Physics Books

Book SynopsisThis comprehensive Study Guide reinforces all the key concepts for the 2014 syllabus, ensuring students develop a clear understanding of all the crucial topics at SL and HL. Breaking concepts down into manageable sections and with diagrams and illustrations to cement understanding, exam preparation material is integrated to build student confidence and assessment potential. Directly linked to the Oxford Physics Course Book to extend and sharpen comprehension, this book supports maximum achievement in the course and assessment.Concise and focused approach simplifies complex ideas, building truly confident understandingClear and explanatory style uses plenty of visuals to make each concept accessible, easing comprehensionBuild a strong foundation of assessment skills, strengthening potential with integrated exam questionsDevelop assessment confidence, drawing on thorough assessment support and adviceClear and straightforward language helps EAL learners focus on the PhysicsAbout the serieTable of Contents1. Measurements and uncertainties ; 2. Mechanics ; 3. Thermal physics ; 4. Waves ; 5. Electricity and magnetism ; 6. Circular motion and gravitation ; 7. Atomic, nuclear and particle physics ; 8. Energy production ; 9. Wave phenomena (HL) ; 10. Fields (HL) ; 11. Electromagnetic induction (HL) ; 12. Quantum and nuclear physics (HL) ; 13. Option A: Relativity ; 14. Option B: Engineering Physics ; 15. Option C: Imaging ; 16. Option D: Astrophysics ; 17. Appenix: Mathematical techniques

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Book SynopsisComputational complexity is one of the most beautiful fields of modern mathematics, and it is increasingly relevant to other sciences ranging from physics to biology. But this beauty is often buried underneath layers of unnecessary formalism, and exciting recent results like interactive proofs, phase transitions, and quantum computing are usually considered too advanced for the typical student. This book bridges these gaps by explaining the deep ideas of theoretical computer science in a clear and enjoyable fashion, making them accessible to non-computer scientists and to computer scientists who finally want to appreciate their field from a new point of view. The authors start with a lucid and playful explanation of the P vs. NP problem, explaining why it is so fundamental, and so hard to resolve. They then lead the reader through the complexity of mazes and games; optimization in theory and practice; randomized algorithms, interactive proofs, and pseudorandomness; Markov chains and phase transitions; and the outer reaches of quantum computing. At every turn, they use a minimum of formalism, providing explanations that are both deep and accessible. The book is intended for graduate and undergraduate students, scientists from other areas who have long wanted to understand this subject, and experts who want to fall in love with this field all over again.Trade ReviewA creative, insightful, and accessible introduction to the theory of computing, written with a keen eye toward the frontiers of the field and a vivid enthusiasm for the subject matter. * Jon Kleinberg, Cornell University *To put it bluntly: this book rocks! It's 900+ pages of awesome. It somehow manages to combine the fun of a popular book with the intellectual heft of a textbook, so much so that I don't know what to call it (but whatever the genre is, there needs to be more of it!). * Scott Aaronson, Massachusetts Institute of Technology *Moore and Mertens guide the reader through the interesting field of computational complexity in a clear, broadly accessible and informal manner, while systematically explaining the main concepts and approaches in this area and the existing links to other disciplines. The book is comprehensive and can be easily used as a textbook, at both advanced undergraduate and postgraduate levels, but is equally useful for researchers in neighbouring disciplines, such as statistical physics [...]