Geophysics Books

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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Book SynopsisThis book presents a state-of-the-art overview of the role that Antarctica and the Southern Ocean play as integral parts of the Earth System.While often characterised as the last great wilderness on Earth, Antarctica is intimately connected to the rest of the planet, exerting key influences on all places and all people. It is also vulnerable to global changes, especially those driven by humans. This book examines how Antarctica and the Southern Ocean are connected to the rest of the planet, and what these connections mean for the future of Planet Earth and all its inhabitants. It transcends traditional disciplinary boundaries to explore this role across physical, ecological, political and social systems. Drawing on the latest research findings and thinking, the volume identifies the current leading-order challenges across each of these spheres, highlighting areas where enhanced focus is needed. With the role of Antarctica in the Earth System being one of the most relevant the

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Book SynopsisIn 1951 UNESCO launched an Arid Zone Programme with the object of promoting research into arid regions from every relevant scientific point of view. This book, originally published in 1966, represents the range of research undertaken and gives a general conspectus of arid zone geography. 17 authors from 8 countries contributed and the book deals comprehensively with all the main areas, with specific examples used to illustrate arguments. There are chapters on meteorology, geology, geomorphology, botany and zoology and almost 50% of the book is devoted to manâs activities: irrigation and agriculture; industry; animal breeding and human survival in the desert

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Book SynopsisThis book provides thorough and comprehensive coverage of most of the new and important quantitative methods of data analysis for graduate students and practitioners. In recent years, data analysis methods have exploded alongside advanced computing power, and it is critical to understand such methods to get the most out of data, and to extract signal from noise. The book excels in explaining difficult concepts through simple explanations and detailed explanatory illustrations. Most unique is the focus on confidence limits for power spectra and their proper interpretation, something rare or completely missing in other books. Likewise, there is a thorough discussion of how to assess uncertainty via use of Expectancy, and the easy to apply and understand Bootstrap method. The book is written so that descriptions of each method are as self-contained as possible. Many examples are presented to clarify interpretations, as are user tips in highlighted boxes.Trade Review'This text is suitable for undergraduates and graduates, as well as seasoned scientists and engineers seeking to broaden their statistical skills. It will have lasting value as it is comprehensive, containing detailed explanations of a wide range of statistical methods. The book is clearly written by a meticulous scientist who is an expert in the field and an award winning teacher.' James Hays, Columbia University, New York'At last: a guide for getting the most out of your data analysis while avoiding the many pitfalls, hazards and common mistakes. This book is an invaluable and inspired opus on the fundamentals of quantitative data analysis. It is both comprehensive and illuminating, with many a nugget of enlightened wisdom, as well as succinctly summarized 'take-home' points in each and every section. A very accessible must-have guide for exploring data in the most informed way, and a gem of a textbook for students, teachers and practitioners alike.' Sharon Stammerjohn, University of Colorado, Boulder'Coherent book-length treatments are so valuable in the Data Age: the internet is full of algorithms - but described flatly, and in myriad notations and nomenclatures. This long-time teacher's lucid text expresses the spirit and strategy of data analysis, as well as the details. Boxes set off optional advanced derivations, appendices survey matrix algebra and uncertainty analysis, and the chapters aim for standalone readability, making this a valuable reference as well as a flexible textbook (with questions). Spectral estimation is especially well covered.' Brian Mapes, University of Miami'This is a competent development of many data analysis methods … Overall, the book is the outgrowth of teaching the subject for 30 years, which shows in the well-developed, clear narrative descriptions accompanying the theory.' D. A. Vaccari, ChoiceTable of ContentsPart I. Fundamentals: 1. The nature of data and analysis; 2. Probability theory; 3. Statistics; Part II. Fitting Curves to Data; 4. Interpolation; 5. Smoothed curve fitting; 6. Special curve fitting; Part III. Sequential Data Fundamentals: 7. Serial products; 8. Fourier series; 9. Fourier transform; 10. Fourier sampling theory; 11. Spectral analysis; 12. Cross spectral analysis; 13. Filtering and deconvolution; 14. Linear parametric models; 15. Empirical orthogonal function (EOF) analysis; A1. Overview of matrix algebra; A2. Uncertainty analysis; References; Index.

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Book SynopsisThermodynamics sets fundamental laws for all physical processes and is central to driving and maintaining planetary dynamics. But how do Earth system processes perform work, where do they derive energy from, and what are the limits? This accessible book describes how the laws of thermodynamics apply to Earth system processes, from solar radiation to motion, geochemical cycling and biotic activity. It presents a novel view of the thermodynamic Earth system explaining how it functions and evolves, how different forms of disequilibrium are being maintained, and how evolutionary trends can be interpreted as thermodynamic trends. It also offers an original perspective on human activity, formulating this in terms of a thermodynamic, Earth system process. This book uses simple conceptual models and basic mathematical treatments to illustrate the application of thermodynamics to Earth system processes, making it ideal for researchers and graduate students across a range of Earth and environmenTrade Review'Examines what goes on in the Earth's atmosphere, oceans, geosphere and biosphere from the perspective of energy and entropy flows. Kleidon draws on a wide range of research to help clarify in quantitative detail how thermodynamics shapes the entire Earth system, and, in particular, how humanity has come to play a central role in the Earth's physics … This important book fills a crucial gap by drawing out the implications of the second law of thermodynamics for the whole Earth system.' Mark Buchanan, Nature PhysicsTable of ContentsPreface; List of symbols; 1. Thermodynamics and the Earth system; 2. Energy and entropy; 3. The first and second law of thermodynamics; 4. Thermodynamic limits; 5. Dynamics, structures, and maximization; 6. Radiation; 7. Motion; 8. Hydrologic cycling; 9. Geochemical cycling; 10. Land; 11. Human activity; 12. The thermodynamic Earth system; Glossary; References; Index.

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Book SynopsisThis multidisciplinary book, for researchers and graduate students, presents the mathematical underpinnings in the analysis of passive sensor array imaging using ambient noise sources. It also covers a range of related topics, including conventional sensor array imaging, wave propagation in random media, and high frequency wave propagation.Table of ContentsPreface; 1. Introduction and overview of the book; 2. Green's function estimation from noise cross correlations; 3. Travel time estimation from noise cross correlations using stationary phase; 4. Overview of conventional sensor array imaging; 5. Passive array imaging of reflectors using ambient noise illumination; 6. Resolution analysis for passive array imaging using ambient noise illumination; 7. Travel time estimation using ambient noise in weakly scattering media; 8. Correlation-based reflector imaging using ambient noise in weakly scattering media; 9. Virtual source imaging in homogeneous media; 10. Virtual source imaging in scattering media; 11. Imaging with intensity cross correlations; 12. A review of wave propagation in random media; Appendix. Basic facts from analysis and probability; References; Index.

