibull distribution as applied to radar systems. Topics include general derivation of Weibull distribution, measurements of Webull-distributed clutter, comparison of Webull distribution with various distributions including Rayleigh, gamma, log-normal and k- distributions, constant false alarm rate (CFAR) detectors for Weibull clutter, non-parametric CFAR detectors, and signal detection in the time and frequency domains. In particular, the Akaike Information Criterion (AIC), which is a rigorously mathematical fit of the hypothetical distribution to the data, is emphasised. This book is written primarily for radar engineers. It is hoped that it will also be of value to teachers and graduate students and of interest to all who are working with Weibull distribution in various fields.

This text attempts to give the reader an understanding of the key developments in moment methods and the early history of this development. It provides over 45 key papers in the field, many of which are from non-IEEE sources.