. Some of the material covered, such as approximability issues and Probabilistically Checkable Proofs is typically not presented in books of this type, and the authors do an excellent job in presenting them very clearly and convincingly. * David Saad, Aston University, Birmingham *A treasure trove of ideas, concepts and information on algorithms and complexity theory. Serious material presented in the most delightful manner! * Vijay Vazirani, Georgia Instituute of Technology *In a class by itself - in The Nature of Computation, Cristopher Moore and Stephan Mertens have produced one of the most successful attempts to capture the broad scope and intellectual depth of theoretical computer science as it is practiced today. The Nature of Computation is one of those books you can open to a random page and find something amazing, surprising and, often, very funny. * American Scientist *a comprehensive, accessible, and highly enjoyable book that conveys the key intellectual contributions of the theory of computing ... a valuable resource for any educator * Haris Aziz, SIGACT *The book is highly recommended for all interested readers: in or out of courses, students undergraduate or graduate, researchers in other fields eager to learn the subject, or scholars already in the field who wish to enrich their current understanding. It makes for a great textbook in a conventional theory of computing course, as I can testify from recent personal experience (I used it once; Ill use it again!). With its broad and deep wealth of information, it would be a top contender for one of my desert island books.TNoC speaks directly, clearly, convincingly, and entetainingly, but also goes much further: it inspires. * Frederic Green, SIGACT *Table of Contents1. Prologue ; 2. The Basics ; 3. Insights and Algorithms ; 4. Needles in a Haystack: The class NP ; 5. Who is the Hardest One of All: NP-Completeness ; 6. The Deep Question: P vs. NP ; 7. Memory, Paths and games ; 8. Grand Unified Theory of Computation ; 9. Simply the Best: Optimization ; 10. The Power of Randomness ; 11. Random Walks and Rapid Mixing ; 12. Counting, Sampling, and Statistical Physics ; 13. When Formulas Freeze: Phase Transitions in Computation ; 14. Quantum Computing ; 15. Epilogue ; 16. Appendix: Mathematical Tools

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Book SynopsisMagnetism is a strange force, mysteriously attracting one object to another apparently through empty space. It has been claimed as a great healer, with magnetic therapies being proposed over the centuries and still popular today. Why are its mysterious important to solve? In this Very Short Introduction, Stephen J. Blundell explains why. For centuries magnetism has been used for various exploits; through compasses it gave us navigation and through motors, generators, and turbines it has given us power. Blundell explores our understanding of electricity and magnetism, from the work of Galvani, Ampere, Faraday, and Tesla, and goes on to explore how Maxwell and Faraday''s work led to the unification of electricity and magnetism, thought of as one of the most imaginative developments in theoretical physics. With a discussion of the relationship between magnetism and relativity, quantum magnetism, and its impact on computers and information storage, Blundell shows how magnetism has changed our fundamental understanding of the Universe. 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 ReviewThis quite amazing book covers practically everything there is to know about magnetism. Ten seconds after opening the book, having scanned the contents section, I knew I was going to read not only about the birth of magnetism as a branch of scientific study, but also about Maxwells equations, relativity, quantum magnetism and technology. Two pages into the book, and I knew that the book was written in a relaxed, engaging, easy-to-follow style, which the author maintains throughout. * Paul van Kampen, Dublin City University, Contemporary Science *Table of ContentsMATHEMATICAL APPENDIX; FURTHER READING