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Book SynopsisThis hands-on introduction to numerical geodynamic modelling provides a solid grounding in the necessary mathematical theory and techniques, including continuum mechanics and partial differential equations, before introducing key numerical modelling methods and applications. Fully updated, this second edition includes four completely new chapters covering the most recent advances in modelling inertial processes, seismic cycles and fluid-solid interactions, and the development of adaptive mesh refinement algorithms. Many well-documented, state-of-the-art visco-elasto-plastic 2D models are presented, which allow robust modelling of key geodynamic processes. Requiring only minimal prerequisite mathematical training, and featuring over sixty practical exercises and ninety MATLAB examples, this user-friendly resource encourages experimentation with geodynamic models. It is an ideal introduction for advanced courses and can be used as a self-study aid for graduates seeking to master geodynamic modelling for their own research projects.Trade Review'A great introduction to computational geodynamics with vivid examples, hands-on exercises and step-by-step derivations of formulas. Even better than the first edition.' Sascha Brune, Das Helmholtz-Zentrum Potsdam – Deutsches GeoForschungsZentrum'This book is so much more than an introduction to geodynamic modelling. Taras Gerya opens the world of geodynamic experiments by taking the reader through a carefully designed set of hands-on programming exercises that will convince you that modelling is not terribly complicated, but a process to logically follow through. Go ahead and get started!' Susanne Buiter, Geological Survey of Norway'This comprehensive textbook challenges all solid Earth scientists to give geodynamic modelling a try in a hands-on, empowering style. The new edition covers even more ground, including cutting-edge topics. A great achievement, and the community will be the better for it.' Thorsten Becker, University of Texas, AustinPraise for the first edition: '… the book provides excellent value for those wanting an introduction to the field. Anyone who works carefully through this book and completes all the exercises should be well prepared for further work in geodynamic modelling.' GeoscientistPraise for the first edition: 'The book is written in a light and engaging style such that it deserves a place on the recommended reading list of any undergraduate or Masters course that includes geodynamics. Additionally, it will be a valuable resource for any geoscientist who wants to include geodynamic modelling within their research activities.' Geological MagazineTable of Contents1. The continuity equation; 2. Density and gravity; 3. Numerical solutions of partial differential equations; 4. Stress and strain; 5. The momentum equation; 6. Viscous rheology of rocks; 7. Numerical solutions of the momentum and continuity equations; 8. The advection equation and marker-in-cell method; 9. The heat conservation equation; 10. Numerical solution of the heat conservation equation; 11. 2D thermomechanical code structure; 12. Elasticity and plasticity; 13. 2D implementation of visco-elasto-plasticity; 14. 2D thermomechanical modelling of inertial processes; 15. Seismo-thermomechanical modelling; 16. Hydro-thermomechanical modelling; 17. Adaptive mesh refinement; 18. The multigrid method; 19. Programming of 3D problems; 20. Numerical benchmarks; 21. Design of 2D numerical geodynamic models; Epilogue: outlook; Appendix: MATLAB® program examples; References; Index.

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Book SynopsisThe past few decades have witnessed remarkable growth in the application of passive seismic monitoring to address a range of problems in geoscience and engineering, from large-scale tectonic studies to environmental investigations. Passive seismic methods are increasingly being used for surveillance of massive, multi-stage hydraulic fracturing and development of enhanced geothermal systems. The theoretical framework and techniques used in this emerging area draw on various established fields, such as earthquake seismology, exploration geophysics and rock mechanics. Based on university and industry courses developed by the author, this book reviews all the relevant research and technology to provide an introduction to the principles and applications of passive seismic monitoring. It integrates up-to-date case studies and interactive online exercises, making it a comprehensive and accessible resource for advanced students and researchers in geophysics and engineering, as well as industryTrade Review'It is now well established that human activities in the subsurface create induced seismicity. While large events can be extremely problematic from both a seismic hazard and operational safety perspective, smaller induced events, known as microseismic events, can tell us a great deal about changes in the subsurface. Eaton provides a clear and comprehensive description of such seismicity, starting from first principles and then progressively taking the reader through to real examples and case studies. A focus is on seismicity associated with oil and gas exploitation, but the book will also appeal to scientists interested in seismicity in a range of other settings (e.g., geothermal, mining, etc.). Eaton has crafted an excellent seismology text for students and earthquake seismologists in general.' Michael Kendall, University of Bristol'Passive Seismic Monitoring of Induced Seismicity is a comprehensive textbook covering basic theoretical concepts of seismic and ancillary topics through to practical implementation in industrial settings. The book is an essential reference text on this topical technology.' Shawn Maxwell, Itasca Microseismic and Geomechanical Evaluation'This comprehensive text is a much-needed and timely overview of topics related to seismic monitoring of induced earthquakes. It not only provides a thorough treatment of how microseismic monitoring is done and the data are analyzed, it provides a valuable overview of how and why injection-induced seismicity occurs.' Mark Zoback, Stanford University, CaliforniaTable of ContentsPreface; List of symbols; Part I. Fundamentals of Passive Seismic Monitoring: 1. Constitutive relations and elastic deformation; 2. Failure criteria and anelastic deformation; 3. Seismic waves and sources; 4. Stress measurement and hydraulic fracturing; Part II. Applications of Passive Seismic Monitoring: 5. Passive-seismic data acquisition; 6. Downhole microseismic processing; 7. Surface and shallow-array microseismic processing; 8. Microseismic interpretation; 9. Induced seismicity; Appendix A. Glossary; Appendix B. Signal-processing essentials; Appendix C. Data formats; References; Index.

