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Library | Item Barcode | Call Number | Material Type | Item Category 1 | Status |
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Searching... | 30000010263956 | TK6592.G7 T87 2010 | Open Access Book | Book | Searching... |
Searching... | 30000010296614 | TK6592.G7 T87 2011 | Open Access Book | Book | Searching... |
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Summary
Summary
This book provides readers with a solid understanding of the capabilities and limitations of the techniques used for buried object detection. Presenting theory along with applications and the existing technology, it covers the most recent developments in hardware and software technologies of sensor systems with a focus on primary sensors such as Ground Penetrating Radar (GPR) and auxiliary sensors such as Nuclear Quadruple Resonance (NQR). It is essential reading for students, practitioners, specialists, and academicians involved in the design and implementation of buried object detection sensors.
Author Notes
Ahmet S. Turk, PhD, has been working on land mine detection systems as a ground-penetrating impulse radar RF system and antenna designer since 1998. Dr. Turk has over thirty technical publications in the areas of high frequency and microwave radars, RF communication devices, and ultra-wide band antennas.
A. Koksal Hocaoglu, PhD, has worked on image and signal analysis projects such as vehicle detection and recognition, detection of tripwires, acoustic signature analysis, and multi-sensor fusion for target recognition and tracking. He has been active in land mine detection algorithm research since 1998. Dr. Hocaoglu has over thirty technical publications in the areas of image and signal processing and pattern recognition.
Alexey A. Vertiy, DSc., PhD, has been working on quasi-optical imaging, generating sub-THz Smith-Purcell radiation, super low-temperature millimeter wave spectroscopy for nuclear polarized targets, and subsurface microwave and sub-THz tomography systems for security, remote sensing, non-destructive testing, and medical applications. Dr. Vertiy has over one hundred sixty scientific publications in the areas of microwave and millimeter wave technologies, including coauthorship of two books.
Table of Contents
Contributors | p. xiii |
Preface | p. xvii |
1 Introduction | p. 1 |
Relevant Resources | p. 4 |
References | p. 4 |
2 Sensor Types | p. 7 |
2.1 Introduction | p. 7 |
2.2 Ground-Penetrating Radar | p. 8 |
2.3 Electromagnetic Induction Detector | p. 19 |
2.4 Microwave Tomography Method | p. 23 |
2.5 Acoustic and Seismic Sensor | p. 29 |
2.6 Optical Detectors (Infrared and Hyperspectral) | p. 36 |
2.7 Biochemical Sensors | p. 37 |
2.8 Nuclear Sensors | p. 44 |
References | p. 48 |
3 Ground-Penetrating Radar | p. 55 |
3.1 Introduction | p. 55 |
3.2 GPR System Design | p. 57 |
3.3 GPR Hardware | p. 64 |
3.4 GPR Antennas | p. 83 |
3.5 Signal-Processing Techniques | p. 96 |
3.6 Imaging Algorithms | p. 108 |
3.7 Numerical Modeling of GPR | p. 122 |
3.8 Detection and Classification Algorithms | p. 146 |
References | p. 162 |
4 Electromagnetic Induction | p. 175 |
4.1 Introduction to Metal Detectors | p. 175 |
4.2 Inductive Metal Detectors: Types of Probes, Excitation, and Coil Arrangements | p. 179 |
4.3 Influence of the Soil Properties | p. 196 |
4.4 Modeling Inductive Metal Detectors | p. 202 |
4.5 Advanced Signal-Processing and Pattern Recognition Systems for Metal Detection | p. 211 |
4.6 Conclusions | p. 223 |
References | p. 224 |
5 Microwave Tomography | p. 227 |
5.1 Overview | p. 227 |
5.2 Electromagnetic Tomography | p. 228 |
5.3 Multifrequency Tomographic Method | p. 255 |
5.4 Diffraction Multiview Tomographic Method in the Microwave and Millimeter-Wave Bands | p. 310 |
5.5 Nonlinear Inversion Algorithms | p. 365 |
References | p. 377 |
6 Acoustic and Seismic Sensors | p. 387 |
6.1 Overview | p. 387 |
6.2 Operating Principles and Sensor Physics | p. 389 |
6.3 Sensor Installation | p. 400 |
6.4 Multicomponent Techniques | p. 403 |
6.5 Limitations | p. 408 |
6.6 Future Prospects | p. 409 |
References | p. 410 |
7 Auxiliary Sensors | p. 413 |
7.1 Overview | p. 413 |
7.2 Biological and Chemical Methods of Explosive Detection | p. 414 |
7.3 Nuclear Quadrupole Resonance | p. 429 |
7.4 X-ray, Gamma-ray, and Neutron Techniques | p. 451 |
7.5 Electric Impedance Tomography | p. 460 |
7.6 Infrared and Hyperspectral Systems | p. 465 |
References | p. 484 |
8 Multisensor Fusion | p. 501 |
8.1 Preview | p. 501 |
8.2 Data Association | p. 503 |
8.3 Fusion Architectures | p. 503 |
8.4 Probabilistic Sensor Fusion | p. 505 |
8.5 Fuzzy Integrals for Information Fusion | p. 513 |
8.6 Artificial Neural Networks | p. 517 |
8.7 Summary | p. 523 |
References | p. 523 |
9 Geophysical Applications | p. 525 |
9.1 Introduction | p. 525 |
9.2 Electromagnetic Properties of Soils | p. 526 |
9.3 Hydrogeophysics | p. 567 |
9.4 Contaminant Remediation | p. 600 |
9.5 Agricultural Geophysics | p. 618 |
9.6 Archaeology and Cultural Heritage | p. 644 |
References | p. 667 |
10 Remote Sensing and Security | p. 689 |
10.1 Introduction | p. 689 |
10.2 Through-Wall Imaging and Detection | p. 690 |
10.3 Millimeter-WaveBand Passive Imaging | p. 721 |
References | p. 740 |
11 Mine Detection | p. 743 |
11.1 The Landmine Problem | p. 743 |
11.2 Overview of Demining Techniques | p. 745 |
11.3 Advanced Electromagnetic Induction Sensor | p. 747 |
11.4 Ground-Penetrating Radar | p. 750 |
11.5 Electrooptical Sensors | p. 753 |
11.6 Chemical Sensor Arrays for Mine Detection | p. 755 |
11.7 Sensor Fusion | p. 757 |
11.8 Alis: A Handheld Multisensor System for Landmine Detection | p. 758 |
11.9 Conclusions | p. 769 |
References | p. 769 |
12 Transportation and Civil Engineering | p. 773 |
12.1 Introduction | p. 773 |
12.2 Proper Sensor Types | p. 785 |
12.3 Ground-Penetrating Radar for Road Characterization | p. 795 |
12.4 Eddy Current Tomography for Three-Dimensional Imaging in Conductive Materials | p. 818 |
12.5 Ultrasonic Methods for Nondestructive Testing | p. 824 |
12.6 Impact Echo | p. 836 |
12.7 Diagnostic Methods for Concrete and Bridge by Acoustic Emission | p. 844 |
12.8 Vibroacoustic Monitoring of Concrete Structures | p. 860 |
12.9 Application of Nuclear Techniques for Civil Engineering | p. 872 |
References | p. 877 |
Index | p. 885 |