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Book SynopsisCovering the elementary aspects of the physics of phases transitions and the renormalization group, this popular book is widely used both for core graduate statistical mechanics courses as well as for more specialized courses. Emphasizing understanding and clarity rather than technical manipulation, these lectures de-mystify the subject and show precisely how things work. Goldenfeld keeps in mind a reader who wants to understand why things are done, what the results are, and what in principle can go wrong. The book reaches both experimentalists and theorists, students and even active researchers, and assumes only a prior knowledge of statistical mechanics at the introductory graduate level.Advanced, never-before-printed topics on the applications of renormalization group far from equilibrium and to partial differential equations add to the uniqueness of this book.Table of ContentsIntroduction * Scaling and Dimensional Analysis * Power Laws in Statistical Physics * Some Important Questions * Historical Development * Exercises How Phase Transitions Occur In Principle * Review of Statistical Mechanics * The Thermodynamic Limit * Phase Boundaries and Phase Transitions * The Role of Models * The Ising Model * Analytic Properties of the Ising Model * Symmetry Properties of the Ising Model * Existence of Phase Transitions * Spontaneous Symmetry Breaking * Ergodicity Breaking * Fluids * Lattice Gases * Equivalence in Statistical Mechanics * Miscellaneous Remarks * Exercises How Phase Transitions Occur In Practice * Ad Hoc Solution Methods * The Transfer Matrix * Phase Transitions * Thermodynamic Properties * Spatial Correlations * Low Temperature Expansion * Mean Field Theory * Exercises Critical Phenomena in Fluids * Thermodynamics * Two-Phase Coexistence * Vicinity of the Critical Point * Van der Waals Equation * Spatial Correlations * Measurement of Critical Exponents * Exercises Landau Theory * Order Parameters * Common Features of Mean Field Theories * Phenomenological Landau Theory * Continuous Phase Transitions * Inhomogeneous Systems * Correlation Functions * Exercises Fluctuations and the Breakdown of Landau Theory * Breakdown of Microscopic Landau Theory * Breakdown of Phenomenological Landau Theory * The Gaussian Approximation * Critical Exponents * Exercises Scaling in Static, Dynamic and Non-Equilibrium Phenomena * The Static-Scaling Hypothesis * Other Forms of the Scaling Hypothesis * Dynamic Critical Phenomena * Scaling in the Approach to Equilibrium * Summary The Renormalisation Group * Block Spins * Basic Ideas of the Renormalisation Group * Fixed Points * Origin of Scaling * RG in Differential Form * RG for the Two Dimensional Ising Model * First Order Transitions and Non-Critical Properties * RG for the Correlation Function * Crossover Phenomena * Correlations to Scaling * Finite Size Scaling Anomalous Dimensions Far From Equilibrium * Introduction * Similarity Solutions * Anomalous Dimensions in Similarity Solutions * Renormalisation * Perturbation Theory for Barenblatts Equation * Fixed Points * Conclusion Continuous Symmetry * Correlation in the Ordered Phase * Kosterlitz-Thouless Transition Critical Phenomena Near Four Dimensions * Basic Idea of the Epsilon Expansion * RG for the Gaussian Model * RG Beyond the Gaussian Approximation * Feyman Diagrams * The RG Recursion Relations * Conclusion

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Book SynopsisFirst published in 1925, Bertrand Russellâs ABC of Relativity was considered a masterwork of its time, contributing significantly to the mass popularisation of science. Authoritative and accessible, it provides a remarkable introductory guide to Einsteinâs theory of Relativity for a general readership. One of the most definitive reference guides of its kind, and written by one of the twentieth centuryâs most influential philosophers, ABC of Relativity continues to be as relevant today as it was on first publication.Trade Review‘An ideal introduction to the theories of special and general relativity’ - Nature. Table of ContentsPreface Introduction 1. Touch and Sight: The Earth and the Heavens 2. What Happens and What is Observed 3. The Velocity of Light 4. Clocks and Foot-rules 5. Space-Time 6. The Special Theory of Relativity 7. Intervals in Space-Time 8. Einstein’s Law of Gravitation 9. Proofs of Einstein’s Law of Graviation 10. Mass, Momentum, Energy, and Action 11. The Expanding Universe 12. Conventions and Natural Laws 13. The Abolution of ‘Force’ 14. What is Matter? 15. Physical Consequences Index