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Book SynopsisGlobal Change and Future Earth is derived from the work of several programs of the International Union of Geodesy and Geophysics (IUGG). It demonstrates how multi- and inter-disciplinary research outputs from the geoscience community can be applied to tackle the physical and societal impacts of climate change and contribute to the Future Earth programme of the International Council for Science. The volume brings together an international team of eminent researchers to provide authoritative reviews on the wide-ranging ramifications of climate change spanning eight key themes: planetary issues; geodetic issues; the Earth''s fluid environment; regions of the Earth; urban environments; food security; and risk, safety and security; and climate change and global change. Covering the challenges faced by urban and rural areas, and in both developed and developing counties, this volume provides an important resource for a global audience of graduate students and researchers from a broad range oTable of ContentsList of contributors; Preface; 1. International drivers to study climatic and environmental change: a challenge to scientific unions Tom Beer; 2. Future Earth and expected mega changes Serhat Sensoy, Mustafa Coskun, Necla Turkoglu and Ihsan Cicek; 3. Global change, space weather and climate Eigil Friis-Christensen; 4. Climate issues from the planetary perspective and insights for the Earth Athena Coustenis, Fred W. Taylor and Christina Plainaki; 5. Satellite remote sensing of hydrological change Alberto Montanari and Michael G. Sideris; 6. Geodetic observations as a monitor of climate change Tonie van Dam, Jianli Chen and Thierry Meyrath; 7. Future Earth and the cryosphere Ian Allison, Regine Hock, Matt A. King and Andrew N. Mackintosh; 8. Geographical research and Future Earth Michael E. Meadows; 9. Water security: integrating lessons learned for water quality, quantity and sustainability Elaine M. Faustman, Heidi Foth, Luis Schiesari, Julio Alejandro Navoni, Silvia Berlanga de Moraes Barros, Gisela de Aragão Umbuzeiro, Salmaan H. Inayat-Hussain and Marissa N. Smith; 10. Decadal coupled ocean-atmosphere interaction in North Atlantic and global warming hiatus Jianping Li, Cheng Sun and Ruiqiang Ding; 11. Sea level rise and Future Earth Anny Cazenave and Hindumathi Palanisamy; 12. Ocean circulation: knowns and unknowns Harry L. Bryden and Lawrence A. Mysak; 13. Asian groundwater perspectives on global change and Future Earth Makoto Taniguchi; 14. Africa's broken food systems: unravelling the hidden fortune under climate change Richard Munang and Robert Mgendi; 15. Nutrition, urban environments and Future Earth Godwin D. Ndossi and Keto E. Mshigeni; 16. Nutrition science and Future Earth: current nutritional policy dilemmas Mark L. Wahlqvist; 17. Air pollution and human health risk reduction: the case study of Delhi megacity, India R. B. Singh and Aakriti Grover; 18. Targeting research towards achieving food security in an era of climate change Bruce M. Campbell, D. Dinesh and Sophia Huyer; 19. The contribution of food engineering to achieve global food security Walter E. L. Spieß; 20. Supply chains and Future Earth Albert McGill; 21. The impact of global climate change on nutrition security: a multidimensional challenge Ibrahim Elmadfa and Alexa Leonie Meyer; 22. Marine systems, food security and Future Earth Elizabeth A. Fulton, Éva Plagányi, William Cheung, Julia Blanchard and Reg Watson; 23. Geophysical studies, natural hazards and climate change Jaime Urrutia-Fucugauchi and Ligia Pérez-Cruz; 24. Climatic consequences and agricultural impacts of nuclear conflicts Owen B. Toon, Alan Robock, Michael Mills, Lili Xia and Charles Bardeen; 25. Advancing spring flood risk reduction in the Arctic through interdisciplinary research and stakeholder collaborations Yekaterina Y. Kontar, Sarah F. Trainor, Tuyara N. Gavrilyeva, John C. Eichelberger and Nikita I. Tananaev; 26. Geohazard analysis for disaster risk reduction and sustainability Alik Ismail-Zadeh; 27. Geothermal energy and a Future Earth Ladislaus Rybach and Thomas Kohl; 28. Future Earth, climate change and global change: Future Earth's ocean Martin Visbeck and Anke Schneider; 29. Asia's sustainability challenges and Future Earth Tetsuzo Yasunari, Hein Mallee and Reiichiro Ishii; 30. Looking back to move forward: institutional capacity required by global governance changes Jane E. Rovins and Sarah Beaven; Index.

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Book SynopsisIn the twenty-first century, we take the means to measure time for granted, without contemplating the sophisticated concepts on which our time scales are based. This volume presents the evolution of concepts of time and methods of time keeping up to the present day. It outlines the progression of time based on sundials, water clocks, and the Earth''s rotation, to time measurement using pendulum clocks, quartz crystal clocks, and atomic frequency standards. Time scales created as a result of these improvements in technology and the development of general and special relativity are explained. This second edition has been updated throughout to describe twentieth- and twenty-first-century advances and discusses the redefinition of SI units and the future of UTC. A new chapter on time and cosmology has been added. This broad-ranging reference benefits a diverse readership, including historians, scientists, engineers, educators, and it is accessible to general readers.Trade Review'Why do we add 1 second to our clocks at midnight at the end of some years, or at the end of June in others? Why don't we subtract 1 second sometimes instead? … You will find the answers to these and many more questions in this excellent book, written by two experts who worked on the practical aspects of these topics at the US Naval Observatory … The second edition brings these subjects right up to date, and investigates the possible future developments in timekeeping.' L. V. Morrison, The ObservatoryTable of ContentsPreface; 1. Time: pre-twentieth century; 2. Solar time; 3. Ephemerides; 4. Variable Earth rotation; 5. Earth orientation; 6. Ephemeris time; 7. Relativity and time; 8. Time and cosmology; 9. Dynamical and coordinate time scales; 10. Clock developments; 11. Microwave atomic clocks; 12. Optical atomic standards; 13. Definition and role of a second; 14. International Atomic Time (TAI); 15. Coordinated Universal Time (UTC); 16. Time in the solar system; 17. Time and frequency transfer; 18. Modern Earth orientation; 19. International activities; 20. Time applications; 21. Future of time keeping; Acronyms; Glossary.

