Physics Books

Book SynopsisTable of Contents1 Introduction and Mathematical Concepts 1 2 Kinematics in One Dimension 33 3 Kinematics in Two Dimensions 65 4 Forces and Newton’s Laws of Motion 95 5 Dynamics of Uniform Circular Motion 141 6 Work and Energy 169 7 Impulse and Momentum 203 8 Rotational Kinematics 231 9 Rotational Dynamics 255 10 Simple Harmonic Motion and Elasticity 291 11 Fluids 329 12 Temperature and Heat 375 13 The Transfer of Heat 413 14 The Ideal Gas Law and Kinetic Theory 435 15 Thermodynamics 463 16 Waves and Sound 501 17 The Principle of Linear Superposition and Interference Phenomena 537 18 Electric Forces and Electric Fields 565 19 Electric Potential Energy and the Electric Potential 601 20 Electric Circuits 633 21 Magnetic Forces and Magnetic Fields 679 22 Electromagnetic Induction 721 23 Alternating Current Circuits 761 24 Electromagnetic Waves 787 25 The Reflection of Light: Mirrors 817 26 The Refraction of Light: Lenses and Optical Instruments 843 27 Interference and Diffraction 891 28 Special Relativity 925 29 Waves and Particles 953 30 The Nature of the Atom 979 31 Nuclear Physics and Radioactivity 1013 32 Ionizing Radiation, Nuclear Energy, and Elementary Particles 1043

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Book SynopsisThis collection of exercises, compiled for talented high school students, encourages creativity and a deeper understanding of ideas when solving physics problems. Described as ''far beyond high-school level'', this book grew out of the idea that teaching should not aim for the merely routine, but challenge pupils and stretch their ability through creativity and thorough comprehension of ideas.Table of ContentsTable of Contents; How to Use This Book; List of Physical Constants; Problems 1-294; Solutions 1-294

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Book SynopsisTrade Review"One of BBC Science Focus Magazine's Best Books of 2020""A nice little book for those who have some knowledge of the subject."---Laura Nuttall, BBC Sky at Night Magazine"This ranks alongside Steven Weinberg’s The First Three Minutes as the best book on cosmology I have read. A compact treasure-trove of cosmic insights to be read, mulled over, and read again."---Marcus Chown, BBC Science Focus Magazine"[An] enthusiastic and approachable survey of the state of cosmology today. . . . It’s got to be the best, most up-to-date, “little” introduction to cosmology."---David Appell, Physics World"Books like this one help to perform a valuable role in making these discoveries accessible and understandable to a wider audience."---Simon Cocking, Irish Tech News"It’s no small feat, trying to describe the Universe in 152 pages. But the very aptly named Little Book of Cosmology takes this task head-on, by stripping the narrative down to its bare essentials." * Nature Astronomy *"[The Little Book of Cosmology] provides a good high-level overview of our current knowledge of cosmology, without warping spacetime or a bookshelf."---Jeff Foust, The Space Review

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Book SynopsisExam Board: AQALevel & Subject: AS PhysicsFirst teaching: September 2015Next exams: June 2023 AQA approved

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Book SynopsisExam Board: SQALevel: HigherSubject: PhysicsTwo books in one! Combining a revision guide and a full set of practice test papers, this fantastic resource is all you need to revise for the exam.The revision guide Covers all of the topics in the CfE Higher Physics curriculum, broken down into manageable chunks for easy revision Clearly explains key concepts, research evidence and real-life applications Contains Quick Tests to let students check their knowledge and understanding as they go alongThe practice test papers Are in the format and the style of the SQA exam, giving students an opportunity to practice taking the Higher Physics examMarking instructions and sample answers are provided online, so students can check their progress.

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Book SynopsisTough Test Questions? Missed Lectures? Not Enough Time?Fortunately for you, there's Schaum's Outlines. More than 40 million students have trusted Schaum's to help them succeed in the classroom and on exams. Schaum's is the key to faster learning and higher grades in every subject. Each Outline presents all the essential course information in an easy-to-follow, topic-by-topic format. You also get hundreds of examples, solved problems, and practice exercises to test your skills. This Schaum's Outline gives you Practice problems with full explanations that reinforce knowledge Coverage of the most up-to-date developments in your course field In-depth review of practices and applications Fully compatible with your classroom text, Schaum's highlights all the important facts you need to know. Use Schaum's to shorten your study time-and get your best test scores!Schaum's Outlines-Problem Solved.Table of ContentsPart I:The Special Theory Of Relativity. The Gaililean Transformations. The Postulates of Einstien. The Lorentz Coordinates Transformations. Relativistic Length Contraction. Realistic Time Dilation. Relativistic Space-Time Measurements. Relativistic Velosity Transformations. Mass, Energy, and Momentum in Relativity. Part II: The Quantum Theory of Electromagnetic Radiation. Electromagnetic Radioation - Photons. Matter Waves. Part III: Hydrogenlike Atoms. The Bohr Atom. Electron Orbital Motion. Electron Spin. Part IV: Many-Electron Atoms. The Pauli Exclusion Principle. Many-Electron Atoms and the Periodic Table. X-Rays. Part V: Nuclear Physics. Properties of Nuclei. Nuclear Models. The Decay of Unstable Nuclei. Nuclear Reactions. Particle Physics. Part VI: Atomic Systems. Molecules. Kinetic Theory. Distribution Functions. Classical Statistics: The Macwell-Boltzmann Distribution. Quantum-Statistics: Fermi-Dirac and Bose-Einstein Distributions. Solids. Appendix. Index.

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Book SynopsisConfusing Textbooks? Missed Lectures? Not Enough Time?Fortunately for you, there's Schaum's Outlines. More than 40 million students have trusted Schaum's to help them succeed in the classroom and on exams. Schaum's is the key to faster learning and higher grades in every subject. Each Outline presents all the essential course information in an easy-to-follow, topic-by-topic format. You also get hundreds of examples, solved problems, and practice exercises to test your skills. This Schaum's Outline gives you Practice problems with full explanations that reinforce knowledge Coverage of the most up-to-date developments in your course field In-depth review of practices and applications Fully compatible with your classroom text, Schaum's highlights all the important facts you need to know. Use Schaum's to shorten your study time-and get your best test scores!Schaum's Outlines-Problem Solved.Table of ContentsIntroduction and Mathematical Background.Motion in a Straight Line.Motion in a Plane.Forces and Equilibrium.Newton's Second Law.Work and Mechanical Energy.Energy, Power and Simple Machines.Impulse and Momentum.Equilibrium for Rigid Bodies.Rotational Motion.Elasticity and Objects under Stress.Simple Harmonic Motion.Fluids at Rest.Fluids in Motion.Temperature and Heat.Thermal Energy Transfer.Gas Laws and Kinetic Theory.Thermodynamics: The First and Second Laws.

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Book SynopsisThe ideal review for your physics courseMore than 40 million students have trusted Schaumâs Outlines for their expert knowledge and helpful solved problems. Written by renowned experts in their respective fields, Schaumâs Outlines cover everything from math to science, nursing to language. The main feature for all these books is the solved problems. Step-by-step, authors walk readers through coming up with solutions to exercises in their topic of choice. A quick, easy-to-follow guide to mathematical topics required for important concept development in physics More than 1,500 fully-solved problems presented from both the physics and mathematics point-of-view Hundreds more practice problems Table of Contents1. Introduction to Algebra 2. Functions 3. Graphs of Functions 4. Linear Equations 5. Simultaneous Linear Equations 6. Quadratic Functions and Equations 7. Inequalities 8. The Locus of an Equation 9. The Straight Line 10. Families of Straight Lines 11. The Circle 12. Rational and Polynomial Functions 13. Trigonometric Functions 14. Exponential and Logarithmic Functions 15. Complex Numbers 16. The Calculus of Single-Variable Functions: A Mathematics Approach 17. The Calculus of Single-Variable Functions: A Physics Approach 18. Vectors 19. Polar, spherical, and Cylindrical Coordinate Systems 20. Multivariate Calculus 21. Elementary Linear Algebra 22. Vector Calculus: Grad, Div, and Curl 23. Vector Calculus: Flux and Gauss’ Law 24. Differential Equations 25. Elementary Probability 26. Infinite Series

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Book SynopsisSunday Times Science Book of the Year 2011.We are poised on the edge of discovery in particle physics (the study of the smallest objects we know of) and cosmology (the study of the largest), and when these breakthroughs come, they will revolutionise what we think we know about the universe, and the modern world.Lisa Randall guides us through the latest ideas, charting the thrilling progress we have made in understanding the universe from Galileo and Newton to Einstein and the Large Hadron Collider and the search for the Higgs boson. Yet it''s about more than just physics - Randall explains how we decide what questions to ask; how risk, beauty, creativity and truth play a role in scientific thinking; and how answering the big questions will ultimately tell us who we are and where we came from.Trade ReviewLisa Randall is hugely gifted... Full of passion and jaw-dropping facts... Fascinating -- Doug Johnstone * Independent on Sunday *An impressive study...essential reading for anyone interested in science -- Christopher Potter * Sunday Times *Dazzling ideas... Read this book today to understand the science of tomorrow -- Steven Pinker, Harvard College Professor and author of How the Mind WorksScience has a battle for hearts and minds on its hands... How good it feels to have Lisa Randall's unusual blend of top flight science, clarity, and charm on our side -- Richard Dawkins, author of The God DelusionIn this fascinating book, Lisa Randall, professor of theoretical physics at Harvard, explains the experimental research at the LHC and the theories that try to anticipate what they will find -- Manjit Kumar * Independent *

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Book SynopsisPlease note this title is suitable for any student studying:Exam Board: AQA Level: AS Level Subject: Physics First teaching: September 2015 First exams: June 2017Fully revised and updated for the linear qualification, written and checked by curriculum and specification experts, this Student Book supports and extends students through the course whilst delivering the maths, practical and synoptic skills needed to succeed at A Level and beyond. The book uses clear straightforward explanations to develop real subject knowledge and allow students to link ideas together while developing essential exam skills.Trade Review"Very helpful and just what I needed" * Amazon review, Dec 2015 *"A very well written book with an excellent, tangible format unlike some other similar products. Plenty of questions related to each topic immediately at the end of each subsection". * Amazon review, Dec 2015 *

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Book SynopsisPlease note this title is suitable for any student studying: Exam Board: AQA Level: A Level Subject: Physics First teaching: September 2015 First exams: June 2017 For students studying AQA A Level Physics, this AQA approved student book is an essential resource. With clear guidance, plenty of practice exam questions and targeted practical skills support, this book takes students through the full course and beyond. Written by specification experts, this book supports and extends and prepares all students for exams and further study. The clear and straightforward explanations help learners to develop real subject knowledge independently. This book also covers the optional AQA Physics topics with comprehensive introduction and summary sections.Table of ContentsSection 1 Particles and radiation 1: Matter and radiation 2: Quarks and leptons 3: Quantum phenomena Section 2 Waves and optics 4: Waves 5: Optics Section 3 Mechanics and materials 6: Forces in equilibrium 7: On the move 8: Newton's laws of motion 9: Force and momentum 10: Work, energy, and power 11: Materials Section 4 Electricity 12: Electric current 13: DC circuits Section 5 Skills in AS physics 14: Practical work in physics 15: About practical assessment 16: More on mathematical skills Section 6 Further mechanics and thermal physics 17: Motion in a circle 18: Simple harmonic motion 19: Thermal physics 20: Gases Section 7 Fields 21: Gravitational fields 22: Electric fields 23: Capacitors 24: Magnetic fields 25: Electromagnetic induction Section 8 Nuclear physics 26: Radioactivity 27: Nuclear energy Section 9 Option section summaries Section 10 Skills in A Level Year 2 Physics 28: Practical work in Year 2 Physics 29: Mathematical skills in Year 2 Physics

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Book SynopsisPlease note this title is suitable for any student studying:Exam Board: AQA Level: A Level Subject: PhysicsFirst teaching: September 2015 First exams: June 2017This AQA A Level Physics Revision Guide is exactly matched to the current specification, providing comprehensive, specification-linked content, so you can be sure you are covering everything you need to know for the exams. It''s packed with engaging revision and practice material to keep you focused and contains a wealth of exam-style questions to test your knowledge and skills to help you fully prepare for the exams.

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Book SynopsisPlease note this title is suitable for any student studying:Exam Board: OCR Level: A Level Year 1 and AS Subject: Physics First teaching: September 2015 First exams: June 2016Written by curriculum and specification experts, this Student Book supports and extends students throughout their course whilst delivering the breadth, depth, and skills needed to succeed at A Level and beyond.

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Book SynopsisPlease note this title is suitable for any student studying: Exam Board: AQA Level: A Level Subject: PhysicsFirst teaching: September 2015First exams: June 2017Written and checked by curriculum and specification experts, this Student Book supports and extends students through the course while delivering the breadth, depth, and skills needed to succeed at A Level and beyond.