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

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Book SynopsisBill Bryson (Author, Reader) Bill Bryson was born in Des Moines, Iowa, in 1951. His bestselling books include The Road to Little Dribbling, Notes from a Small Island, A Walk in the Woods, One Summer and The Life and Times of the Thunderbolt Kid. In a national poll, Notes from a Small Island was voted the book that best represents Britain. His acclaimed work of popular science, A Short History of Nearly Everything, won the Aventis Prize and the Descartes Prize, and was the biggest selling non-fiction book of its decade in the UK. His new book The Body: A Guide for Occupants is an extraordinary exploration of the human body which will have you marvelling at the form you occupy.Bill Bryson was Chancellor of Durham University 20052011. He is an Honorary Fellow of the Royal Society. He lives in England.Trade ReviewPossibly the best scientific primer ever published. * Economist *'A travelogue of science, with a witty, engaging, and well-informed guide who loves his patch and is desperate to share its delights with us' -- Peter Atkins * The Times *'A thoroughly enjoyable, as well as educational, experience. Nobody who reads it will ever look at the world around them in the same way again' -- William Hartston * Daily Express *'Brims with strange and amazing facts...destined to become a modern classic of science writing' -- Ed Regis * New York Times Book Review *'It deserves to sell as many copies as there are protons in the full stop that ends this review (at least 500,000,000,000).' -- Craig Brown * Mail on Sunday *

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Book SynopsisTrade Review"Of exceptional importance. A genuine philosophy of nature, written by a physicist." * Hibbert Journal *"Bohm's challenging book perhaps marks the beginning of a retreat from high-flown obscurantism and a return to common sense in science." * Scientific American *"Bohm's ideas deserve careful study. . . . Through the stimulus it will provide for the thoughtful investigation of some of the most searching questions of modern physical science, this book serves a very useful purpose." * Physics Today *Table of ContentsForeword Chapter One. Causality and Chance in Natural Law Chapter Two. Causality and Chance in Classical Physics: The Philosophy of Mechanism Chapter Three. The Quantum Theory Chapter Four. Alternative Interpretations of the Quantum Theory Chapter Five. More General Concept of Natural Law

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Book SynopsisTable of ContentsPart I 1) Lattice Geometry 2) Point Groups and Space Groups 3) Crystal Structures 4) Amorphous Materials and Special Types of Crystal–Solid Aggregates 5) Tensors 6) Strain, Stress, Piezoelectricity and Elasticity Part II 7) Glide 8) Dislocations 9) Dislocations in Crystals 10) Point Defects 11) Twinning 12) Martensitic Transformations 13) Grain Boundaries 14) Interphase Boundaries 15) Texture Appendices 1 to 8 Index

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Book SynopsisTable of ContentsIntroduction 1 About This Book 2 Foolish Assumptions 2 Icons Used in This Book 3 Beyond the Book 3 Where to Go from Here 4 Part 1: Getting Started with Astronomy 5 Chapter 1: Seeing the Light: The Art and Science of Astronomy 7 Astronomy: The Science of Observation 8 What You See: The Language of Light 10 They wondered as they wandered: Understanding planets versus stars 10 If you see a Great Bear, start worrying: Naming stars and constellations 12 The smaller, the brighter: Getting to the root of magnitudes 19 What do I spy? Spotting the Messier Catalog and other sky objects 20 Looking back on light-years 22 Keep on moving: Figuring the positions of the stars 23 Gravity: A Force to Be Reckoned With 26 Space: A Commotion of Motion 27 Chapter 2: Join the Crowd: Skywatching Activities and Resources 29 You’re Not Alone: Astronomy Clubs, Websites, Smartphone Apps, and More 30 Joining an astronomy club for star-studded company 30 Checking websites, magazines, software, and apps 31 Visiting Observatories and Planetariums 35 Ogling the observatories 35 Popping in on planetariums 39 Vacationing with the Stars: Star