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Book SynopsisA comprehensive, unified treatment of the materials science of deformation as applied to solid Earth geophysics and geology, this textbook is ideal for graduate courses on the rheology and dynamics of solid Earth. It is also a much-needed reference for geoscientists in geology, geophysics, geochemistry, materials science, mineralogy and ceramics.Trade Review'… a welcome addition to textbooks dealing with experimental rock mechanics and its application to natural rock deformation. … provides by far the most comprehensive and authoritative treatment of this field in recent years. … its greatest value lies in the drawing together of traditional topics together with more recent developments such as the thermodynamic aspects of rock deformation and links with whole-Earth geodynamics. This is combined with a clear writing style and excellent illustrations to make this an essential addition to a researcher's bookshelf.' Geological MagazineTable of ContentsPart I. General Background: 1. Stress and strain; 2. Thermodynamics; 3. Phenomenological theory of deformation; Part II. Materials Science of Deformation: 4. Elasticity; 5. Crystalline defects; 6. Experimental techniques in the study of plastic deformation; 7. Brittle fracture, brittle-plastic transition; 8. Diffusional creep; 9. Dislocation creep; 10. Effects of pressure and water; 11. Physical mechanisms of seismic wave attenuation; 12. Deformation of multi-phase materials; 13. Grain size; 14. Lattice preferred orientation; 15. Effects of phase transformations; 16. Stability and localization of deformation; Part III. Geological and Geophysical Applications: 17. Composition and structure of Earth's interior; 18. Time-dependent deformation of Earth and rheological structures; 19. Inference of rheological structure of Earth from mineral physics; 20. Heterogeneity of seismic wave velocities and its geodynamic significance; 21. Seismic anisotropy and its geodynamic significance; References; Index.

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Book SynopsisThis self-contained textbook is a graduate-level introduction to the physical processes that shape planetary systems, covering all stages of planet formation. The new edition has been updated and expanded to include new observational results and insights, theoretical developments, and an in-depth discussion of the leading planet formation models.Trade Review'Eleven years after the publication of its first edition, Armitage revisits this graduate-level textbook on the astrophysics of planet formation to update it based on the trove of knowledge produced by the Kepler space telescope and ALMA that revolutionized our concept of what planetary systems look like. The book covers the structure and evolution of protoplanetary disks and the formation of planetesimals within them, the formation of rocky and giant planets, as well as the evolution of protoplanetary systems. The astrophysics is put into context by an introductory chapter on what observations are currently telling us.' Karouzos Marios, Nature Astronomy'This book offers to the reader a comprehensive view of all main processes occurring during the planet formation. It serves the task of a perfect introductory book for any student willing to engage in this research topic. It is also an ideal reference to everyone teaching all stages of planet formation and a good support for anyone looking for an overview about physics and key processes of planet formation starting from disk phase. This edition includes most recent developments in the field and a useful suggestion of further reading at the end each chapter.' Didier Queloz, University of Cambridge'Philip Armitage takes you on an engaging journey through the physical processes of planet formation, while providing both physical intuition and the necessary details and equations. Armitage renders a comprehensive picture of the physics behind the different stages of planetary systems' formation and evolution. He connects the current theoretical understandings with recent observations and highlights new and exciting developments in the field. Read this book and expand your knowledge.' Smadar Naoz, University of California, Los Angeles'The end product is an absolutely first-class text-book. Armitage always has the needs of his students firmly in mind. His exposition is comprehensive, detailed, thorough, concise, and clear. This is coupled with the fact that the book is beautifully produced, and well-illustrated, and referenced. It will do much to encourage more scientists to move into this fascinating field.' David W. Hughes, The Observatory'This work is a highly mathematical textbook, drawing on many subdisciplines in physics, chemistry, and geophysics, and designed to train specialists in this complex and rapidly evolving discipline … The field is rapidly changing, with continuing discoveries and theoretical advances, justifying this second edition, and no doubt future editions to come. The book is suitable for students and professionals who are well trained in orbital and fluid dynamics, with some knowledge of other pertinent fields including physical chemistry and magnetohydrodynamics.' S. P. Maran, ChoiceTable of ContentsPreface; 1. Observations of planetary systems; 2. Protoplanetary disk structure; 3. Protoplanetary disk evolution; 4. Planetesimal formation; 5. Terrestrial planet formation; 6. Giant planet formation; 7. Early evolution of planetary systems; Appendix 1: physical and astronomical constants; Appendix 2: N-body methods; References; Index.

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Book SynopsisA concise introduction to geophysical data processing - many of the techniques associated with the general field of time series analysis - for advanced students, researchers, and professionals. The textbook begins with calculus before transitioning to discrete time series via the sampling theorem, aliasing, use of complex sinusoids, development of the discrete Fourier transform from the Fourier series, and an overview of linear digital filter types and descriptions. Aimed at senior undergraduate and graduate students in geophysics, environmental science, and engineering with no previous background in linear algebra, probability, or statistics, this textbook draws scenarios and datasets from across the world of geophysics, and shows how data processing techniques can be applied to real-world problems using detailed examples, illustrations, and exercises (using MATLAB or similar computing environment). Online supplementary resources include datasets for students, and a solutions manual aTrade Review'This is an excellent textbook for a course on signal processing for 3rd-year geophysics students. Wilson does a great job of taking explanations that are often scattered across engineering books and adapting them towards the needs of geophysicists using relevant examples from the field. It has the perfect balance between depth and simplicity for undergraduates.' Daniel Trad, University of Calgary'Wilson's book is an excellent compilation of tools and techniques commonly used by practitioners for analyzing various kinds of data arrays. Although the ideas are presented in the context of geophysics, they can be extended to extract information from geochemical and geobiological datasets with the same finesse. The use of real datasets and easy-to-follow explanations of complex mathematical formulations makes the book a good read.' Priyank Jaiswal, Oklahoma State UniversityTable of ContentsPreface; 1. An Introduction With Geophysical Time Series Examples; 2. Analog Signals and Digital Time Series; 3. Sinusoids and Fourier Series; 4. The Discrete Fourier Transform; 5. Linear Systems and Digital Filters; 6. Convolution and Related Theorems; 7. Least Squares; 8. Linear Filter Design; 9. Least Square and Correlation Filters; 10. Power and Coherence Spectra; Appendix A. Matrices and Vectors; Appendix B. Fourier Transforms of Continuous Functions; Appendix C. Random Variable Concepts and Applications; Appendix D. Further Reading; Index.