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Book SynopsisThe only textbook that completely covers the OxfordAQA International AS & A Level Physics specification (9630), for first teaching in September 2016.Written by experienced authors, the engaging, international approach ensures a thorough understanding of complex concepts and provides exam-focused practice to build assessment confidence. Help students develop the scientific, mathematical and practical skills and knowledge needed for Oxford AQA assessment success and the step up to university. Ensure students understand the bigger picture, supporting their progression to further study, with synoptic links and a focus on how scientists and engineers apply their knowledge in real life.

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Book SynopsisThe atmosphere is the thin, diffuse fluid that envelops the Earth''s surface. Despite its apparent fragility, the existence of this fluid is vital for human and other life on Earth.In this Very Short Introduction Paul Palmer describes the physical and chemical characteristics of different layers in the atmosphere, and shows how the interactions where the atmosphere is in contact with land, ocean, and ice affect its observed physical and chemical properties. He also looks at how movement in the atmosphere, driven by heat from the sun, transports heat from lower latitudes to higher latitudes, and is a fundamental feature of the general circulation in the atmosphere. Finally, Palmer presents an overview of the types of measurements used to understand different parts of the atmosphere, and identifies the future challenges for atmospheric scientists.ABOUT THE SERIES: The Very Short Introductions series from Oxford University Press contains hundreds of titles in almost every subject area. These pocket-sized books are the perfect way to get ahead in a new subject quickly. Our expert authors combine facts, analysis, perspective, new ideas, and enthusiasm to make interesting and challenging topics highly readable.Trade ReviewPaul Palmer, a world-renowned atmospheric scientist, takes you through a tour of the origin and properties of the atmosphere, the processes controlling weather and climate, and the basic issues underlying air pollution and climate change. The easy conversational style, engaging pedagogical approach, and witty asides make this book a true pleasure to read and highly accessible. * Daniel Jacob, Harvard University *Table of Contents1: What is special about Earth's atmosphere? 2: Atmospheric physics 3: Atmospheric motion 4: Atmospheric composition 5: Atmospheric measurements 6: Our future atmosphere Further Reading Index

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Book SynopsisAn isotope is a variant form of a chemical element, containing a different number of neutrons in its nucleus. Most elements exist as several isotopes. Many are stable while others are radioactive, and some may only exist fleetingly before decaying into other elements.In this Very Short Introduction, Rob Ellam explains how isotopes have proved enormously important across all the sciences and in archaeology. Radioactive isotopes may be familiar from their use in nuclear weapons, nuclear power, and in medicine, as well as in carbon dating. They have been central to establishing the age of the Earth and the origins of the solar system. Combining previous and new research, Ellam provides an overview of the nature of stable and radioactive isotopes, and considers their wide range of modern applications. ABOUT THE SERIES: The Very Short Introductions series from Oxford University Press contains hundreds of titles in almost every subject area. These pocket-sized books are the perfect way to get ahead in a new subject quickly. Our expert authors combine facts, analysis, perspective, new ideas, and enthusiasm to make interesting and challenging topics highly readable.Table of ContentsPREFACE: AT HOME WITH THE BEILBYS; EPILOGUE; FURTHER READING; INDEX

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Book SynopsisWhat is Nanotechnology and how will it affect us? Nanobots, nanoprobes, nanoswarms, nanogenes the list goes on. Nanotechnology is a staple of science fiction and has a rather chequered history when it comes to public perception: will swarms of sentient nanomachines ultimately take over the world or will nanotech give us nothing more than improved sun creams? As this Very Short Introduction shows, the science underpinning nanotechnology is equally as fascinating as the best nano-inspired sci-fi.In this book, Philip Moriarty introduces the key scientific themes and concepts underpinning the field, including interatomic and intermolecular forces, single atom imaging, quantum confinement, self-assembly, molecular machinery, and nanomagnetism. Moriarty includes results from ground-breaking scientific studies, such as scanning probe microscope images of atomic and molecular landscapes, providing visceral and intuitive insights into the nanoscopic world.ABOUT THE SERIES: The Very Short Introductions series from Oxford University Press contains hundreds of titles in almost every subject area. These pocket-sized books are the perfect way to get ahead in a new subject quickly. Our expert authors combine facts, analysis, perspective, new ideas, and enthusiasm to make interesting and challenging topics highly readable.Table of Contents1: Welcome To NanoPut 2: The Quantum, Confined 3: Tearing It Down, Building It Up 4: It From Bit, Bit From It 5: Molecules in Motion: Nanomachinery 6: Are The Nanobots Nigh?

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Book SynopsisHow the monsters of nineteenth-century literature and science came to define us.“Was I then a monster, a blot upon the earth, from which all men fled and whom all men disowned?” In We Are All Monsters, Andrew Mangham offers a fresh interpretation of this question uttered by Frankenstein’s creature in Mary Shelley’s 1818 novel in an expansive exploration of how nineteenth-century literature and science recast the monster as vital to the workings of nature and key to unlocking the knowledge of all life-forms and processes. Even as gothic literature and freak shows exploited an abiding association between abnormal bodies and horror, amazement, or failure, the development of monsters in the ideas and writings of this period showed the world to be dynamic, varied, plentiful, transformative, and creative.In works ranging from Comte de Buffon’s interrogations of humanity within natural history to Hugo de Vries’s mutation theory

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Book SynopsisAn eminent engineer and historian tackles one of the most elemental aspects of life: how we experience and utilize physical forceTrade Review“[Petroski] reveals how integral the work of engineers is to our society. The stories assembled are entertaining and often illuminating.”—William Gurstelle, Wall Street Journal “Petroski is a vivid writer who enlivens potentially tedious descriptions of the forces at play in routine activities with sensory detail. . . . I admire Force for its attempt to immerse readers in the forces shaping our lives.”—Matthew Diasio, Science “[This] diverse and entertaining analysis of force since ancient times ranges from getting dressed, writing with a pencil and shopping to the design of face masks, buildings and spacecraft.”—Andrew Robinson, Nature “Henry Petroski’s poetic prose pairs psychology with physics, producing a joyful joining of fact, fun, and physics. His exploration of the many meanings of force informs while it delights.”—Don Norman, author of The Design of Everyday Things “Force! From John Keats to Isaac Newton, from pizza boxes to the Forth Bridge, this is a veritable cornucopia that will intrigue and inform the curious reader about a concept often taken for granted.”—Paul Jowitt, professor of civil engineering systems, Heriot–Watt University “Henry Petroski clearly and accessibly explains the most important idea in classical physics and engineering: the concept of force. His vivid prose illustrates the many ways in which forces enter and influence our everyday lives.”—Howard A. Stone, Princeton University “Henry Petroski is a true polymath with a superbly holistic perspective. Force is a unified field theory of almost everything, exploring the interdependencies among everyday forces and their effects. Albert Einstein would have loved it.”—Peter G. Neumann, chief scientist, SRI International Computer Science Laboratory “Force is yet another masterful and even more expansive demonstration of Henry Petroski’s uncommon capacity for demystifying science and engineering and engaging the public broadly. It is a tour de force!”—Ron Latanision, Shell Professor of Materials Science and Engineering (emeritus), Massachusetts Institute of Technology

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Book SynopsisThis book meant for those who seek to apply evolutionary algorithms to problems in engineering and science. To this end, it provides the theoretical background necessary to the understanding of the presented evolutionary algorithms and their shortcomings, while also discussing themes that are pivotal to the successful application of evolutionary algorithms to real-world problems. The theoretical descriptions are illustrated with didactical Python implementations of the algorithms, which not only allow readers to consolidate their understanding, but also provide a sound starting point for those intending to apply evolutionary algorithms to optimization problems in their working fields. Python has been chosen due to its widespread adoption in the Artificial Intelligence community. Those familiar with high level languages such as MATLABâ will not have any difficulty in reading the Python implementations of the evolutionary algorithms provided in the book.Instead of attempting to encompass most of the existing evolutionary algorithms, past and present, the book focuses on those algorithms that researchers have recently applied to difficult optimization problems, such as control problems with continuous action spaces and the training of high-dimensional convolutional neural-networks. The basic characteristics of real-world optimization problems are presented, together with recommendations on its proper application to evolutionary algorithms. The applied nature of the book is reinforced by the presentation of successful cases of the application of evolutionary algorithms to optimization problems. This is complemented by Python source codes, giving users an insight into the idiosyncrasies of the practical application of evolutionary algorithms.Table of ContentsPreface. SECTION I: INTRODUCTION. Evolutionary Algorithms and Difficult Optimization Problems. Introduction to Optimization. Introduction to Evolutionary Algorithms. SECTION II: SINGLE-OBJECTIVE EVOLUTIONARY ALGORITHMS. Swarm Optimization. Evolution Strategies. Genetic Algorithms. Differential Evolution. SECTION III: MULTI-OBJECTIVE EVOLUTIONARY ALGORITHMS. Non-Dominated Sorted Genetic Algorithm II. Multiobjective Evolutionary Algorithm Based on Decomposition. SECTION IV: APPLYING EVOLUTIONARY ALGORITHMS. Solving Optimization Problems with Evolutionary Algorithms. Assessing the Performance of Evolutionary Algorithms. Case Study - Optimal Design of a Gear Train System. Case Study - Teaching a Legged Robot How to Walk. References.

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Book SynopsisAlbert Einstein, one of the most prolific scientists of the twentieth century, developed the theory of relativity which was crucial for the advancement of modern physics. Young Einstein identified a paradox between Newtonian Mechanics and Maxwellâs equations which pointed to a flawed understanding of space and time by the scientists of the day. In Relativity, Einstein presents his findings using a minimal amount of mathematical language, but the text can still be challenging for readers who lack an extensive scientific background.The Routledge Guidebook to Einsteinâs Relativity expands on and supplements this seminal text, by exploring: the historical context of Einsteinâs work and the background to his breakthroughs details of experimental verification of special and general relativity the enduring legacy of Einsteinâs theories and their implications for future scientific breakthroughs. This is an essential introduction for students of physics, philosophy and history in understanding the key elements of the work and the importance of this classic text to society today.Trade ReviewThis Guidebook is written in a style that is both authoritative and approachable. The reader is clearly in the hands of an expert author who is determined to make a challenging subject comprehensible and enjoyable.Professor Robert Lambourne, The Open University.Table of Contents1. Einstein’s life 2. The state of physics the start of the twentieth century 3. Coordinate systems 4. Foundations of Special Relativity 5. Time 6. Special Relativity 7. More results from Special Relativity 8. Experimental proofs of Special Relativity 9. General Relativity and the Equivalence Principle 10. General Relativity and Gravity 11. The formulation of General Relativity 12. Experimental tests of General Relativity 13. Cosmology 14. The Future of Relativity. Index

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Book SynopsisThe main theme of this highly successful book is that the transmission of energy by wave propogation is fundamental to almost every branch of physics. Therefore, besides giving students a thorough grounding in the theory of waves and vibrations, the book also demonstrates the pattern and unity of a large part of physics.Trade Review"This is an excellent textbook, full of interesting material clearly explained, and fully worthy of being studied by future contributors ..." (Journal of Sound and Vibration: 293, July 2006)Table of ContentsIntroduction to First Edition. Introduction to Second Edition. Introduction to Third Edition. Introduction to Fourth Edition. Introduction to Fifth Edition. Introduction to Sixth Edition. 1 Simple Harmonic Motion. 2 Damped Simple Harmonic Motion. 3 The Forced Oscillator. 4 Coupled Oscillations. 5 Transverse Wave Motion. 6 Longitudinal Waves. 7 Waves on Transmission Lines. 8 Electromagnetic Waves. 9 Waves in More than One Dimension. 10 Fourier Methods. 11 Waves in Optical Systems. 12 Interference and Diffraction. 13 Wave Mechanics. 14 Non-linear Oscillations and Chaos. 15 Non-linear Waves, Shocks and Solitons. Appendix 1: Normal Modes, Phase Space and Statistical Physics. Appendix 2: Kirchhoff’s Integral Theorem. Appendix 3: Non-Linear Schro¨dinger Equation. Index.

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Book SynopsisA plain-English guide to advanced physics Does just thinking about the laws of motion make your head spin? Does studying electricity short your circuits? Physics II For Dummies walks you through the essentials and gives you easy-to-understand and digestible guidance on this often intimidating course.Trade Review"There is very little else to say - this book does exactly what it says on the cover. The text is well presented with informative illustrations, examples and guiding points for the reader. The information was informative and understandable for the reviewer who has not encountered these topics in this depth for several years." (Reviews, December 2010) Table of ContentsIntroduction. Part I: Understanding Physics Fundamentals. Chapter 1: Understanding Your World: Physics II, the Sequel. Chapter 2: Gearing Up for Physics II. Part II: Doing Some Field Work: Electricity and Magnetism. Chapter 3: Getting All Charged Up with Electricity. Chapter 4: The Attraction of Magnetism. Chapter 5: Alternating Current and Voltage. Part III: Catching On to Waves: The Sound and Light Kinds. Chapter 6: Exploring Waves. Chapter 7: Now Hear This: The Word on Sound. Chapter 8: Seeing the Light: When Electricity and Magnetism Combine. Chapter 9: Bending and Focusing Light: Refraction and Lenses. Chapter 10: Bouncing Light Waves: Refl ection and Mirrors. Chapter 11: Shedding Light on Light Wave Interference and Diffraction. Part IV: Modern Physics. Chapter 12: Heeding What Einstein Said: Special Relativity. Chapter 13: Understanding Energy and Matter as Both Particles and Waves. Chapter 14: Getting the Little Picture: The Structure of Atoms. Chapter 15: Nuclear Physics and Radioactivity. Part V: The Part of Tens. Chapter 16: Ten Physics Experiments That Changed the World. Chapter 17: Ten Online Problem-Solving Tools. Index.

