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Exploration and Monitoring of the Continental Shelf Underwater Environment

Edited by Iftikhar B. Abbasov
Copyright: 2019   |   Status: Published
ISBN: 9781119488033  |  Hardcover  |  
312 pages
Price: $225 195 USD
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One Line Description
Dedicated to the unique developments of hydroacoustical equipment to monitor the sea coastal shelf environment, this groundbreaking unique study presents a survey of modern methods and technical monitoring facilities, including the diagnostics of underwater engineering when monitoring offshore.

Audience
Project Engineers, oceanographers, statisticians, physicists, geophysicists, computer analysts, and any other engineer or scientist working with hydroacoustic methods to explore the oceans

Description
There is still so much about the oceans that scientists do not know, and exploring the continental shelves of the world is a huge part of finding out more about these underwater environments. Further to that, it is extremely important that, while scientists and engineers explore and monitor the continental shelf, no damage is done to these precious environments. That is the needle that this study intends to thread, giving scientists and engineers a better method and processes for exploring these underwater mysteries, while protecting the environment and wildlife thriving beneath.

Written by a proven scientist in this area, this book is dedicated to the unique developments of hydroacoustical equipment to monitor the coastal shelf. The results of the original experimental sonar studies with application of the parametric antenna are presented. The book presents a survey of the modern methods and technical monitoring facilities of the coastal aqueous environment. The basic characteristics of the parametric antennas are given considering propagation of the acoustic waves in the environments with dispersion and acoustical absorption. The author and his colleagues consider the questions of formation of the parametric antenna field in layered-heterogeneous media and the peculiarities of sounding of the interfaces and bottom sediments. Ecological monitoring methods of the basic parameters of quality and condition of the aqueous environment are analyzed. The peculiarities of diagnostics of the underwater engineering constructions when monitoring the offshore strips are described.

For both veteran engineers and students in the field alike, this breakthrough study is a must-have for any scientific library concerned with studying the oceans and especially the continental shelf.



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Supplementary Data
• Presents the results of original experimental sonar studies with application of parametric antenna
• Gives a survey of modern hydroacoustical systems using autonomous underwater vehicles, including their specific features and development prospects
• Is the only study dedicated to the questions of experimental development of the shelf zone for the purpose of the conservation of the ecology of the marine environment
• Presents original experimental data of bottom structures, with the purpose of searching for mineral products, constructing hydraulic structures, and evaluating sludge contaminations for ecological control
• Contains many important illustrations and diagrams of various engineering systems for monitoring the aquatic environment


Author / Editor Details
Iftikhar B. Abbasov, PhD, is a specialist in mathematical modeling, computer engineering and industrial design at the Southern Federal University in Russia. He has numerous publications to his credit, focusing on the use of mathematical modeling and high-level computer programming for practical applications, such as ocean exploration, coastal engineering.