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Book SynopsisThis essential reference for graduate students and researchers provides a unified treatment of earthquakes and faulting as two aspects of brittle tectonics at different timescales. The intimate connection between the two is manifested in their scaling laws and populations, which evolve from fracture growth and interactions between fractures. The connection between faults and the seismicity generated is governed by the rate and state dependent friction laws - producing distinctive seismic styles of faulting and a gamut of earthquake phenomena including aftershocks, afterslip, earthquake triggering, and slow slip events. The third edition of this classic treatise presents a wealth of new topics and new observations. These include slow earthquake phenomena; friction of phyllosilicates, and at high sliding velocities; fault structures; relative roles of strong and seismogenic versus weak and creeping faults; dynamic triggering of earthquakes; oceanic earthquakes; megathrust earthquakes inTrade Review'When graduate students or postdocs ask what to read to improve their background in fault mechanics, Christopher H. Scholz's book has always been at the top of my list. This much awaited third edition has been thoroughly updated with the latest findings and insights, from as recent as 2018, and will continue to be an important resource for all geophysicists and geologists interested in active faults.' Roland Bürgmann, University of California, Berkeley'On first publication in 1990, The Mechanics of Earthquakes and Faulting immediately became 'The Book' on the topic. This major revision presents all the new findings from the last fifteen years, including episodic tremor and slip phenomena, the complexity of seismic rupture processes, the mechanics of megathrust faults and associated tsunamis, and lubrication of faults. With its state-of-the art content and rich bibliography of more than 2,000 references, this third edition is a must-read for everyone interested in earthquakes and faults - from undergraduate to the senior research level.' Giulio Di Toro, Padua University, ItalyTable of ContentsPreface to the first edition; Preface to the second edition; Preface to the third edition; 1. Brittle fracture of rock; 2. Rock friction; 3. Mechanics of faulting; 4. Mechanics of earthquakes; 5. The seismic cycle; 6. Seismotronics; 7. Earthquake prediction and hazard analysis; References; Index.

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Book Synopsis1. Time-Variable Volcano Gravimetry.- 2. Monitoring volcanoes deformation based on Synthetic Aperture Radar (SAR) data.- 3. Detection and Location of Volcano-Tectonic Earthquakes.- 4. Monitoring LP & VLP seismicity.- 5. Network-based analysis of seismo-volcanic tremors.- 6. Coda wave interferometry for volcano monitoring.- 7. On the use of Infrasound in volcano monitoring and early warning.- 8. Geochemical monitoring of volcanic fluids in the 21st century.- 9. Remote monitoring of volcanic gases.- 10. Monitoring lava flows.- 11. Thermal monitoring of volcanoes from space.- 12. From eruptive histories to volcano monitoring: probabilistic eruption forecasting and volcanic hazard assessment at varying temporal and spatial scales.- 13. Prospects for forecasting volcanic eruptions after long repose.- 14. Machine learning for volcano monitoring.- 15. Monitoring Lightning and Electrification in Volcanic Plumes.- 16. Muography of Volcanoes.- 17. Fiber optic sensing for volcano monitoring and imaging volcanic processes.

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Book SynopsisThis monograph provides an up-to-date overview on methods and techniques in seismology, with a focus on describing and detecting seismic waves in anisotropic media. The author discusses structural, physical and mechanical aspects of the crust by analyzing earthquake data from field studies, rendering the book a practical reference for researchers in seismology and applied geophysics. Contents: Rock Anisotropy, Fracture and Earthquake Assessment Seismic Wave Propagation in Anisotropic Rocks with Applications to Defining Fractures in Earth Crust Reproducing the Realistic Compressive-tensile Strength Ratio of Rocks using Discrete Element Model Rock Fracture under Static and Dynamic Stress Multiple Linear Regression Analyses on the Relationships among Magnitude, Rupture Length, Rupture Width, Rupture Area, and Surface Displacement PI Algorithm Applied to the Sichuan-Yunnan Region: A Statistical Physics Method for Intermediate-term Medium-range Earthquake Forecast in Continental China Probabilistic Seismic Hazard Assessment for Pacific Island CountriesTable of ContentsTable of content: Chapter 1 Seismic Wave Propagation in Anisotropic Rocks with Applications to Defining Fractures in Earth Crust 1.1 Introduction 1.2 Elastic Anisotropy of Crustal Rocks 1.3 Plane Wave Propagation in Homogeneous Anisotropic Medium 1.4 Reflection and Refraction of Plane Waves at a Planar Boundary between Anisotropic Media 1.5 Ray Tracing in Anisotropic Heterogeneous Media 1.6 Ray Series Modeling of Seismic Wave Propagation in 3-D Heterogamous Anisotropic Media 1.7 Observation and Modeling of Fault-Zone Fracture Seismic Anisotropy 1.8 Shear Wave Splitting Observations and Implications on Stress Regimes in the Los Angeles Basin, California Acknowledgement References Chapter 2 Reproducing the Realistic Compressive-tensile Strength Ratio of Rocks using Discrete Element Model 2.1 Introduction 2.2 A Brief Introduction to the ESyS-Particle 2.3 The New Criterion for Bond Breakage 2.4 Calibration procedures 2.5 Parametric Studies 2.6 Discussions and Conclusions Acknowledgement References Chapter 3 Rock Fracture under Static and Dynamic Stress 3.1 Introduction 3.2 Stress Intensity Factor And Stress Field The Sichuan-Yunan Region 3.3 Coulombchuan-Yunan Regionnd St 3.4 Energy Release and J-integral 3.5 Crack Growth 3.6 Crack Growth under Dynamic Loading 3.7 Cohesive Model in Rock Fracture 3.8 Numeric Method for Fracture Mechanics 3.9 Discussion Acknowledgement References Chapter 4 Multiple Linear Regression Analyses on the Relationships among Magnitude, Rupture Length, Rupture Width, Rupture Area, and Surface Displacement 4.1 Introduction 4.2 Data 4.3 Linear Models and Computational Approach 4.4 Results 4.5 Consluding Remarks Acknowledgments References Chapter 5 PI Algorithm Applied to the Sichuan-Yunnan Region: A Statistical Physics Method for Intermediate-term Medium-range Earthquake Forecast in Continental China 5.1 The PI Algorithm 5.2 The Sichuan-Yunan Region 5.3 PI Algorithm Applied to the Sichuan-Yunnan Region 5.4 Discussion and Development of the PI Application 5.5 Concluding Remark Acknowledgement References Chapter 6 Probabilistic Seismic Hazard Assessment for Pacific Island Countries 6.1 Introduction 6.2 Data 6.3 Kinematic Modeling Based on GPS and Active Faults 6.4 Modeling the Regional Seismicity 6.5 Probabilistic Seismic Hazard Maps 6.6 Discussion Acknowledgments References

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Book SynopsisThis book covers all aspects of inertial navigation systems (INS), including the sensor technology and the estimation of instrument errors, as well as their integration with Global Navigation Satellite Systems, specifically the Global Positioning System (GPS) for geodetic applications. The text is of interest to geodesists, including surveyors, mappers, and photogrammetrists; to engineers in aviation, navigation, guidance, transportation, and robotics; and to scientists involved in aerogeophysics and remote sensing. The most recent developments are covered with this second edition that also features an updated treatment of the classical material. Detailed mathematical derivations of the principles of measurement and data processing of inertial measurement units for both stabilized and strapdown systems. Complete treatment of the error dynamics from a statistical viewpoint, including the Kalman filter. A self-contained description of GPS with emphasis on kinematic applications. Key concepts supported by illustrations and numerical examples.