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Book SynopsisNow in its third edition, Mathematical Concepts in the Physical Sciences provides a comprehensive introduction to the areas of mathematical physics. It combines all the essential math concepts into one compact, clearly written reference.Trade Review“Bottom line: a good choice for a first methods course for physics majors. Serious students will want to follow this with specialized math courses in some of these topics.” (MAA Reviews, 13 November 2015)Table of ContentsChapter 1 Infinite Series, Power Series Chapter 2 Complex Numbers Chapter 3 Linear Algebra Chapter 4 Partial Differentiation Chapter 5 Multiple Integrals Chapter 6 Vector Analysis Chapter 7 Fourier Series and Transforms Chapter 8 Ordinary Differential Equations Chapter 9 Calculus of Variations Chapter 10 Tensor Analysis Chapter 11 Special Functions Chapter 12 Legendre, Bessel, Hermite, and Laguerre functions Chapter 13 Partial Differential Equations Chapter 14 Functions of a Complex Variable Chapter 15 Probability and Statistics

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Book SynopsisWritten for the full year or three term Calculus-based University Physics course for science and engineering majors, the publication of the first edition of Physics in 1960 launched the modern era of Physics textbooks. It was a new paradigm at the time and continues to be the dominant model for all texts. Physics is the most realistic option for schools looking to teach a more demanding course. The entirety of Volume 2 of the 5th edition has been edited to clarify conceptual development in light of recent findings of physics education research. End-of-chapter problem sets are thoroughly over-hauled, new problems are added, outdated references are deleted, and new short-answer conceptual questions are added.Table of ContentsChapter 25 Electric Charge and Coulomb’s Law 567 25-1 Electromagnetism: A Preview 567 25-2 Electric Charge 568 25-3 Conductors and Insulators 571 25-4 Coulomb’s Law 573 25-5 Continuous Charge Distributions 576 25-6 Conservation of Charge 580 Questions and Problems 581 Chapter 26 The Electric Field 587 26-1 What is a Field? 587 26-2 The Electric Field 588 26-3 The Electric Field of Point Charges 590 26-4 Electric Field of Continuous Charge Distributions 592 26-5 Electric Field Lines 595 26-6 A Point Charge in an Electric Field 597 26-7 A Dipole in an Electric Field 600 26-8 The Nuclear Model of the Atom (Optional) 602 Questions and Problems 603 Chapter 27 Gauss’ Law 611 27-1 What is Gauss’ Law All About? 611 27-2 The Flux of a Vector Field 612 27-3 The Flux of the Electric Field 613 27-4 Gauss’ Law 616 27-5 Applications of Gauss’ Law 617 27-6 Gauss’ Law and Conductors 621 27-7 Experimental Tests of Gauss’ Law and Coulomb’s Law 624 Questions and Problems 626 Chapter 28 Electric Potential Energy and Potential 635 28-1 Potential Energy 635 28-2 Electric Potential Energy 636 28-3 Electric Potential 639 28-4 Calculating the Potential from the Field 640 28-5 Potential Due to Point Charges 641 28-6 Electric Potential of Continuous Charge Distributions 644 28-7 Calculating the Field from the Potential 646 28-8 Equipotential Surfaces 648 28-9 The Potential of a Charged Conductor 649 28-10 The Electrostatic Accelerator (Optional) 651 Questions and Problems 652 Chapter 29 The Electrical Properties of Materials 661 29-1 Types of Materials 661 29-2 A Conductor in an Electric Field: Static Conditions 662 29-3 A Conductor in an Electric Field: Dynamic Conditions 663 29-4 Ohmic Materials 666 29-5 Ohm’s Law: A Microscopic View 668 29-6 An Insulator in an Electric Field 670 Questions and Problems 672 Chapter 30 Capacitance 679 30-1 Capacitors 679 30-2 Capacitance 679 30-3 Calculating the Capacitance 681 30-4 Capacitors in Series and Parallel 683 30-5 Energy Storage in an Electric Field 685 30-6 Capacitor with Dielectric 687 Questions and Problems 690 Chapter 31 DC Circuits 701 31-1 Electric Current 701 31-2 Electromotive Force 703 31-3 Analysis of Circuits 704 31-4 Electric Fields in Circuits 709 31-5 Resistors in Series and Parallel 710 31-6 Energy Transfers in an Electric Circuit 713 31-7 RC Circuits 713 Questions and Problems 716 Chapter 32 The Magnetic Field 725 32-1 Magnetic Interactions and Magnetic Poles 725 32-2 The Magnetic Force on a Moving Charge 727 32-3 Circulating Charges 731 32-4 The Hall Effect 734 32-5 The Magnetic Force on a Current- Carrying Wire 736 32-6 The Torque on a Current Loop 738 Questions and Problems 740 Chapter 33 The Magnetic Field of a Current 749 33-1 The Magnetic Field due to a Moving Charge 749 33-2 The Magnetic Field of a Current 752 33-3 Two Parallel Currents 756 33-4 The Magnetic Field of a Solenoid 758 33-5 Ampère’s Law 760 33-6 Electromagnetism and Frames of Reference (Optional) 764 Questions and Problems 765 Chapter 34 Faraday’s Law of Induction 775 34-1 Faraday’s Experiments 775 34-2 Faraday’s Law of Induction 776 34-3 Lenz’ Law 777 34-4 Motional emf 780 34-5 Generators and Motors 782 34-6 Induced Electric Fields 783 34-7 Induction and Relative Motion (Optional) 786 Questions and Problems 789 Chapter 35 Magnetic Properties of Materials 801 35-1 The Magnetic Dipole 801 35-2 The Force on a Dipole in a Nonuniform Field 804 35-3 Atomic and Nuclear Magnetism 805 35-4 Magnetization 807 35-5 Magnetic Materials 808 35-6 The Magnetism of the Planets (Optional) 811 35-7 Gauss’ Law for Magnetism 814 Questions and Problems 816 Chapter 36 Inductance 823 36-1 Inductance 823 36-2 Calculating the Inductance 824 36-3 LR Circuits 826 36-4 Energy Storage in a Magnetic Field 827 36-5 Electromagnetic Oscillations: Qualitative 830 36-6 Electromagnetic Oscillations: Quantitative 832 36-7 Damped and Forced Oscillations 833 Questions and Problems 836 Chapter 37 Alternating Current Circuits 845 37-1 Alternating Currents 845 37-2 Three Separate Elements 846 37-3 The Single Loop RLC Circuit 848 37-4 Power in AC Circuits 851 37-5 The Transformer (Optional) 852 Questions and Problems 854 Chapter 38 Maxwell’s Equations and Electromagnetic Waves 861 38-1 The Basic Equations of Electromagnetism 861 38-2 Induced Magnetic Fields and the Displacement Current 862 38-3 Maxwell’s Equations 864 38-4 Generating an Electromagnetic Wave 866 38-5 Traveling Waves and Maxwell’s Equations 868 38-6 Energy Transport and the Poynting Vector 870 38-7 Radiation Pressure 872 Questions and Problems 874 Chapter 39 Light Waves 883 39-1 The Electromagnetic Spectrum 883 39-2 Visible Light 886 39-3 The Speed of Light 887 39-4 Reflection and Refraction of Light Waves 890 39-5 Total Internal Reflection 897 39-6 The Doppler Effect for Light 899 Questions and Problems 902 Chapter 40 Mirrors and Lenses 913 40-1 Image Formation by Mirrors and Lenses 913 40-2 Plane Mirrors 914 40-3 Spherical Mirrors 917 40-4 Spherical Refracting Surfaces 921 40-5 Thin Lenses 923 40-6 Optical Instruments 928 Questions and Problems 930 Chapter 41 Interference 941 41-1 Two-Source Interference 941 41-2 Double-Slit Interference 942 41-3 Coherence 944 41-4 Intensity in Double-Slit Interference 946 41-5 Interference from Thin FIlms 948 41-6 Michelson’s Interferometer 953 Questions and Problems 955 Chapter 42 Diffraction 963 42-1 Diffraction and the Wave Theory of Light 963 42-2 Single-Slit Diffraction 965 42-3 Intensity in Single-Slit Diffraction 967 42-4 Diffraction at a Circular Aperture 970 42-5 Double-Slit Interference and Diffraction Combined 971 Questions and Problems 975 Chapter 43 Gratings and Spectra 981 43-1 Multiple Slits 981 43-2 Diffraction Gratings 985 43-3 Dispersion and Resolving Power 986 43-4 X-ray Diffraction 988 43-5 Holography (Optional) 992 Questions and Problems 994 Chapter 44 Polarization 999 44-1 Polarization of Electromagnetic Waves 999 44-2 Polarizing Sheets 1001 44-3 Polarization by Reflection 1003 44-4 Double Refraction 1004 44-5 Circular Polarization 1006 44-6 Polarization by Scattering 1008 Questions and Problems 1010 Chapter 45 The Nature of Light 1015 45-1 Introducing the Photon 1015 45-2 Thermal Radiation 1016 45-3 The Photoelectric Effect 1019 45-4 The Compton Effect 1021 45-5 The Photon Revealed 1023 45-6 Photons and Waves 1024 45-7 Slowing Down Atoms by Photon Bombardment 1026 Questions and Problems 1028 Chapter 46 The Nature of Matter 1035 46-1 Matter Waves 1035 46-2 Testing DeBroglie’s Hypothesis 1036 46-3 Waves and Particles 1041 46-4 Heisenberg’s Uncertainty Principle 1042 46-5 The Wave Function 1044 46-6 Schrödinger’s Equation 1045 46-7 Barrier Tunneling 1046 Questions and Problems 1049 Chapter 47 Electrons in Potential Wells 1055 47-1 Electrons, Free and Bound 1055 47-2 An Electron Trapped in a Potential Well 1055 47-3 An Electron Trapped in a Finite Well 1060 47-4 An Electron Trapped in an Atom 1062 47-5 The Ground State of the Hydrogen Atom 1065 47-6 Angular Momentum of Electrons in Atoms 1066 47-7 An Excited State of the Hydrogen Atom 1069 47-8 Counting the States of Hydrogen 1070 Questions and Problems 1072 Chapter 48 Atomic Structure 1079 48-1 The X-ray Spectrum of Atoms 1079 48-2 X Rays and the Numbering of the Elements 1081 48-3 Building Atoms 1082 48-4 The Periodic Table 1083 48-5 Atomic Magnetism 1086 48-6 The Stern–Gerlach Experiment 1087 48-7 Nuclear Magnetic Resonance 1089 48-8 Magnetism and Atomic Radiations (Optional) 1090 48-9 Lasers and Laser Light 1092 Questions and Problems 1096 Chapter 49 Electrical Conduction in Solids 1103 49-1 Quantum Theory of Solids 1103 49-2 Conduction Electrons in a Metal 1104 49-3 Filling the Allowed States 1105 49-4 Electrical Conduction in Metals 1108 49-5 Bands and Gaps 1109 49-6 Conductors, Insulators, and Semiconductors 1111 49-7 Doped Semiconductors 1112 49-8 The pn Junction 1114 49-9 Optical Electronics 1117 49-10 The Transistor 1119 49-11 Superconductors 1120 Questions and Problems 1122 Chapter 50 Nuclear Physics 1129 50-1 Discovering the Nucleus 1129 50-2 Some Nuclear Properties 1131 50-3 Radioactive Decay 1135 50-4 Alpha Decay 1136 50-5 Beta Decay 1138 50-6 Measuring Ionizing Radiation 1139 50-7 Natural Radioactivity 1140 50-8 Nuclear Reactions 1141 50-9 Nuclear Models (Optional) 1143 Questions and Problems 1145 Chapter 51 Energy from the Nucleus 1153 51-1 The Atom and the Nucleus 1153 51-2 Nuclear Fission: The Basic Process 1154 51-3 Theory of Nuclear Fission 1155 51-4 Nuclear Reactors: The Basic Principles 1157 51-5 A Natural Reactor 1159 51-6 Thermonuclear Fusion: The Basic Process 1161 51-7 Thermonuclear Fusion in Stars 1162 51-8 Controlled Thermonuclear Fusion 1164 Questions and Problems 1167 Chapter 52 Particle Physics and Cosmology 1173 52-1 Particle Interactions 1173 52-2 Families of Particles 1176 52-3 Conservation Laws 1179 52-4 The Quark Model 1181 52-5 The Big Bang Cosmology 1186 52-6 Nucleosysthesis 1190 52-7 The Age of the Universe 1192 Questions and Problems 1194 Appendices A. The International System of Units (SI) A-1 B. Fundamental Physcial Constants A-3 C. Astronomical Data A-4 D. Properties of the Elements A-6 E. Periodic Table of the Elements A-9 F. Elementary Particles A-10 G. Conversion Factors A-12 H. Vectors A-17 I. Mathematical Formulas A-20 J. Nobel Prizes in Physics A-22 Answers to Odd-Numbered Problems A-26 Photo Credits P-1 Index I-1