Parties, Eclipse Trips, Dark Sky Parks, and More 39 Party on! Attending star parties 40 Getting festive at an astro fest 42 Tapping into Astronomy on Tap 42 To the path of totality: Taking eclipse cruises and tours 42 Motoring to telescope motels 44 Chapter 3: Terrific Tools for Observing the Skies 47 Seeing Stars: A Sky Geography Primer 48 As Earth turns 48 keep an eye on the North Star 51 Beginning with Naked-Eye Observations 53 Using Binoculars or a Telescope for a Better View 56 Binoculars: Sweeping the night sky 56 Telescopes: When closeness counts 60 Planning Your First Steps into Astronomy 70 Chapter 4: Just Passing Through: Meteors, Comets, and Artificial Satellites 73 Meteors: Wishing on a Shooting Star 74 Spotting sporadic meteors, fireballs, and bolides 75 Watching meteor showers: No umbrella needed 77 Comets: Dirty Ice Balls or Icy Dirt Balls? 81 Making heads and tails of a comet’s structure 82 Waiting for the “comets of the century” 86 Hunting for the next great comet 87 Artificial Satellites: Enduring a Love–Hate Relationship 90 Skywatching for artificial satellites 91 Finding satellite viewing predictions 92 UFOs: Could some be aliens? 94 Part 2: Going Once Around the Solar System 95 Chapter 5: A Matched Pair: Earth and Its Moon 97 Putting Earth under the Astronomical Microscope 98 One of a kind: Earth’s unique characteristics 98 Spheres of influence: Earth’s distinct regions 100 Examining Earth’s Time, Seasons, and Age 102 Orbiting for all time 102 Tilting toward the seasons 104 Estimating Earth’s age 106 Making Sense of the Moon 107 Get ready to howl: Identifying phases of the Moon 108 In the shadows: Watching lunar eclipses 110 Cultivating an interest in the occult(ations) 112 Hard rock: Surveying lunar geology 113 Quite an impact: Considering a theory about the Moon’s origin 119 Chapter 6: Earth’s Near Neighbors: Mercury, Venus, and Mars 121 Mercury: Weird, Hot, and Mostly Metal 122 Dry, Acidic, and Hilly: Piercing the Veil of Venus 123 Dropping the ball: Probing Venus with DAVINCI+ and EnVision 125 Something in the air: Life in Venus’s clouds? 125 Red, Cold, and Barren: Uncovering the Mysteries of Mars 125 Where have almost all the air and water gone? (Long time passing) 126 Does Mars support life? 128 Differentiating Earth through Comparative Planetology 131 Observing the Terrestrial Planets with Ease 132 Understanding elongation, opposition, and conjunction 133 Viewing Venus and its phases 135 Watching Mars as it loops around 137 Outdoing Copernicus by observing Mercury 139 Chapter 7: Rock On: The Asteroid Belt and Near-Earth Objects 141 Taking a Brief Tour of the Asteroid Belt 141 Getting the Dirt on (and off) Asteroids 145 Understanding the Threat That Near-Earth Objects Pose 146 When push comes to shove: Nudging an asteroid 148 Forewarned is forearmed: Surveying NEAs to protect Earth 149 Searching for Small Points of Light 150 Helping to track an occultation 151 Timing an asteroidal occultation 152 Chapter 8: Great Balls of Gas: Jupiter and Saturn 153 The Pressure’s On: Journeying Inside Jupiter and Saturn 153 Almost a Star: Gazing at Jupiter 154 Scanning for the Great Red Spot 156 Shooting for Galileo’s moons 157 Our Main Planetary Attraction: Setting Your Sights on Saturn 161 Ringing around the planet 162 Storm chasing across Saturn 164 Monitoring a moon of major proportions 164 Venting about geysers on Enceladus 166 Chapter 9: Far Out! Uranus, Neptune, Pluto, and Beyond 169 Breaking the Ice with Uranus and Neptune 169 Bull’s-eye! Tilted Uranus and its features 170 Against the grain: Neptune and its biggest moon 171 Meeting Pluto, the Amazing Dwarf Planet 173 Defining Pluto the geophysical way 174 Getting to the heart of Pluto 174 Looking at Pluto’s makeup 177 The moon chip doesn’t float far from the planet 177 Buckling Down to the Kuiper Belt 178 Viewing the Outer Planets 180 Sighting Uranus 180 Distinguishing Neptune from a star 180 Straining to see Pluto 181 Hunting New Planet Number Nine 182 Part 3: Starting with Old Sol: Meeting Stars And Galaxies 185 Chapter 10: The Sun: Star of Earth 187 Surveying the Sunscape 188 The Sun’s size and shape: A great bundle of gas 189 The Sun’s regions: Caught between the core and the corona 189 Solar activity: What’s going on out there? 