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Book SynopsisThis sourcebook to the prodigious literature on applications of computers and statistics to geology contains over 2000 references. The glossary provides succinct explanations of most statistical and mathematical terms. Computer topics include hardware, software, programming languages, databases, and communications graphics, CAO/CAM, CAI, GIS and expert systems. Statistical topics range from elementary properties of numbers through univariate, bivariate to multivariate methods. The brief notes on each method provide a general guide to what the technique does, and are illustrated with worked examples from a wide range of geological disciplines. Students and researchers will find the book useful in coping with the explosion of information which has taken place in geology, and to make the best possible use of computers in interpreting acquired data.Table of ContentsList of symbols and abbreviations used.- Section I. Introduction to geological computer use.- Section II. The behavior of numbers: Elementary statistics.- Section III: Interpreting data of one variable: Univariate statistics.- Section IV. Interpreting data with two variable: Bivariate statistics.- Section V: Some Special types of geological data.- Section VI: Advanced techniques.- Selective bibliography of numerical geology.

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Book SynopsisGeophysics operations in archaeology have become well known through exposure on television. However, the technique is presented as the action of specialists and something of a mystery, where people walk about with strange contraptions, and results appear from a computer. This is not the case, however. Some scientific knowledge is needed in order to understand how the machines work and what they detect but otherwise it is only necessary to know how to handle the instruments, how to survey a field and how to interpret the computer results. This book provides all the relevant information. It explains geophysics operations in archaeology, describes the science that gives the soil properties to measure and the means by which the instruments make their measurements. Dr John Oswin is in charge of the geophysics operation of the Bath and Camerton Archaeological Society and his work has recently been the subject of a television programme. He has taught many students how to use geophysical equipment.Trade ReviewFrom the reviews: “In his new work, Oswin (head, geophysics operations, Bath and Camerton Archaeological Society, UK) provides an excellent introduction to geophysics as applied to archaeological survey. … The appendixes are also quite useful as ‘user manuals’ for four common instruments and three popular data processing software programs. Summing Up: Highly recommended. All levels.” (L. D. Frame, Choice, Vol. 47 (5), January, 2010)Table of Contents1 Introduction, 1.1 Geophysics in Archaeology, 1.2 Geophysics and geology,1.3 What the pictures tell, 1.4 What this book aims to do, 2 The basic science, 2.1 Electricity, 2.2 Magnetism, 2.3 Electromagnetic waves, 3 The instruments, 3.1 Resistance meters, 3.2 Magnetometers, 3.3 Electromagnetic devices, 3.4 Ground radar, 3.5 Electronic distance measurement and GPS, 4 Understanding the results, 4.1 Download software,4.2 Pattern recognition, 4.3 Interpretation, 5 Setting up a survey, 5.1 Finding a site, 5.2 Logistics, 5.3 Laying out a grid, 5.4 Making the measurements, 5.5 Showing the results, 6 Examples, 6.1 Looking at landscapes, 6.2 Roman villas, 6.3 Sorting out periods, Glossary, Bibliographical note, Appendix A. Some real equipment controls, Appendix B. A kit list for a survey

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Book SynopsisThe study of heat transfer mechanisms in hydrothermal systems is important for understanding the basic physics behind orebody formation and mineralization in the upper crust (Bickle and Mckenzie 1987; Bjorlykke et al. 1988; Brady 1988; England and Thompson 1989; Hoisch 1991; Connolly 1997). Generally, heat energy may be transferred within the crust in the following forms: conduction, advection (including forced convection) where the heat is carried by a moving mass of rock during def- mation or by a moving uid, convection (i. e. , free convection, natural convection, buoyancy driven convection, temperature gradient driven convection) and a com- nation of these processes. Since advective ow is usually generated by a pore- uid pressure gradient, heat transfer due to advective ow is largely dependent on the pore- uid pressure gradient distribution in hydrothermal systems. A typical ex- ple of this advective ow is the upward through ow caused by lithostatic pore- uid pressure gradients within the lower crust. Extensive studies (Connolly and Ko 1995; Etheridge et al. 1983; England et al. 1987; Fyfe et al. 1978; Walther and Orville 1982; Peacock 1989; Yardley and Bottrell 1992; Hanson 1992; Yardley and Lloyd 1995; Norton and Knapp 1970) have shown that lithostatic pore- uid pressure can be built up by metamorphic uids arising from devolatilization and dehydration - actions, if the permeability is low enough to control uid ow in the lower crust.Table of ContentsDistribution of Pore-Fluid Pressure Gradient in the Crust with Temperature Neglected.- Pore-Fluid Pressure Gradients in the Crust with Heat Conduction and Advection.- Convective Heat Transfer in a Homogeneous Crust.- Convective Heat Transfer in a Heterogeneous Crust.- Pore-Fluid Focusing within Two-Dimensional Faults and Cracks of Crustal Scales with No Temperature Effects: Solutions Expressed in a Local Coordinate System.- Pore-Fluid Focusing within Two-Dimensional Faults and Cracks of Crustal Scales with No Temperature Effects: Solutions Expressed in a Global Coordinate System.- Pore-Fluid Flow Focused Transient Heat Transfer within and around Two-Dimensional Faults and Cracks of Crustal Scales.- Convective Heat Transfer within Three-Dimensional Vertical Faults Heated from Below.- Convective Heat Transfer within Three-Dimensional Inclined Faults Heated from Below.- Double-Diffusion Driven Convective Heat Transfer within Three-Dimensional Vertical Faults Heated from Below.- Convection Induced Ore Body Formation and Mineralization within the Upper Crust of the Earth.