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Book SynopsisA book which enables readers to proceed by the quickest route to a particular topic, and teachers to select courses differing in length, difficulty and choice of applications.Table of Contents1 The First Law of Thermodynamics 2 The Second Law of Thermodynamics I 3 Paramagnetism 4 The Second Law of Thermodynamics II 5 Simple Thermodynamic Systems 6 The Heat Capacity of Solids 7 The Perfect Classical Gas 8 Phase Equilibria 9 The Perfect Quantal Gas 10 Black Body Radiation 11 Systems With Variable Particle Numbers A Mathematical Results B The Density of States C Magnetic Systems 336 D Hints For Solving Problems 340 Bibliography 374 Index 379 Physical Constants and Conversion Factors inside back cover

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Book SynopsisTrade Review"Here, the draw is not so much the text of Bush’s report itself, but rather an excellent critical introduction by Rush Holt. . . . Holt’s introduction takes seriously the idea that the United States is a democracy, and that scientists have a specific role to play in that democracy, which is not the same thing as saying that scientists should control science policy."---Audra Wolfe, Never Just Science"I just read the new Princeton University Press edition of Vannevar Bush’s Science, The Endless Frontier, with an interesting introductory essay by Rush Holt. I don’t think I’d ever read the whole of the famous Bush document before, and it was interesting to see how he made the pitch . . . . Both the Bush and the Holt essays are well worth a read."---Diane Coyle, Enlightened Economist

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Book SynopsisThis work dealing with percolation theory clustering, criticallity, diffusion, fractals and phase transitions takes a broad approach to the subject, covering basic theory and also specialized fields like disordered systems and renormalization groups.Table of ContentsForest fires, fractal oil fields and diffusion; cluster numbers; cluster structure; finite size scaling and the renormalization group; conductivity and related properties; walks, dynamics and quantum effects; application to thermal phase transitions. Appendices: numerical techniques; dimension dependent approximations.

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Book SynopsisDifferential geometry and topology have become essential tools for many theoretical physicists. In particular, they are indispensable in theoretical studies of condensed matter physics, gravity, and particle physics. Geometry, Topology and Physics, Second Edition introduces the ideas and techniques of differential geometry and topology at a level suitable for postgraduate students and researchers in these fields.The second edition of this popular and established text incorporates a number of changes designed to meet the needs of the reader and reflect the development of the subject. The book features a considerably expanded first chapter, reviewing aspects of path integral quantization and gauge theories. Chapter 2 introduces the mathematical concepts of maps, vector spaces, and topology. The following chapters focus on more elaborate concepts in geometry and topology and discuss the application of these concepts to liquid crystals, superfluid helium, generaTrade Review"…a very impressive book." -Australian and New Zealand Physicists "The clarity of the presentation is enhanced by explicit calculations and diagrams; the proof of a theorem is given only when it is instructive and not very technical. There is also a large number of exercises and problems, and last but not least, an index … superb layout…" - Zentralblatt fur Mathematick un ihre Grenzgebiete "I believe that the book will not only boost modernization of the traditional courses of theoretical physics but will prompt the specialist in topology and differential geometry to have a closer look at the applications. So I welcome this second edition." -Christopher GilmourTable of ContentsQuantum Physics. Mathematical Preliminaries. Homology Groups. Homotopy Groups. Manifolds. DeRham Cohomology Groups. Riemannian Geometry. Complex Manifolds. Fibre Bundles. Connections on Fibre Bundles. Characteristic Classes. Index Theorems. Anomalies in Gauge Field Theories. Bosonic String Theory. References. Index.

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Book SynopsisThis book provides a coherent exposition of the renormalization techniques that underlie calculations of numerical predictions of experimental phenomena in particle physics. Originally published in 1977, this title has been reissued as an Open Access publication on Cambridge Core.Table of Contents1. Introduction; 2. Quantum field theory; 3. Basic examples; 4. Dimensional regularization; 5. Renormalization; 6. Composite operators; 7. Renormalization group; 8. Large-mass expansion; 9. Global symmetries; 10. Operator-product expansion; 11. Coordinate space; 12. Renormalization of gauge theories; 13. Anomalies; 14. Deep-inelastic scattering; References; Index.

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Book SynopsisThe book is suitable for graduate and advanced level undergraduate students. Besides standard materials for the course, it also includes modern topics like coherent states, propagators and Feynman''s path integral method, Landau levels, Aharonov Bohm Effect, parity operation, time reversal symmetry and Dirac relativisticequation.Please note: Taylor & Francis does not sell or distribute the Hardback in India, Pakistan, Nepal, Bhutan, Bangladesh and Sri Lanka

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Book SynopsisSince his first appearance over sixty years ago, Mr Tompkins has become known and loved by many readers as the bank clerk whose fantastic dreams lead him into a world inside the atom. This classic provides a delightful explanation of the central concepts in physics, from atomic structure to relativity.Trade Review'Enthusiastically recommended to both scientific and general readers.' The Guardian'Will vastly fascinate the whimsical, and is also entirely scientific.' Scientific AmericanTable of ContentsForeword Roger Penrose; 1. City speed limit; 2. The Professor's lecture on relativity which caused Mr Tompkins's dream; 3. Mr Tompkins takes a holiday; 4. The Professor's lecture on curved space, gravity and the universe; 5. The pulsating universe; 6. Cosmic opera; 7. Quantum billiards; 8. Quantum jungles; 9. Maxwell's demon; 10. The gay tribe of electrons; 10 1/2. A part of the previous lecture which Mr Tompkins slept through; 12. Inside the nucleus; 13. The wood carver; 14. Holes in nothing; 15. Mr Tompkins tastes a Japanese meal.

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Book SynopsisLeading graphene research theorist Mikhail I. Katsnelson systematically presents the basic concepts of graphene physics in this fully revised second edition. The author illustrates and explains basic concepts such as Berry phase, scaling, Zitterbewegung, Kubo, Landauer and Mori formalisms in quantum kinetics, chirality, plasmons, commensurate-incommensurate transitions and many others. Open issues and unsolved problems introduce the reader to the latest developments in the field. New achievements and topics presented include the basic concepts of Van der Waals heterostructures, many-body physics of graphene, electronic optics of Dirac electrons, hydrodynamics of electron liquid and the mechanical properties of one atom-thick membranes. Building on an undergraduate-level knowledge of quantum and statistical physics and solid-state theory, this is an important graduate textbook for students in nanoscience, nanotechnology and condensed matter. For physicists and material scientists workinTrade Review'This is an excellent text on the theory of graphene. The book deserves a place on the shelf of any researcher into the theory of graphene.' A. H. Harker, Contemporary PhysicsTable of ContentsPreface to the second edition; Preface to the first edition; 1. The electronic structure of ideal graphene; 2. Electron states in a magnetic field; 3. Quantum transport via evanescent waves; 4. The Klein paradox and chiral tunnelling; 5. Edges, nanoribbons and quantum dots; 6. Point defects; 7. Optics and response functions; 8. The Coulomb problem; 9. Crystal lattice dynamics, structure and thermodynamics; 10. Gauge fields and strain engineering; 11. Scattering mechanisms and transport properties; 12. Spin effects and magnetism; 13. Graphene on hexagonal boron nitride; 14. Twisted bilayer graphene; 15. Many-body effects in graphene; References; Index.

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Book SynopsisThis book is a collection of papers from The American Ceramic Society''s 35th International Conference on Advanced Ceramics and Composites, held in Daytona Beach, Florida, January 23-28, 2011. This issue includes papers presented in the Advanced Ceramic Coatings for Structural, Environmental, and Functional Applications and Materials for Extreme Environments symposia on topics such as Coatings to Resist Wear, Erosion and Tribological Loadings; Environmental Barrier Coatings; Functionally Graded Coatings and Interfaces; Thermal Barrier Coatings; and Ultrahigh Temperature Ceramics and Nanolaminated Ternary Carbides and Nitrides (MAX Phases).Table of ContentsPreface ix Introduction xi ADVANCED COATING CHARCTERIZATION METHODSAND NON-DESTRUCTIVE EVALUATION Monitoring Delamination of Thermal Barrier Coatings during Interrupted High-Heat-Flux Laser Testing using Upconversion Luminescence Imaging 3 Jeffrey I. Eldridge and Dongming Zhu, and Douglas E. Wolfe Thermal Imaging Measurement Accuracy for Thermal Properties of Thermal Barrier Coatings 15 J. G. Sun ADVANCED COATING PROCESSING AND NANOSTRUCTURED COATING SYSTEMS High Velocity Suspension Flame Sprayed (HVSFS) Hydroxyapatite Coatings for Biomedical Applications 25 N. Stiegler, R. Gadow, and A. Killinger COATINGS TO RESIST WEAR, EROSION, AND TRIBOLOGICAL LOADINGS Ceramic/Metal-Polymer Multilayered Coatings for Tribological Applications Under Dry Sliding Conditions 39 A. Rempp, M. Widmann, P. Guth, A. Killinger, and R. Gadow Application of HVOF for High Performance Cylinder Liner Coatings 51 A. Manzat, A. Killinger, and R. Gadow Multilayer Coatings for Anti-Corrosion Applications 59 L. Lin, C. Qu, R. Kasica, Q. Fang, R. E. Miller, E. Pierce, E. Mccarty, J. H. Fan, D. D. Edwards, G. Wynick, and X. W. Wang ENVIRONMENTAL BARRIER COATINGS FOR TURBINE ENGINES AND EXTREME ENVIRONMENTS Plasma Spray-Physical Vapor Deposition (PS-PVD) of Ceramics for Protective Coatings 73 B. J. Harder and D. Zhu An Yb2Si2O7 Oxidation Resistance Coating for C/C Composites by Supersonic Plasma Spray 85 Lingjun Guo, Minna Han, Hejun Li, Kezhi Li, and Qiangang Fu FUNCTIONALLY GRADED COATINGS AND INTERFACES Development of Oxide Ceramic APS Coatings for Microwave Absorption 93 M. Floristän, P. Müller, A. Gebhardt, A. Killinger, R. Gadow, A. Cardella, and C. Li THERMAL BARRIER COATINGS Hot Corrosion of Potential Thermal Barrier Coating Material (Sm1-xYbx)2Zr2O7 by V205 and Na2SO4 109 Jia-Hu Ouyang, Sa Li, Zhan-Guo Liu, and Yu Zhou Variation of Creep Properties and Interfacial Roughness in Thermal Barrier Coating Systems 129 P. Seiler, M. Baker, and J. Rosier MATERIALS FOR EXTREME ENVIRONMENTS: ULTRA HIGH TEMPERATURE CERAMICS (UHTCS) AND NANOLAMINATED TERNARY CARBIDES AND NITRIDES (MAX PHASES) Temperature and Strain-Rate Dependent Plasticity of ZrB2 Composites from Hardness Measurements 139 J. Wang, F. Giuliani, and L.J. Vandeperre Nano-Crystalline Ultra High Temperature HfB2 and HfC Powders and Coatings Using a Sol-Gel Approach 151 S. Venugopal, A. Paul, B. Vaidhyanathan, J. Binner, A. Heaton, and P. Brown Pressureless Sintering and Hot-Pressing of Ti2AIN Powders Obtained by SHS Process 161 L. Chlubny, J. Lis, M. M. Bucko, and D. Kata Diffraction Study of Self-Recovery in Decomposed AI2Ti05 during Vacuum Annealing 169 I. M. Low and W. K. Pang Kinetics of Phase Decomposition in Ti4AIN3 and Ti2AIN--A Comparative Diffraction Study 177 W. K. Pang, R. I. Smith, V. K. Peterson, and I. M. Low Author Index 187