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Table of Contents
Abstract xi
Preface xiii
1 Monitoring of Aqueous Environment of the Continental Shelf: The Current State 1
1.1 Introduction 1
1.2 General Monitoring Tasks 3
1.3 Remote Monitoring with the Help of Satellites 4
1.4 Monitoring of Underwater Seismic Activity 6
1.5 Fish Stock Monitoring 6
1.6 Monitoring in the Marine Archeology 7
1.7 The Use of Underwater Vehicles for
Geological Exploration 7
1.8 Use of Underwater Vehicles for Monitoring
of Ecosystems 8
1.9 Modern Underwater Vehicles for Monitoring
of Ecosystems 11
1.10 Hydro Acoustical Shelf Monitoring Systems 18
1.11 Conclusion 22
References 22
2 Parametric Antennas in the Mediums with Hydrophysical Inhomogeneities: Theory and Experiment 25
2.1 Introduction 25
2.2 Assignment of the Task of Theoretical and Experiment Research of the Parametric Antennas in the Mediums with Hydro Physical Inhomogeneities 26
2.3 Methods of Solution of KhZK Equations Considering Hydrophysical Inhomogeneities 31
2.4 Measurement Procedure of the Field Characteristics of the Parametric Antenna and Backward Volume Scattering at Models of the Hydrophysical Inhomogeneities 34
2.5 The Results of Experimental Measurements of Characteristics of the Parametric Antenna Field and Backward Volume Scattering at Models of Hydrophysical Inhomogeneities 42
2.6 Discussion of the Results of the Theoretical and Experimental Research 54
2.7 Conclusion 54
References 55
3 Research of the Phase Characteristics of Parametrical Radiators for Measuring Purposes 57
3.1 Introduction 57
3.2 Measurement Procedure of the Phase Structure of the Acoustic Field 58
3.3 Phase Portrait of the Field of the Parametric Antenna with Planar Transformer of Pumping 62
3.4 Phase distributions in the Spherically Diverging Waves of the Parametrical Antenna 68
3.5 Parametrical Radiator Use for Hydro Acoustical Measurements in the Limited Size Tanks 72
3.6 Conclusion 78
References 79
4 Influence of Layer-Discrete Areas on the Formation of the Direction Acoustic Parametric Antenna at the Diagnostic of the Water Environment 81
4.1 Limitations of the Nonlinear Interaction Region. 82
4.1.1 Statement of the Problem
4.1.2 Limitation of the Nonlinear Interaction Region by the General Surface of Round Piston Transformer of the Acoustic Parametric Antenna 84
4.1.3 Limitation of the Nonlinear Interaction Region by the General Surface of Rectangular Piston Transformer of the Acoustic Parametric Antenna 86
4.1.4 Limitation by the Incident Flat Surface 87
4.1.5 Limitation with Curved Surfaces 89
4.1.6 The Field of Acoustic Parametric Antenna with Layered-Non-Homogeneous Nonlinear Interaction Region 92
4.2 Nonlinear Interaction Region as a System of the Normal (Orthogonal) Discrete Plane-Parallel Layers. Statement of the Problem. 94
4.3 Experimental Studies of the Field of Acoustic Parametric Antenna at Presence of the Layer, Plate and System of Layers in the Nonlinear Interaction Region 102
4.3.1 Liquid Layer 102
4.3.2 Plate 105
4.3.3 Incident Plate 109
4.3.4 System of Plates 114
4.4 Layers with Diffused Boundaries in the Nonlinear Interaction Region 118
4.4.1 On the formation of the field of an acoustic
parametric antenna in a periodic structure
with diffuse boundaries 118
4.4.2 Application of the Immersion Method
to Consider a System of Layers with
Blurred Boundaries 119
4.5 Conclusion 123
References 125
5 Experimental Research of Penetration of the Acoustic Inhomogeneous Plane Waves from Water into Air 129
5.1 Introduction 129
5.2 Statement of the problem 132
5.3 Method of investigation 143
5.4 Results of the study 147
5.5 Discussion 157
5.6 Conclusion 164
References 165
6 Study of Nonlinear Interaction of Acoustic Waves Driven by Parametric Radiating Antenna During Sounding of Bottom Sediments 167
6.1 Introduction 167
6.2 Statement of the Problem 173
6.3 Research Technique of the Basic PA Characteristics in BS at Normal Incidence to the Interface with Subsequent Excitation in BS of Longitudinal Waves 173
6.4 Results of Research of the Basic PA Characteristics in BS at Normal Incidence to the Interface with Subsequent Excitation of P-Waves in BS 184
6.5 Research Technique of the Basic PA Characteristics in BS at Incidence to the Interface at Angles Close to Critical, with Subsequent Excitation in BS of Shear Waves 191
6.6 The Results of Research of the Basic PA Characteristics in BS, at Incidence to the Interface at Angles, Close to Critical, with Subsequent Excitation of Shear Waves in BS 198
6.6 Discussion 204
6.7 Conclusion 206
References 207
7 The Underwater Ultrasonic Equipment with the Nonlinear Acoustics Effect-- Application
7.1 Introduction 212
7.2 The Navigation System with Short Based Length 214
7.3 An Impulse Method for Broadband Acoustical Measurements 219
7.4 The Nonlinear Hydroacoustic Wavegraph 223
7.5 Conclusion 231
References 232
8 The Research of Waters Eutrophication of the Gulf of Taganrog of the Sea of Azov For Ecological Monitoring Purposes 235
8.1 Introduction 236
8.2 Problem Statement 237
8.3 Methods 239
8.4 Results 243
8.5 Discussion 261
8.6 Conclusion 262
References 262
9 The Application Features of Sonar Systems for Control of Underwater Engineering Structures and Monitoring Area 267
9.1 Introduction 267
9.2 Procedure of Detailed Investigation of the Objects with the Help of Side Scan Sonar 270
9.3 Ecological Monitoring of the Water Bottom with Side Scan Sonar 274
9.4 Investigation of the Vertical Walls and Supports of Underwater Part of the Engineering Structures 276
9.5 Complexation of Side Scan Sonar with Parametric Profile Recorder 280
9.6 Extension of Antenna Bandwidths of Side Scan Sonar and Antennas of Pumping of the Parametric Profile Recorders 285
9.7 Conclusion 290
References 290
Index

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BISAC SUBJECT HEADINGS
TEC060000 : TECHNOLOGY & ENGINEERING / Marine & Naval
SCI052000 : SCIENCE / Earth Sciences / Oceanography
BUS099000 : BUSINESS & ECONOMICS / Environmental Economics
 
BIC CODES
RBKC: Oceanography (seas)
RNU: Sustainability
TNF: Hydraulic engineering

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