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Book SynopsisSonar performance modelling (SPM) is concerned with the prediction of quantitative measures of sonar performance, such as probability of detection. It is a multi-disciplinary subject, requiring knowledge and expertise in the disparate fields of underwater acoustics, acoustical oceanography, sonar signal processing and statistical detection theory. No books have been published on this subject, however, since the 3rd edition of Urick’s classic work 25 years ago and so Dr Ainslie’s book will fill a much-needed gap in the market. Currently, up-to-date information can only be found, in different forms and often with conflicting information, in various journals, conference and textbook publications. Dr Michael Ainslie is eminently qualified to write this unique book. He has worked on sonar performance modeling problems since 1983. He has written many peer reviewed research articles and conference papers related to sonar performance modeling, making contributions in the fields of sound propagation and detection theory.Trade ReviewFrom the reviews:“This book attempts to provide a combination of information and understanding of the physics and detection theory to enable the reader to address sonar performance issues. … this book is most useful for those who need to build models of aspects of sonar performance. It will also be useful for those who need to specify, test, or evaluate models. … a source of material for someone preparing a course on underwater acoustics or sonar performance modelling. … a good reference book for an acoustics library.” (Adrian Brown, International Journal of Acoustics and Vibration, Vol. 17 (1), 2012)Table of ContentsIntroduction Essential Background The Sonar Equations Sonar Oceanography Underwater Acoustics (I): theory Sonar Signal Processing Statistical Detection Theory Underwater Acoustics (II): sources and scatterers of sound Underwater Acoustics (III): propagation effects Sonar Characteristics The Sonar Equations Revisited The Future of Sonar Performance Modelling Appendix 1: Special functions and mathematical operations Appendix 2: Units and nomenclature Appendix 3: Fish and their swim bladders.

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Book SynopsisGeophysics operations in archaeology have become well known through exposure on television. However, the technique is presented as the action of specialists and something of a mystery, where people walk about with strange contraptions, and results appear from a computer. This is not the case, however. Some scientific knowledge is needed in order to understand how the machines work and what they detect but otherwise it is only necessary to know how to handle the instruments, how to survey a field and how to interpret the computer results. This book provides all the relevant information. It explains geophysics operations in archaeology, describes the science that gives the soil properties to measure and the means by which the instruments make their measurements. Dr John Oswin is in charge of the geophysics operation of the Bath and Camerton Archaeological Society and his work has recently been the subject of a television programme. He has taught many students how to use geophysical equipment.Trade ReviewFrom the reviews: “In his new work, Oswin (head, geophysics operations, Bath and Camerton Archaeological Society, UK) provides an excellent introduction to geophysics as applied to archaeological survey. … The appendixes are also quite useful as ‘user manuals’ for four common instruments and three popular data processing software programs. Summing Up: Highly recommended. All levels.” (L. D. Frame, Choice, Vol. 47 (5), January, 2010)Table of Contents1 Introduction, 1.1 Geophysics in Archaeology, 1.2 Geophysics and geology,1.3 What the pictures tell, 1.4 What this book aims to do, 2 The basic science, 2.1 Electricity, 2.2 Magnetism, 2.3 Electromagnetic waves, 3 The instruments, 3.1 Resistance meters, 3.2 Magnetometers, 3.3 Electromagnetic devices, 3.4 Ground radar, 3.5 Electronic distance measurement and GPS, 4 Understanding the results, 4.1 Download software,4.2 Pattern recognition, 4.3 Interpretation, 5 Setting up a survey, 5.1 Finding a site, 5.2 Logistics, 5.3 Laying out a grid, 5.4 Making the measurements, 5.5 Showing the results, 6 Examples, 6.1 Looking at landscapes, 6.2 Roman villas, 6.3 Sorting out periods, Glossary, Bibliographical note, Appendix A. Some real equipment controls, Appendix B. A kit list for a survey

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Book SynopsisRecent progress in numerical methods and computer science allows us today to simulate the propagation of seismic waves through realistically heterogeneous Earth models with unprecedented accuracy. Full waveform tomography is a tomographic technique that takes advantage of numerical solutions of the elastic wave equation. The accuracy of the numerical solutions and the exploitation of complete waveform information result in tomographic images that are both more realistic and better resolved. This book develops and describes state of the art methodologies covering all aspects of full waveform tomography including methods for the numerical solution of the elastic wave equation, the adjoint method, the design of objective functionals and optimisation schemes. It provides a variety of case studies on all scales from local to global based on a large number of examples involving real data. It is a comprehensive reference on full waveform tomography for advanced students, researchers and professionals.Table of ContentsIntroduction.- Numerical Solution of the Elastic Wave Equation.- Computing Sensitivity Kernels.- Seismological Data Functionals and their Associated Adjoint Sources.- Iterative Optimisation.- Full Waveform Tomography for Upper-mantle Structure in Australasian Region.- A Comparative Study of Local-scale full Waveform Tomographies.- Source Staking and Data Reduction in Global full Waveform Tomography.