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Book SynopsisThis book is a collection of papers from The American Ceramic Society's 35th International Conference on Advanced Ceramics and Composites, held in Daytona Beach, Florida, January 23-28, 2011.Table of ContentsPreface ix Introduction xi CARBON MATERIALS AND FUEL CERAMICS Irradiation-Induced Dimensional Change and Fracture Behavior of C/C Composites for VHTR Application 3 Junya Sumita, Taiju Shibata, Kazuhiro Sawa, Ichiro Fujita, Jun Ohashi, Kentaro Takizawa, W. Kim, and J. Park R&D and Irradiation Plans for New Nuclear Grade Graphites for Application to VHTR 13 Kentaro Takizawa, Kazuyuki Kakehashi, Toshiaki Fukuda, Tohru Kida, Kazuhiro Sawa, Junya Sumita, Yutai Katoh, and Lance L. Snead CRYSTALLINE, AMORPHOUS, AND COMPOSITE MATERIALS FOR WASTE IMMOBILIZATION Functionalized Silica Aerogels: Advanced Materials to Capture and Immobilize Radioactive Iodine 23 J. Matyas, G. E. Fryxell, B. J. Busche, K. Wallace, and L. S. Fifield Layered Double Hydroxides for Anion Capture and Storage 33 J. Phillips and L. J. Vandeperre Bottom-Up Design of a Cement for Nuclear Waste Encapsulation 41 T. Zhang, L. J. Vandeperre, and C. Cheeseman FUEL CERAMICS AND IRRADIATION EFFECTS Microstructural Analysis of Secondary Phases in Silicon Carbide Fabricated with SiC Nano-Powder and Sintering Additives 53 Takaaki Koyanagi, Sosuke Kondo, and Tatsuya Hinoki Measurements of Irradiation Creep Strain in Silicon Carbide Irradiated with Silicon Ions 63 S. Kondo, T. Koyanagi, T. Hinoki, and O. Hashitomi JOINING AND INTEGRATION OF CERAMIC STRUCTURES Preliminar Results on Joining of Thin SiC/SiC Composites by Silicides Compounds and Local Heating 73 Elodie Jacques, Laurence Maille, Yann Lepetitcorps, Christophe Lorrette, and Cedric Sauder Joining of NITE SiC/SiC Composite and Tungsten for Nuclear Applications 85 H. Kishimoto, T. Abe, T. Shibayama, J. S. Park, H. C. Jung, Y. Kohno, and A. Kohyama PROCESSING Integrated R & D of SiC Matrix Ceramic Composites for Energy/Environmental Application 95 Akira Kohyama, Y. Kohno, H. Kishimoto, J. S. Park, H. C. Jung, and K. Shimoda Effects of Two-Step Sintering on Densification and Performance of Near-Net Shaped NITE-SiC/SiC Composites 103 N. Nakazato, H. Kishimoto, K. Shimoda, Y. Kohno, and A. Kohyama CERAMICS FOR ELECTRIC ENERGY GENERATION, STORAGE, AND DISTRIBUTION Ceramic Processing for Dense Magnesium Diboride 111 C. E. J. Dancer, R. I. Todd, and C. R. M. Grovenor Investigation on Phase Transformation of YBCO-ln2O3 Composite Superconductor Cooled Down via Different Routes 121 Y. M. Z. Ahmed., M. S. Hassan, and H. Abd-Elatif Morphologies and Electrochemical Capacitor Behaviors of Co(OH)2/Polyaniline Composite Films 141 Hiroshi Itahara and Tetsuro Kobayashi Optimization of Spark-Plasma-Sintering Conditions for Maximizing Figure of Merit of La-Doped SrTiO3 151 Asami Kikuchi, Sidney Lin, Noriyuki Okinaka, and Tomohiro Akiyama ADVANCED MATERIALS AND TECHNOLOGIES FOR RECHARGEABLE BATTERIES Design of (Thio) Phosphates for High Performance Lithium Ion Batteries 161 Stefan Adams, Rayavarapu Prasada Rao Lithium Ion Conductive Solid Electrolyte with Porous/Dense Bi-Layer Structure for All Solid State Battery 177 Kiyoshi Kanamura, Ryo Oosone, Hirokazu Munakata, and Masashi Kotobuki Autogenic Reactions for Fabricating Lithium Battery Electrode Materials 185 Vilas G. Pol and M. M. Thackeray Author Index 195

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Book SynopsisThis book is a collection of papers from The American Ceramic Society''s 35th International Conference on Advanced Ceramics and Composites, held in Daytona Beach, Florida, January 23-28, 2011. This issue includes papers presented in the Thermal Management Materials and Technologies; Advanced Sensor Technology; Geopolymers; and Computational Design, Modeling, and Simulation of Ceramics and Composites symposia.Table of ContentsPreface ix Introduction xi GEOPOLYMERS AND OTHER INORGANIC POLYMERS Effect of External and Internal Calcium in Fly Ash on Geopolymer Formation 3 Kiatsuda Somna and Walairat Bumrongjaroen Synthesis and Thermal Properties of Fly-Ash Based Geopolymer Pastes and Mortars 17 Ch. Panagiotopoulou, A. Asprogerakas, G. Kakali, and S. Tsivilis Mechanical Response of Discontinuous Filament PVA Fiber Reinforced Geopolymers 29 Benjamin Varela and Jeffrey W. Rogers Microwave Enhanced Drying and Firing of Geopolymers 35 Tyler A Gubb, Inessa Baranova, Shawn M. Allan, Morgana L. Fall, Holly S. Shulman, and Waltraud M. Kriven Geopolymerization of Red Mud and Rice Husk Ash and Potentials of the Resulting Geopolymeric Products for Civil Infrastructure Applications 45 Jian He and Guoping Zhang The Effect of Addition of Pozzolanic Tuff on Geopolymers 53 Hani Khoury, Islam Al Dabsheh, Faten Slaty, Yousef Abu Salha, Hubert Rahier, Muayad Esaifan, and Jan Wastiels Bottom Ash-Based Geopolymer Materials: Mechanical and Environmental Properties 71 R. Onori, J. Will, A. Hoppe, A. Polettini, R. Pomi, and A. R. Boccaccini Production of Geopolymers from Untreated Kaolinite 83 H. Rahier, M. Esaifan, I. Aldabsheh, F. Slatyi, H. Khoury, and J. Wastiels Phosphate Geopolymers 91 Arun S. Wagh THERMAL MANAGEMENT MATERIALS AND TECHNOLOGIES 3-Dimensional Modeling of Graphitic Foam Heat Sink 107 Adrian Bradu and Khairul Alam Enhancement of Heat Capacity of Molten Salt Eutectics using Inorganic Nanoparticles for Solar Thermal Energy Applications 119 Donghyun Shin and Debjyoti Banerjee Enhancement of Heat Capacity of Nitrate Salts using Mica Nanoparticles 127 Seunghwan Jung and Debjyoti Banerjee Enhanced Viscosity of Aqueous Silica Nanofluids 139 Byeongnam Jo and Debjyoti Banerjee Pumping Power of 50/50 Mixtures of Ethylene Glycol/Water Containing SiC Nanoparticles 147 Jules L. Routbort, Dileep Singh, Elena V. Timofeeva, Wenhua Yu, David M. France, and Roger K. Smith COMPUTATIONAL DESIGN Characterization of Non Uniform Veneer Layer Thickness Distribution on Curved Substrate Zirconia Ceramics using X-Ray Micro-Tomography 155 M. Allahkarami, H. A. Bale, and J. C. Hanan Computational Study of Wave Propagation in Second-Order Nonlinear Piezoelectric Media 165 David A. Hopkins and George A. Gazonas Impact of Material and Architecture Model Parameters on the Failure of Woven CMCS via the Multiscale Generalized Method of Cells 175 Kuang Liu, Aditi Chattopadhyay, and Steven M. Arnold Kinetic Monte Carlo Simulation of Oxygen and Cation Diffusion in Yttria-Stabilized Zirconia 193 Brian Good ADVANCED SENSOR TECHNOLOGY Nano-Calorimeter Platform for Explosive Sensing 209 Seok-Won Kang, Nicholas Niedbalski, Mathew R Lane, and Debjyoti Banerjee Polyaniline-Silica Nanocomposite: Application in Electrocatalysis of Acetylthiocholine 221 Prem C. Pandey, Vandana Singh, and S. Kumari Electrochemical Sensing of Dopamine over Polyindole-Composite Electrode 235 Prem C. Pandey, Dheeraj S. Chauhan, and S. Kumari Author Index 245

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Book SynopsisThis issue contains a collection of papers presented at the 71st Conference on Glass Problems, October 19-20, 2010 at The Ohio State University, Columbus, Ohio. Topics include glass melting, glass science - defects, safety, refractories, recycling, controls, and raw materials.Table of ContentsForeword ix Preface xi Acknowledgments xiii GLASS MELTING. Recent Developments of Batch and Cullet Preheating in Europe—Practical Experiences and Implications 3 Philipp Zippe Oxy-Fuel Conversion Reduces Fuel Consumption in Fiberglass Melting 19 John Rossi, Michael Habel, Kevin Lièvre, Xiaoyi He, and Matthew Watson Solar Glass Melting 33 Matthias Lindig Integrated Air Quality Control System for Float Glass Furnace 39 Michael Cheng and Nathan Blanton GLASS SCIENCE, DEFECTS, AND SAFETY. Heavy Metal Issues—In and Out of Glass 53 C. Philip Ross A Look at the Chemical Strengthening Process: Alkali Aluminosilicate Glasses vs. Soda-Lime Glass 61 Sinue Gomez, Matthew J. Dejneka, Adam J. Ellison, and Katherine R. Rossington Studying Bubble Glass Defects That are Caused by Refractory Materials 67 Jiri Ullrich and Erik Muijsenberg Analysis of Cord and Stones in Glass 81 Henry Dimmick, Neal Nichols, and Gary Smay "Cat Scratch" Cord Dispersal 87 Les Gaskell Tools Used to Improve Operational Safety in Johns Manville Glass Plants 95 Noel Camp REFRACTORIES AND RECYCLING. Extra Clear Glass Refractory Selection: A Follow Up 107 L. Massard, M. Gaubil, and J. Poiret Refractory Issues and Glass Processing and Preventative Solutions 115 Paul Myers Fuel Savings with High Emissivity Coatings 125 Tom Kleeb and Bill Fausey Regenerator Temperature Modeling for Proper Refractory Selection 137 Elias Carrillo and Mathew Wheeler Thinking Green: Recycling in the Refractory Industry 157 Werner Odreitz and Matt Wheeler Recycling of Post-Consumer Glass: Energy Savings, CO2 Emission Reduction, Effects on Glass Quality and Glass Melting 167 Ruud Beerkens, Goos Kers, and Engelbert van Santen Characterization and Improvement of Gob Delivery Systems Braden McDermott, Xu Ding, and Jonathan Simon CONTROLS AND RAW MATERIALS. Model Based Process Control for Glass Furnace Operation 205 Piet van Santen, Leo Huisman and Sander van Deelen Taking Full Benefit of Oxygen Sensors and Automatic Control 215 Peter Hemmann Flue Gas Treatment in the Glass Industry: Dry Process and Calcium-based Sorbents 225 Amandine Gambin and Xavier Pettiau To Wet or Not to Wet—That is the Question—Part A 235 Douglas H. Davis and Christopher J. Hoyle A Historical Perspective on Silica and the Glass Industry in the USA 249 Paul F. Guttmann Author Index 261

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Book SynopsisIntroduction to Computational Chemistry 3rd Edition provides a comprehensive account of the fundamental principles underlying different computational methods.Table of ContentsPreface to the First Edition xv Preface to the Second Edition xix Preface to the Third Edition xxi 1 Introduction 1 1.1 Fundamental Issues 2 1.2 Describing the System 3 1.3 Fundamental Forces 3 1.4 The Dynamical Equation 5 1.5 Solving the Dynamical Equation 7 1.6 Separation of Variables 8 1.6.1 Separating Space and Time Variables 9 1.6.2 Separating Nuclear and Electronic Variables 9 1.6.3 Separating Variables in General 10 1.7 Classical Mechanics 11 1.7.1 The Sun–Earth System 11 1.7.2 The Solar System 12 1.8 Quantum Mechanics 13 1.8.1 A Hydrogen-Like Atom 13 1.8.2 The Helium Atom 16 1.9 Chemistry 18 References 19 2 Force Field Methods 20 2.1 Introduction 20 2.2 The Force Field Energy 21 2.2.1 The Stretch Energy 23 2.2.2 The Bending Energy 25 2.2.3 The Out-of-Plane Bending Energy 28 2.2.4 The Torsional Energy 28 2.2.5 The van der Waals energy 32 2.2.6 The Electrostatic Energy: Atomic Charges 37 2.2.7 The Electrostatic Energy: Atomic Multipoles 41 2.2.8 The Electrostatic Energy: Polarizability and Charge Penetration Effects 42 2.2.9 Cross Terms 48 2.2.10 Small Rings and Conjugated Systems 49 2.2.11 Comparing Energies of Structurally Different Molecules 51 2.3 Force Field Parameterization 53 2.3.1 Parameter Reductions in Force Fields 58 2.3.2 Force Fields for Metal Coordination Compounds 59 2.3.3 Universal Force Fields 62 2.4 Differences in Atomistic Force Fields 62 2.5 Water Models 66 2.6 Coarse Grained Force Fields 67 2.7 Computational Considerations 69 2.8 Validation of Force Fields 71 2.9 Practical Considerations 73 2.10 Advantages and Limitations of Force Field Methods 73 2.11 Transition Structure Modeling 74 2.11.1 Modeling the TS as a Minimum Energy Structure 74 2.11.2 Modeling the TS as a Minimum Energy Structure on the Reactant/Product Energy Seam 75 2.11.3 Modeling the Reactive Energy Surface by Interacting Force Field Functions 76 2.11.4 Reactive Force Fields 77 2.12 Hybrid Force Field Electronic Structure Methods 78 References 82 3 Hartree–Fock Theory 88 3.1 The Adiabatic and Born–Oppenheimer Approximations 90 3.2 Hartree–Fock Theory 94 3.3 The Energy of a Slater Determinant 95 3.4 Koopmans’ Theorem 100 3.5 The Basis Set Approximation 101 3.6 An Alternative Formulation of the Variational Problem 105 3.7 Restricted and Unrestricted Hartree–Fock 106 3.8 SCF Techniques 108 3.8.1 SCF Convergence 108 3.8.2 Use of Symmetry 110 3.8.3 Ensuring that the HF Energy Is a Minimum, and the Correct Minimum 111 3.8.4 Initial Guess Orbitals 113 3.8.5 Direct SCF 113 3.8.6 Reduced Scaling Techniques 116 3.8.7 Reduced Prefactor Methods 117 3.9 Periodic Systems 119 References 121 4 Electron Correlation Methods 124 4.1 Excited Slater Determinants 125 4.2 Configuration Interaction 128 4.2.1 ci Matrix Elements 129 4.2.2 Size of the CI Matrix 131 4.2.3 Truncated CI Methods 133 4.2.4 Direct CI Methods 134 4.3 Illustrating how CI Accounts for Electron Correlation, and the RHF Dissociation Problem 135 4.4 The UHF Dissociation and the Spin Contamination Problem 138 4.5 Size Consistency and Size Extensivity 142 4.6 Multiconfiguration Self-Consistent Field 143 4.7 Multireference Configuration Interaction 148 4.8 Many-Body Perturbation Theory 148 4.8.1 Møller–Plesset Perturbation Theory 151 4.8.2 Unrestricted and Projected Møller–Plesset Methods 156 4.9 Coupled Cluster 157 4.9.1 Truncated coupled cluster methods 160 4.10 Connections between Coupled Cluster, Configuration Interaction and Perturbation Theory 162 4.10.1 Illustrating Correlation Methods for the Beryllium Atom 165 4.11 Methods Involving the Interelectronic Distance 166 4.12 Techniques for Improving the Computational Efficiency 169 4.12.1 Direct Methods 170 4.12.2 Localized Orbital Methods 172 4.12.3 Fragment-Based Methods 173 4.12.4 Tensor Decomposition Methods 173 4.13 Summary of Electron Correlation Methods 174 4.14 Excited States 176 4.14.1 Excited State Analysis 181 4.15 Quantum Monte Carlo Methods 183 References 185 5 Basis Sets 188 5.1 Slater- and Gaussian-Type Orbitals 189 5.2 Classification of Basis Sets 190 5.3 Construction of Basis Sets 194 5.3.1 Exponents of Primitive Functions 194 5.3.2 Parameterized Exponent Basis Sets 195 5.3.3 Basis Set Contraction 196 5.3.4 Basis Set Augmentation 199 5.4 Examples of Standard Basis Sets 200 5.4.1 Pople Style Basis Sets 200 5.4.2 Dunning–Huzinaga Basis Sets 202 5.4.3 Karlsruhe-Type Basis Sets 203 5.4.4 Atomic Natural Orbital Basis Sets 203 5.4.5 Correlation Consistent Basis Sets 204 5.4.6 Polarization Consistent Basis Sets 205 5.4.7 Correlation Consistent F12 Basis Sets 206 5.4.8 Relativistic Basis Sets 207 5.4.9 Property Optimized Basis Sets 207 5.5 Plane Wave Basis Functions 208 5.6 Grid and Wavelet Basis Sets 210 5.7 Fitting Basis Sets 211 5.8 Computational Issues 211 5.9 Basis Set Extrapolation 212 5.10 Composite Extrapolation Procedures 215 5.10.1 Gaussian-n Models 216 5.10.2 Complete Basis Set Models 217 5.10.3 Weizmann-n Models 219 5.10.4 Other Composite Models 221 5.11 Isogyric and Isodesmic Reactions 222 5.12 Effective Core Potentials 223 5.13 Basis Set Superposition and Incompleteness Errors 226 References 228 6 Density Functional Methods 233 6.1 Orbital-Free Density Functional Theory 234 6.2 Kohn–Sham Theory 235 6.3 Reduced Density Matrix and Density Cumulant Methods 237 6.4 Exchange and Correlation Holes 241 6.5 Exchange–Correlation Functionals 244 6.5.1 Local Density Approximation 247 6.5.2 Generalized Gradient Approximation 248 6.5.3 Meta-GGA Methods 251 6.5.4 Hybrid or Hyper-GGA Methods 252 6.5.5 Double Hybrid Methods 253 6.5.6 Range-Separated Methods 254 6.5.7 Dispersion-Corrected Methods 255 6.5.8 Functional Overview 257 6.6 Performance of Density Functional Methods 258 6.7 Computational Considerations 260 6.8 Differences between Density Functional Theory and Hartree-Fock 262 6.9 Time-Dependent Density Functional Theory (TDDFT) 263 6.9.1 Weak Perturbation – Linear Response 266 6.10 Ensemble Density Functional Theory 268 6.11 Density Functional Theory Problems 269 6.12 Final Considerations 269 References 270 7 Semi-empirical Methods 275 7.1 Neglect of Diatomic Differential Overlap (NDDO) Approximation 276 7.2 Intermediate Neglect of Differential Overlap (INDO) Approximation 277 7.3 Complete Neglect of Differential Overlap (CNDO) Approximation 277 7.4 Parameterization 278 7.4.1 Modified Intermediate Neglect of Differential Overlap (MINDO) 278 7.4.2 Modified NDDO Models 279 7.4.3 Modified Neglect of Diatomic Overlap (MNDO) 280 7.4.4 Austin Model 1 (AM1) 281 7.4.5 Modified Neglect of Diatomic Overlap, Parametric Method Number 3 (PM3) 281 7.4.6 The MNDO/d and AM1/d Methods 282 7.4.7 Parametric Method Numbers 6 and 7 (PM6 and PM7) 282 7.4.8 Orthogonalization Models 283 7.5 Hückel Theory 283 7.5.1 Extended Hückel theory 283 7.5.2 Simple Hückel Theory 284 7.6 Tight-Binding Density Functional Theory 285 7.7 Performance of Semi-empirical Methods 287 7.8 Advantages and Limitations of Semi-empirical Methods 289 References 290 8 Valence Bond Methods 291 8.1 Classical Valence Bond Theory 292 8.2 Spin-Coupled Valence Bond Theory 293 8.3 Generalized Valence Bond Theory 297 References 298 9 Relativistic Methods 299 9.1 The Dirac Equation 300 9.2 Connections between the Dirac and Schrödinger Equations 302 9.2.1 Including Electric Potentials 302 9.2.2 Including Both Electric and Magnetic Potentials 304 9.3 Many-Particle Systems 306 9.4 Four-Component Calculations 309 9.5 Two-Component Calculations 310 9.6 Relativistic Effects 313 References 315 10 Wave Function Analysis 317 10.1 Population Analysis Based on Basis Functions 317 10.2 Population Analysis Based on the Electrostatic Potential 320 10.3 Population Analysis Based on the Electron Density 323 10.3.1 Quantum Theory of Atoms in Molecules 324 10.3.2 Voronoi, Hirshfeld, Stockholder and Stewart Atomic Charges 327 10.3.3 Generalized Atomic Polar Tensor Charges 329 10.4 Localized Orbitals 329 10.4.1 Computational considerations 332 10.5 Natural Orbitals 333 10.5.1 Natural Atomic Orbital and Natural Bond Orbital Analyses 334 10.6 Computational Considerations 337 10.7 Examples 338 References 339 11 Molecular Properties 341 11.1 Examples of Molecular Properties 343 11.1.1 External Electric Field 343 11.1.2 External Magnetic Field 344 11.1.3 Nuclear Magnetic Moments 345 11.1.4 Electron Magnetic Moments 345 11.1.5 Geometry Change 346 11.1.6 Mixed Derivatives 346 11.2 Perturbation Methods 347 11.3 Derivative Techniques 349 11.4 Response and Propagator Methods 351 11.5 Lagrangian Techniques 351 11.6 Wave Function Response 353 11.6.1 Coupled Perturbed Hartree–Fock 354 11.7 Electric Field Perturbation 357 11.7.1 External Electric Field 357 11.7.2 Internal Electric Field 358 11.8 Magnetic Field Perturbation 358 11.8.1 External Magnetic Field 360 11.8.2 Nuclear Spin 361 11.8.3 Electron Spin 361 11.8.4 Electron Angular Momentum 362 11.8.5 Classical Terms 362 11.8.6 Relativistic Terms 363 11.8.7 Magnetic Properties 363 11.8.8 Gauge Dependence of Magnetic Properties 366 11.9 Geometry Perturbations 367 11.10 Time-Dependent Perturbations 372 11.11 Rotational and Vibrational Corrections 377 11.12 Environmental Effects 378 11.13 Relativistic Corrections 378 References 378 12 Illustrating the Concepts 380 12.1 Geometry Convergence 380 12.1.1 Wave Function Methods 380 12.1.2 Density Functional Methods 382 12.2 Total Energy Convergence 383 12.3 Dipole Moment Convergence 385 12.3.1 Wave Function Methods 385 12.3.2 Density Functional Methods 385 12.4 Vibrational Frequency Convergence 386 12.4.1 Wave Function Methods 386 12.5 Bond Dissociation Curves 389 12.5.1 Wave Function Methods 389 12.5.2 Density Functional Methods 394 12.6 Angle Bending Curves 394 12.7 Problematic Systems 396 12.7.1 The Geometry of FOOF 396 12.7.2 The Dipole Moment of CO 397 12.7.3 The Vibrational Frequencies of O3 398 12.8 Relative Energies of C4H6 Isomers 399 References 402 13 Optimization Techniques 404 13.1 Optimizing Quadratic Functions 405 13.2 Optimizing General Functions: Finding Minima 407 13.2.1 Steepest Descent 407 13.2.2 Conjugate Gradient Methods 408 13.2.3 Newton–Raphson Methods 409 13.2.4 Augmented Hessian Methods 410 13.2.5 Hessian Update Methods 411 13.2.6 Truncated Hessian Methods 413 13.2.7 Extrapolation: The DIIS Method 413 13.3 Choice of Coordinates 415 13.4 Optimizing General Functions: Finding Saddle Points (Transition Structures) 418 13.4.1 One-Structure Interpolation Methods 419 13.4.2 Two-Structure Interpolation Methods 421 13.4.3 Multistructure Interpolation Methods 422 13.4.4 Characteristics of Interpolation Methods 426 13.4.5 Local Methods: Gradient Norm Minimization 427 13.4.6 Local Methods: Newton–Raphson 427 13.4.7 Local Methods: The Dimer Method 429 13.4.8 Coordinates for TS Searches 429 13.4.9 Characteristics of Local Methods 430 13.4.10 Dynamic Methods 431 13.5 Constrained Optimizations 431 13.6 Global Minimizations and Sampling 433 13.6.1 Stochastic and Monte Carlo Methods 434 13.6.2 Molecular Dynamics Methods 436 13.6.3 Simulated Annealing 436 13.6.4 Genetic Algorithms 437 13.6.5 Particle Swarm and Gravitational Search Methods 437 13.6.6 Diffusion Methods 438 13.6.7 Distance Geometry Methods 439 13.6.8 Characteristics of Global Optimization Methods 439 13.7 Molecular Docking 440 13.8 Intrinsic Reaction Coordinate Methods 441 References 444 14 Statistical Mechanics and Transition State Theory 447 14.1 Transition State Theory 447 14.2 Rice–Ramsperger–Kassel–Marcus Theory 450 14.3 Dynamical Effects 451 14.4 Statistical Mechanics 452 14.5 The Ideal Gas, Rigid-Rotor Harmonic-Oscillator Approximation 454 14.5.1 Translational Degrees of Freedom 455 14.5.2 Rotational Degrees of Freedom 455 14.5.3 Vibrational Degrees of Freedom 457 14.5.4 Electronic Degrees of Freedom 458 14.5.5 Enthalpy and Entropy Contributions 459 14.6 Condensed Phases 464 References 468 15 Simulation Techniques 469 15.1 Monte Carlo Methods 472 15.1.1 Generating Non-natural Ensembles 474 15.2 Time-Dependent Methods 474 15.2.1 Molecular Dynamics Methods 474 15.2.2 Generating Non-natural Ensembles 478 15.2.3 Langevin Methods 479 15.2.4 Direct Methods 479 15.2.5 Ab Initio Molecular Dynamics 480 15.2.6 Quantum Dynamical Methods Using Potential Energy Surfaces 483 15.2.7 Reaction Path Methods 484 15.2.8 Non-Born–Oppenheimer Methods 487 15.2.9 Constrained and Biased Sampling Methods 488 15.3 Periodic Boundary Conditions 491 15.4 Extracting Information from Simulations 494 15.5 Free Energy Methods 499 15.5.1 Thermodynamic Perturbation Methods 499 15.5.2 Thermodynamic Integration Methods 500 15.6 Solvation Models 502 15.6.1 Continuum Solvation Models 503 15.6.2 Poisson–Boltzmann Methods 505 15.6.3 Born/Onsager/Kirkwood Models 506 15.6.4 Self-Consistent Reaction Field Models 508 References 511 16 Qualitative Theories 515 16.1 Frontier Molecular Orbital Theory 515 16.2 Concepts from Density Functional Theory 519 16.3 Qualitative Molecular Orbital Theory 522 16.4 Energy Decomposition Analyses 524 16.5 Orbital Correlation Diagrams: The Woodward–Hoffmann Rules 526 16.6 The Bell–Evans–Polanyi Principle/Hammond Postulate/Marcus Theory 534 16.7 More O’Ferrall–Jencks Diagrams 538 References 541 17 Mathematical Methods 543 17.1 Numbers, Vectors, Matrices and Tensors 543 17.2 Change of Coordinate System 549 17.2.1 Examples of Changing the Coordinate System 554 17.2.2 Vibrational Normal Coordinates 555 17.2.3 Energy of a Slater Determinant 557 17.2.4 Energy of a CI Wave Function 558 17.2.5 Computational Considerations 558 17.3 Coordinates, Functions, Functionals, Operators and Superoperators 560 17.3.1 Differential Operators 562 17.4 Normalization, Orthogonalization and Projection 563 17.5 Differential Equations 565 17.5.1 Simple First-Order Differential Equations 565 17.5.2 Less Simple First-Order Differential Equations 566 17.5.3 Simple Second-Order Differential Equations 566 17.5.4 Less Simple Second-Order Differential Equations 567 17.5.5 Second-Order Differential Equations Depending on the Function Itself 568 17.6 Approximating Functions 568 17.6.1 Taylor Expansion 569 17.6.2 Basis Set Expansion 570 17.6.3 Tensor Decomposition Methods 572 17.6.4 Examples of Tensor Decompositions 574 17.7 Fourier and Laplace Transformations 577 17.8 Surfaces 577 References 580 18 Statistics and QSAR 581 18.1 Introduction 581 18.2 Elementary Statistical Measures 583 18.3 Correlation between Two Sets of Data 585 18.4 Correlation between Many Sets of Data 588 18.4.1 Quality Measures 589 18.4.2 Multiple Linear Regression 590 18.4.3 Principal Component Analysis 591 18.4.4 Partial Least Squares 593 18.4.5 Illustrative Example 594 18.5 Quantitative Structure–Activity Relationships (QSAR) 595 18.6 Non-linear Correlation Methods 597 18.7 Clustering Methods 598 References 604 19 Concluding Remarks 605 Appendix A 608 Notation 608 Appendix B 614 The Variational Principle 614 The Hohenberg–Kohn Theorems 615 The Adiabatic Connection Formula 616 Reference 617 Appendix C 618 Atomic Units 618 Appendix D 619 Z Matrix Construction 619 Appendix E 627 First and Second Quantization 627 References 628 Index 629