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Book SynopsisIn the Spring of 2000 the idea of a consortium of Mediterranean countries support- ing the Italian bid to host the 32nd International Geological Congress took off during ageological fieldtrip on the slopes ofMountVesuviushosted byProf. Bruno D'Argenio (University of Naples) with the sponsorship of SMED(the UNESCO-CNR Office for Scientific and Technological Cooperation with Mediterranean Countries). On that st occasion, the head of the Italian delegation to the coming 31 IGCProf. Gian Battista Vaichampionedthe notionthat - had the bid been accepted - such cooperationshould have not only translated into the participation of the Mediterranean countries in the organization of the future congress, but also should have been a springboard for launching a scientific project focused on the Mediterranean region and whose re- sults had to be presented at the congress. st During the 31 IGCin Riode Janeiro,after the designation of Florence bythe lUGS nd Council as the venue for the 32 IGC,the Mediterranean Consortium was set up. In its full configuration, the Consortium was an association of thirty-one Mediterra- nean and nearbycountries. Alongwith Italy,they are:Albania,Algeria,Austria, Bosnia- Herzegovina, Bulgaria, Croatia, Cyprus, Egypt, France, Greece, Hungary, Iran, Iraq, Israel, Jordan, Lebanon, Libya,Macedonia, Malta,Morocco,Palestine, Romania, Saudi Arabia, Serbia and Montenegro, Slovakia,Slovenia,Spain, Switzerland, Syria,Tunisia, and Turkey. Each member country nominated a National Representative who served as a liai- son between his/her national geological community and the IGCOrganizing Commit- tee.Trade ReviewFrom the reviews: "It provides the current state-of-the-art on the geodynamic architecture and history of the Mediterranean region … . The TRANSMED Atlas is a very interesting work for those who are working in the Mediterranean and are in need of a concise overview of the current ideas on the geodynamic evolution of this particular region. … A great asset of this atlas is the extensive, up-to-date reference list. The atlas is very well illustrated. The CD-ROM is, moreover, very user friendly." (Manuel Sintubin, Geologica Belgica, Vol. 8 (3), 2005) Table of ContentsOne — Printed Volume.- 1 The Mediterranean Area and the Surrounding Regions: Active Processes, Remnants of Former Tethyan Oceans and Related Thrustbelts.- Abstract.- 1.1 Introduction.- 1.2 Mediterranean Fold-and-thrust Belts.- 1.3 Mediterranean Marine Basins.- 1.4 Geological-geophysical Baseline.- 1.4.1 Heat Flow.- 1.4.2 Crustal and Lithospheric Structure.- 1.4.3 Gravity.- 1.4.4 Magnetic Field.- 1.4.5 Seismicity.- 1.4.6 Geodetic Data.- 1.4.7 Stress Field.- 1.5 Global Dynamics and Active Processes Exemplified in the Mediterranean.- 1.5.1 Subduction of the Eastern Mediterranean Lithosphere beneath the Calabrian and Aegean.- 1.5.2 Rifting and Passive Margin Development in Back-arc Regions and Other MediterranRelated to Tectonic Wedges, Tilted Blocks and Sedimentary Loadingean Domains.- 1.5.3 Mud and Salt Diapirism (Eastern Mediterranean Ridge, Alboran Sea, Nile Delta).- 1.5.4 Sea-level Changes, Salinity Crisis, Flooding (Messinian Mediterranean versus Pleistocene Black Sea).- 1.6 Record of Ancient Dynamics of the Tethyan Oceans, Ophiolitic Sutures, Mantle Tomography versus Paleogeography of the Mediterranean Realm.- 1.6.1 Collisional vs. Intracontinental Thrust Belts and Oceanic Sutures.- 1.6.2 Plate Dynamics and Palinspastic Restorations: Demise of the Concept of a Single Tethys.- 1.6.3 Cenozoic Magmatism in the Mediterranean Region.- 1.7 Conclusions.- Acknowledgements.- 2 A Tomographic View on Western Mediterranean Geodynamics.- Abstract.- 2.1 Introduction.- 2.2 The Global Tomography Model BS2000.- 2.3 Interpretation of Model BS2000 for the Western Mediterranean Mantle.- 2.3.1 Alps, Apennines, and the Western Mediterranean.- 2.3.2 The Betic-Rif and Alboran Region.- 2.4 Analysis: the Geodynamic Evolution of the Western Mediterranean.- 2.4.1 Tomographic Evidence for Slab Roll-back.- 2.4.2 Northern Apennines and Alpine-Tethys Subduction.- 2.4.3 Slab Detachment beneath the Central-southern Apennines.- 2.4.4 Calabria Subduction.- 2.4.5 The North African Margin.- 2.4.6 Betic-Rif and Alboran Region: I. Subduction and Roll-back of Predominantly Oceanic Lithosphere.- 2.4.7 Betic-Rif and Alboran Region: II. Development of Arc Geometry and Subduction Roll-back.- 2.4.8 Synthesis of Tomographic Constraints on the Geodynamic Evolution of the Western Mediterranean Region.- 2.5 Summary.- Acknowledgements.- Appendix 1 (CD-ROM).- Appendix 2 (CD-ROM).- 3 The TRANSMED Transects in Space and Time: Constraints on the Paleotectonic Evolution of the Mediterranean Domain.- Abstract.- 3.1 Introduction.- 3.2 The Western Tethys Main Plate Tectonic Constraints.- 3.2.1 The East Mediterranean-Neotethys Connection.- 3.2.2 The Apulia-Adria Problem.- 3.3 The Geodynamic Evolution of Greater Apulia and Surrounding Regions.- 3.3.1 Paleotethys Evolution (Figs. 3.2–3.6).- 3.3.2 Cimmerian Events and Triassic Marginal Oceans (Figs. 3.6–3.9).- 3.3.3 The Jurassic Oceans: Alpine Tethys, Central Atlantic and Vardar (Figs. 3.8–3.11).- 3.3.4 The Cretaceous Oceans: North Atlantic and the Pyrenean Domain (Figs. 3.10–3.14).- 3.4 The TRANSMED Transects in Space and Time.- 3.4.1 Transects I-II-III West.- 3.4.2 Transects IV-V-VI.- 3.4.3 Transects III East, VII and VIII.- 3.5 Conclusions.- Acknowledgements.- Appendix 3 (CD-ROM).- References: Preface, Chapters 1, 2 and 3.- References: CD-ROM.- Transect I: Iberian Meseta — Guadalquivir Basin — Betic Cordillera — Alboran Sea — Rif — Moroccan Meseta — High Atlas — Sahara Domain.- Transect II: Aquitaine Basin — Pyrenees — Ebro Basin — Catalan Coastal Ranges — Valencia Trough — Balearic Promontory — Algerian Basin — Kabylies — Atlas — Saharan Domain.- Transect III: Massif Central — Provence — Gulf of Lion — Provençal Basin — Sardinia — Tyrrhenian Basin — Southern Apennines — Apulia — Adriatic Sea — Albanian Dinarides — Balkans — Moesian Platform.- Transects IV, V and VI: The Alps and Their Forelands.- Transect VII: East European Craton — Scythian Platform — Dobrogea — Balkanides — Rhodope Massif — Hellenides — East Mediterranean — Cyrenaica.- Transect VIII: Eastern European Craton — Crimea — Black Sea — Anatolia C2014; Cyprus — Levant Sea — Sinai — Red Sea.

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Book SynopsisIntroduction: Charting the Course for Energy Transformation.- Crafting Value in a Carbon-Conscious World.- Unveiling the Secrets of Seismic Waves.- Petro-Physical Marvels and Rock Physics Wonders.- Quantum Leap in Seismic Interpretation (QI) Technologies.- Seismic Alchemy for Reservoir Characterization.- Reservoir Revolution through 3D/4D Seismic.- Bridging the Gap: Seismic to Simulation (S2S) and Front End Loading (FEL).- Innovations Shaping Seismic to Reservoir Excellence.

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