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Book SynopsisTable of ContentsEditors’ preface to the Manchester Physics Series xv Author’s preface xvii 1 Atoms, the constituents of matter 1 1.1 The mass of an atom 1 1.1.1 Atomic masses 4 1.2 The size of an atom 6 1.2.1 Scanning probe microscopy 7 1.3 Atomic structure 11 1.3.1 The Bohr model of the hydrogen atom 12 1.3.2 The Schrodinger equation 17 1.3.3 The Schrodinger equation and the hydrogen atom 25 1.3.4 Multi-electron atoms 36 Problems 1 41 2 The forces that bind atoms together 43 2.1 General characteristics of interatomic forces 43 2.1.1 The range of a force 44 2.1.2 Repulsive and attractive forces 44 2.1.3 Oscillations about the equilibrium separation 46 2.2 Interatomic potential energy 47 2.2.1 The Lennard-Jones 6–12 potential 48 2.3 Types of interatomic bonding 51 2.3.1 van der Waals bonding 51 2.3.2 Repulsive forces between atoms 54 2.3.3 Binding energy and latent heat 54 2.3.4 Ionic bonding 55 2.3.5 The Madelung constant and the Lattice energy 56 2.3.6 Covalent bonding 59 2.3.7 Vibrational motion of a diatomic molecule 61 2.3.8 Metallic bonding 64 2.4 Why gases, liquids, and solids 65 Problems 2 67 3 Thermal energy of atoms and molecules 69 3.1 Temperature and the translational kinetic energy of a molecule 69 3.1.1 The ideal gas equation 71 3.2 Probability distributions and mean values 72 3.2.1 The normal or Gaussian distribution 78 3.3 The Maxwell–Boltzmann speed distribution 80 3.3.1 The kinetic energy distribution 84 3.4 Boltzmann’s law 86 3.4.1 General form of Boltzmann’s law 86 3.4.2 The probability distribution for a single component of molecular velocity 87 3.4.3 Doppler broadening of spectral lines 89 3.5 The isothermal atmosphere 91 3.5.1 Potential energy distribution of the molecules 92 3.5.2 Velocity distribution of the molecules 94 3.6 Derivation of the Maxwell–Boltzmann speed distribution 96 3.6.1 Two-dimensional gas 96 3.6.2 Three-dimensional gas 99 3.7 Equipartition of energy 100 3.7.1 Rotational motion of a diatomic molecule 100 3.7.2 Vibrational motion of a diatomic molecule 102 3.7.3 The equipartition theorem applied to macroscopic bodies 104 3.8 Specific heats of gases 106 3.8.1 C V , Specific Heat of One Mole of An Ideal Gas at Constant Volume 107 3.8.2 c P , specific heat of one mole of an ideal gas at constant pressure 108 3.8.3 Ratio of specific heats γ 108 3.8.4 The breakdown of the classical theory 108 3.8.5 Boltzmann’s law and discrete energy levels 110 Problems 3 112 4 Kinetic theory of gases: transport processes 117 4.1 Kinetic theory of gases 117 4.2 Molecular collisions and the mean free path 118 4.3 The distribution of free paths 122 4.4 Diffusion 125 4.4.1 Fink’s law of diffusion 125 4.4.2 Taylor’s theorem 128 4.4.3 The diffusion equation 128 4.4.4 The kinetic theory of diffusion 132 4.5 Thermal conduction 134 4.5.1 Predictions for the thermal conductivity 136 4.5.2 The heat equation 137 4.6 Viscosity 140 4.6.1 Predictions for the coefficient of viscosity 142 4.7 Comparison of transport properties 142 4.7.1 Estimation of Avogadro’s number 143 4.8 Effusion 144 4.8.1 Isotope separation 146 4.9 The random walk 149 4.9.1 Probability distribution P[x]dx for displacement of the particle 152 4.9.2 The random walk and molecular diffusion 153 Problems 4 155 5 Real gases 157 5.1 The van der Waals equation 158 5.1.1 The finite size of molecules 160 5.1.2 The intermolecular force of attraction 161 5.2 P–V isotherms for a real gas 163 5.2.1 the Critical Points, T C , P C , and V C 165 5.3 The virial equation 166 5.3.1 Relationship between the van der Waals constants a and b and the virial coefficients B and c 168 5.4 Internal energy and specific heats of a van der Waals gas 169 5.4.1 The molar specific heats at constant volume and constant pressure 170 5.5 Phase diagrams 171 Problems 5 175 6 The First Law of Thermodynamics 177 6.1 Thermodynamic equilibrium 178 6.1.1 The equation of state 179 6.2 Temperature 180 6.2.1 The zeroth law of thermodynamics 181 6.2.2 The measurement of temperature 181 6.2.3 Definition of the kelvin 184 6.3 Heat 185 6.3.1 The measurement of heat 185 6.4 Internal energy 186 6.4.1 Internal energy; a function of state 187 6.4.2 Internal energy of an ideal gas 187 6.5 Work and Joule’s paddle wheel experiment 188 6.6 First law of thermodynamics 191 6.6.1 Paths between thermodynamic states 191 6.6.2 Thermodynamic definitions of internal energy and heat 193 6.7 Work done during volume changes 194 6.8 Reversible processes 196 6.8.1 Quasistatic processes 197 6.8.2 Idealised reversible process 197 6.8.3 The effect of frictional forces 199 6.8.4 Practical realization of a reversible process 200 6.9 Expansion of gases and the first law of thermodynamics 202 6.10 The Joule effect; the free expansion of an ideal gas 203 6.11 Molar specific heats of an ideal gas 205 6.11.1 Molar Specific Heat at Constant Volume, C V 205 6.11.2 the Difference in Molar Specific Heats, C P C V 206 6.11.3 Reversible adiabatic expansion of an ideal gas 207 6.12 Enthalpy 210 6.12.1 Specific heat at constant pressure, C P 211 6.13 The Joule–Kelvin effect 212 6.13.1 Joule–Kelvin effect and intermolecular forces 216 6.14 Thermochemistry 217 6.14.1 The enthalpy of vaporization 218 6.14.2 Heats of reaction 218 Problems 6 219 7 The second law of thermodynamics 223 7.1 Introduction 223 7.2 Heat engines 224 7.2.1 The steam turbine 225 7.2.2 Refrigerators and heat pumps 227 7.3 The Carnot cycle 229 7.3.1 Stages of the Carnot cycle 230 7.3.2 Thermal efficiency of a Carnot engine 232 7.3.3 The Kelvin or absolute temperature scale 234 7.4 Entropy 235 7.4.1 The measurement of changes in entropy 236 7.4.2 Entropy as a state function 237 7.5 Entropy changes in reversible processes 238 7.5.1 Reversible processes in an ideal gas 238 7.5.2 Water and ice mixture 238 7.5.3 The Carnot cycle 239 7.6 Entropy changes in irreversible processes 241 7.6.1 Free expansion of an ideal gas 242 7.6.2 Temperature equalisation 242 7.6.3 Heating water 243 7.7 Entropy and the second law 245 7.8 The fundamental thermodynamic relationship 246 7.9 Phase changes and the Clausius–Clapeyron equation 247 7.10 Gibbs free energy 252 7.10.1 Physical interpretation of Gibbs free energy 252 7.10.2 The example of a lead acid battery 253 7.10.3 Gibbs free energy and spontaneous processes 254 7.11 Thermodynamic identities 255 7.11.1 Maxwell’s relations 257 7.12 A statistical approach to the second law of thermodynamics 259 7.12.1 Permutations and combinations 260 7.12.2 Probability and entropy; Boltzmann’s equation 265 Problems 7 268 8 Solids 271 8.1 Types of solids 271 8.2 Crystal structure 273 8.2.1 Close packing of atoms in a crystal 273 8.2.2 Some common crystal structures 275 8.2.3 Ionic crystals 278 8.3 The crystal lattice, unit cell, and basis 282 8.3.1 Types of crystal lattice and the unit cell 283 8.3.2 The basis 286 8.3.3 Graphene 287 8.3.4 The three-dimensional lattice 288 8.4 X-ray crystallography 290 8.4.1 The Bragg law 291 8.4.2 Crystal planes 292 8.5 Experimental techniques of X-ray crystallography 294 8.5.1 X-ray sources 295 8.5.2 Collection and analysis of diffraction patterns 298 8.6 Neutron scattering 298 8.7 Interatomic forces in solids 299 8.7.1 Heat of sublimation 299 8.7.2 Surface energy of a crystal 300 8.8 Vibrations in crystals 301 8.8.1 Thermal expansion 305 Problems 8 306 9 The elastic properties of solids 309 9.1 Stress, strain, and elastic moduli 309 9.1.1 Tensile and compressional stress and strain 310 9.1.2 Strength of solid materials 312 9.1.3 Shear stress and strain 313 9.1.4 Bulk stress and strain 314 9.2 Poisson’s ratio 315 9.3 The velocity of sound in a thin wire 320 9.4 Torsional stress and strain 322 9.5 Elastic moduli and interatomic forces and potential energies 325 9.5.1 Young’s modulus 327 9.5.2 Bulk modulus 330 9.6 The inelastic behaviour of solids 332 9.6.1 Slip 334 Problems 9 336 10 Thermal and transport properties of solids 339 10.1 Molar specific heats of solids 339 10.1.1 The Einstein model 341 10.1.2 The Debye model 346 10.2 Thermal conductivity of solids 350 10.3 Diffusion in solids 353 10.3.1 The diffusion coefficient 354 10.4 Electrical and thermal conductivities of metals 356 10.4.1 Thermal conductivity of metals 359 10.4.2 Successes and failures of the classical free electron model 360 Problems 10 360 11 Liquids 363 11.1 The structure of liquids 363 11.1.1 The radial distribution function 364 11.2 Physical properties of liquids 366 11.2.1 Latent heats of vapourisation and fusion 366 11.2.2 Vapour pressure 366 11.2.3 Surface energy and surface tension 369 11.2.4 Capillarity 370 11.2.5 Diffusion 373 11.3 The flow of liquids 374 11.3.1 The continuity equation 375 11.3.2 Bernoulli’s equation 376 11.4 The flow of real liquids 380 11.4.1 Viscosity of liquids 380 11.4.2 Viscous flow through a pipe 381 Problems 11 383 12 Liquid crystals 387 12.1 Liquid crystal phases 388 12.2 Thermotropic liquid crystal phases 389 12.2.1 Nematic phase 390 12.2.2 Smectic phase 391 12.2.3 Chiral liquid crystal phases 392 12.2.4 Molecular order and temperature 394 12.2.5 Molecular structure of liquid crystals 395 12.3 Polarised light 396 12.4 Optical properties of liquid crystals 402 12.4.1 Birefringence 402 12.4.2 Selective reflection 405 12.4.3 Waveguide regime 407 12.4.4 Optical polarising microscopy 409 12.5 Liquid crystal displays 410 12.5.1 Reorientation of liquid crystals in an electric field 410 12.5.2 The twisted nematic liquid crystal display 411 12.6 Liquid crystals in nature 415 Problems 12 415 Solutions to problems 417 Index 437

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Book SynopsisAn in-depth view of the panspermia hypothesis examined against the latest knowledge of planetary formation and related processes. Panspermia is the concept that life can be passively transported through space on various bodies and seed, habitable planets and moons, which we are beginning to learn may exist in large numbers. It is an old idea, but not popular with those who prefer that life on Earth started on Earth, an alternative, also unproven hypothesis. This book updates the concept of panspermia in the light of new evidence on planet formation, molecular clouds, solar system motions, supernovae ejection mechanisms, etc. Thus, it is to be a book about newly understood prospects for the movement of life through space. The novel approach presented in this book gives new insights into the panspermia theory and its connection with planetary formation and the evolution of galaxies. This offers a good starting point for future research proposals about exolife and a betteTable of ContentsPreface xi Part I: Philosophical Aspects of Panspermia 1 1 “On the Origin of Life” 3By Lord Kelvin (William Thomson) 2 Why We Should Take Interstellar Panspermia Seriously 7Amedeo Balbi 2.1 Introduction 7 2.2 The Case for Interstellar Panspermia 8 2.3 Theoretical Consequences of Interstellar Panspermia 11 2.4 Conclusions 14 References 15 3 The Extended Continuity Thesis, Chronocentrism, and Directed Panspermia 19Milan M. Ćirković 3.1 Introduction: The Continuity as a Pre-Requisite for Scientific Grounding of Astrobiology 20 3.2 Versions and Resistance 22 3.3 Cultural Evolution and Directed Panspermia 26 3.4 Conclusion and Prospects 34 Acknowledgements 36 References 37 4 Life in the Milky Way: The Panspermia Prospects 41Branislav Vukotić and Richard Gordon 4.1 Introduction 41 4.2 Three Levels of Habitability and Panspermia 43 4.2.1 Stellar System Level 43 4.2.2 Galaxies: Cosmic Cradles of Life 45 4.2.3 Cosmological Level: Interactions of Galaxies 47 4.3 Conclusions 48 Acknowledgements 49 References 49 Part II: Microorganisms and Panspermia 535 Planetary Protection: Too Late 55Margarita Safonova and C. Sivaram 5.1 Introduction 56 5.2 What is Planetary Protection 56 5.3 Extent of Earth Biosphere 60 5.4 Extension to Other Planetary Bodies 62 5.4.1 Moon 62 5.4.2 Mars 64 5.4.3 Icy Moons 66 5.5 Backward Contamination 66 5.6 Interplanetary Exchange 68 5.7 Habitable Conditions for Interplanetary Micronauts 71 5.8 Conclusion 74 Appendix A 77 Appendix B 78 Appendix C 78 Acknowledgments 81 References 82 6 Microbial Survival and Adaptation in Extreme Terrestrial Environments—The Case of the Dallol Geothermal Area in Ethiopia 93Cavalazzi Barbara and Filippidou Sevasti 6.1 Introduction 94 6.2 Planetary Field Analog: The Case of the Dallol Geothermal Area 95 6.2.1 The Dallol Hot Springs 99 6.2.2 Dallol Geothermal Area Planetary Field Analogs 104 6.3 Life in Extreme Environments 105 6.4 Conclusion and Remarks on Panspermia 110 Acknowledgment 111 References 111 7 Escape From Planet Earth: From Directed Panspermia to Terraformation 119Roy D. Sleator and Niall Smith Acknowledgements 123 References 123 Part III: Formation and Evolution of Planets: Material Exchange Prospects 125 8 Catalyzed Lithopanspermia Through Disk Capture of Biologically Active Interstellar Material 127Evgeni Grishin and Hagai B. Perets 8.1 Introduction 128 8.2 Capture of Interstellar Planetesimals 129 8.2.1 Planetesimal Size Distribution 129 8.2.2 Encounter Rates 130 8.2.3 Capture Condition 131 8.2.4 Capture Probability 133 8.2.5 Total Number of Captured Planetesimals 135 8.3 Catalyzed Lithopanspermia 137 8.3.1 Types of Panspermia 138 8.3.2 Fraction of Life-Bearing Rocks 139 8.3.3 Delivery Rates 140 8.4 Conclusion and Discussion 142 Acknowledgements 143 References 144 9 Lithopanspermia at the Center of Spiral Galaxies 149Howard Chen 9.1 Introduction 150 9.2 The Kepler Transit Survey and the Distribution of Living Worlds 152 9.3 XUV Hydrodynamic Escape and the Formation of Habitable Evaporated Cores 153 9.3.1 Activity of Supermassive Black Holes 154 9.3.2 Overabundance of HECs Driven by Quasar Illumination 155 9.4 Frequency of Exchange in High Stellar Densities 157 9.4.1 Ejection of Planetary Bodies on Intragalactic Scales 158 9.4.2 Implications for Other Stellar Populations 160 9.5 Detecting Panspermia 162 9.6 Concluding Remarks 163 References 164 10 Wet Panspermia 171Jaroslav Jiřik and Richard Gordon 10.1 Introduction 172 10.2 Earth and Its Isotopic World: Geological and Environmental Implications 172 10.3 Quest for the Primordial Water Worlds 173 10.4 Looking for the Biotic Traces in Extraterrestrial Material 176 10.5 Ices of the Moon and Proposal of Earth-Induced Wet Panspermia in the Solar System 178 10.6 Implications for Other Planets of the Inner Solar System? 182 10.7 Conclusions 185 References 186 11 There Were Plenty of Day/Night Cycles That Could Have Accelerated an Origin of Life on Earth, Without Requiring Panspermia 195Richard Gordon and George Mikhailovsky Acknowledgement 202 References 202 12 Micrometeoroids as Carriers of Organics: Modeling of the Atmospheric Entry and Chemical Decomposition of Sub-Millimeter Grains 207G. Micca Longo and S. Longo 12.1 Micrometeorites and the Search for Life 208 12.2 White Soft Minerals 210 12.2.1 Carbonates in Space 211 12.2.2 Sulfates in Space 213 12.3 Atmospheric Entry Model 214 12.4 Results 219 12.4.1 Atmospheric Entry of MgCO3 Micrometeoroids 220 12.4.2 Atmospheric Entry of CaCO3 Micrometeoroids 223 12.4.3 Atmospheric Entry of FeCO3 Micrometeoroids 226 12.4.4 Atmospheric Entry of CaSO4 Micrometeoroids 229 12.5 The Role of Primordial Atmospheres 230 12.5.1 Isothermal Atmosphere Model 233 12.5.2 Hydrogen Atmosphere 237 12.5.3 Carbon Dioxide Atmosphere 239 12.5.4 Methane Atmosphere 239 12.6 Conclusions 241 References 243 13 Dynamical Evolution of Planetary Systems: Role of Planetesimals 251Vladimir Došović 13.1 Introduction 251 13.2 Planetesimal Formation and Evolution 253 13.3 Transporting Mechanism in Later Stages of Planetary System Evolution 255 13.4 Conclusion 261 Acknowledgements 262 References 262 Part IV: Further Prospects 26714 A Survey of Solar System and Galactic Objects With Pristine Surfaces That Record History and Perhaps Panspermia, With a Plan for Exploration 269Branislav Vukotić and Richard Gordon 14.1 Introduction 269 14.1.1 Radiative Events 270 14.1.2 Solar Flares 271 14.1.2.1 Supernovae and Gamma-Ray Bursts 272 14.1.2.2 Galactic Shocks 272 14.1.2.3 Background Radiation From Galactic Sources 273 14.1.3 Collisions 273 14.1.4 Panspermia 275 14.2 Recording Properties 279 14.3 Pristine Potential of Solar System Bodies 281 14.3.1 Comets, Asteroids and Dwarf Planets 281 14.3.2 Mercury 283 14.3.3 Moon 283 14.3.4 Mars 283 14.3.5 Main Asteroid Belt 284 14.3.6 Jupiter and Saturn 285 14.3.7 Uranus and Neptune 286 14.3.8 Kuiper Belt 286 14.3.9 Oort Cloud 287 14.3.10 Meteorites 287 14.3.11 Extra-Solar Bodies 288 14.4 Prospects and Conclusions 288 Acknowledgements 289 References 289 15 The Panspermia Publications of Sir Fred Hoyle 309Richard Gordon Acknowledgements 316 References 316 Index 327

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Book SynopsisOvercome your study inertia and polish your knowledge of physics Physics I: 501 Practice Problems For Dummies gives you 501 opportunities to practice solving problems from all the major topics covered you Physics I classin the book and online! Get extra help with tricky subjects, solidify what you've already learned, and get in-depth walk-throughs for every problem with this useful book. These practice problems and detailed answer explanations will help you succeed in this tough-but-required class, no matter what your skill level. Thanks to Dummies, you have a resource to help you put key concepts into practice. Work through practice problems on all Physics I topics covered in school classesStep through detailed solutions to build your understandingAccess practice questions online to study anywhere, any timeImprove your grade and up your study game with practice, practice, practiceThe material presented in Physics I: 501 Practice Problems For Dummies is an excellent resource for students, as well as parents and tutors looking to help supplement Physics I instruction. Physics I: 501 Practice Problems For Dummies (9781119883715) was previously published as Physics I Practice Problems For Dummies (9781118853153). While this version features a new Dummies cover and design, the content is the same as the prior release and should not be considered a new or updated product.Table of ContentsPart 1: The Questions 5 Chapter 1: Reviewing Math Fundamentals and Physics Measurements 7 Chapter 2: Moving along with Kinematics 11 Chapter 3: Moving in a Two-Dimensional World 17 Chapter 4: Pushing and Pulling: The Forces around You 23 Chapter 5: Slipping and Sliding: Motion and Forces 31 Chapter 6: Describing Rotational Motion 39 Chapter 7: Rotating Around in Different Loops 45 Chapter 8: Going with the Flow: Fluids 51 Chapter 9: Getting Some Work Done 57 Chapter 10: Picking Up Some Momentum with Impulse 65 Chapter 11: Rolling Around with Rotational Kinetics and Dynamics 73 Chapter 12: Bouncing with a Spring: Simple Harmonic Motion 87 Chapter 13: Heating Up with Thermodynamics and Heat Transfer 93 Chapter 14: Living in an Ideal World with the Ideal Gas Law 99 Chapter 15: Experiencing the Laws of Thermodynamics 103 Part 2: The Answers 109 Chapter 16: Answers 111 Index 413

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Book SynopsisA UNIQUE NEW APPROACH THATâS LIKE A LIGHTNING BOLT TO THE BRAINYou know that moment when you feel as though a lightning bolt has hit you because you finally get something? Thatâs how this book will make you react. (We hope!) Each chapter makes sure that what you really need to know is clear right off the bat and sees to it that you build on this knowledge. Where other books ask you to memorize stuff, weâre going to show you the must know ideas that will guide you toward success in physics. You will start each chapter learning what the must know ideas behind a physics subject are, and these concepts will help you solve the physics problems that you find in your classwork and on exams.Dive into this book and find:â 250+ practice questions that mirror what you will find in your classwork and on examsâ A bonus app with 100+ flashcards that will reinforce what youâve learnedâ Extensive exampl

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