192 Solar wind: Playing with magnets 196 Solar CSI: The mystery of the missing solar neutrinos 197 Four billion and counting: The life expectancy of the Sun 198 Don’t Make a Blinding Mistake: Safe Techniques for Solar Viewing 199 Viewing the Sun by projection 199 Viewing the Sun through front-end filters 204 Fun with the Sun: Solar Observation 206 Tracking sunspots 206 Experiencing solar eclipses 208 Surfing solar observatories 212 Chapter 11: Taking a Trip to the Stars 215 Life Cycles of the Hot and Massive 216 Young stellar objects: Taking baby steps 217 Main sequence stars: Enjoying a long adulthood 218 Red giants and supergiants: Big and bigger 219 Closing time: Coming up on the tail end of stellar evolution 220 Star Color, Brightness, and Mass 226 Spectral types: What color is my star? 227 Star light, star bright: Luminosity classifications 228 The brighter they burn, the bigger they swell: Mass determines class 229 Making sense of the H-R diagram 230 Eternal Partners: Binary and Multiple Stars 232 Binary stars and the Doppler effect 232 Two stars are binary, but three’s a crowd: Multiple stars 234 Change Is Good: Variable Stars 235 Go the distance: Pulsating stars 236 Explosive neighbors: Flare stars 238 Nice to nova: Exploding stars 238 Stellar hide-and-seek: Eclipsing binary stars 241 Hog the starlight: Microlensing events 242 Your Stellar Neighbors 242 How to Help Scientists by Observing the Stars 245 Chapter 12: Galaxies: The Milky Way and Beyond 247 Unwrapping the Milky Way 248 How and when did the Milky Way form? 249 What shape is the Milky Way? 249 Where can you find the Milky Way? 251 Star Clusters: Meeting Galactic Associates 252 A loose fit: Open clusters 253 A tight squeeze: Globular clusters 255 Fun while it lasted: OB associations 256 Taking a Shine to Nebulas 257 Picking out planetary nebulas 259 Breezing through supernova remnants 261 Enjoying Earth’s best nebular views 261 Getting a Grip on Galaxies 264 Surveying spiral, barred spiral, and lenticular galaxies 265 Examining elliptical galaxies 266 Looking at irregular, dwarf, and low surface brightness galaxies 267 Gawking at great galaxies 268 Discovering the Local Group of galaxies 271 Checking out clusters of galaxies 272 Sizing up superclusters, cosmic voids, and great walls 272 Chapter 13: Falling for Black Holes and Quasars 275 Black Holes: Keeping Your Distance 275 Looking over the black hole roster 276 Poking around the black hole interior 277 Surveying a black hole’s surroundings 280 Warping space and time 281 Detecting black hole collisions 283 Watching stars get swallowed by black holes 284 Quasars: Defying Definitions 285 Measuring the size of a quasar 286 Getting up to speed on jets 287 Exploring quasar spectra 287 Active Galactic Nuclei: Welcome to the Quasar Family 288 Sifting through different types of AGN 288 Examining the power behind AGN 290 Questioning what ORCs are 291 Part 4: Pondering the Remarkable Universe 293 Chapter 14: Planets of Other Suns: Is Anybody Out There? 295 Discovering Alien Worlds 296 Changing ideas on exoplanets 296 Finding exoplanets 298 Meeting the (exo)planets 302 Catching Proxima fever: Focusing on red dwarfs 305 Finding Earth-class planets orbiting TRAPPIST-1 307 Checking out planets for fun and science 308 Astrobiology: How’s Life on Other Worlds? 309 Extremophiles: Living the hard way 309 Seeking life in the solar system 310 Using Drake’s Equation to Discuss SETI 313 SETI Projects: Listening for E.T. 316 The flight of Project Phoenix 317 Space scanning with other SETI projects 318 Hot targets for SETI 320 SETI@home 321 Chapter 15: Delving into Dark Matter and Antimatter 323 Dark Matter: Understanding the Universal Glue 323 Gathering the evidence for dark matter 324 Debating the makeup of dark matter 328 Taking a Shot in the Dark: Searching for Dark Matter 329 Looking for WIMPs and other microscopic dark matter 329 MACHOs: Making a brighter image 331 Mapping dark matter with gravitational lensing 331 Dueling Antimatter: Proving That Opposites Attract 333 Chapter 16: The Big Bang and the Evolution of the Universe 335 Evidence for the Big Bang 336 Inflation: A Swell Time in the Universe 337 Something from nothing: Inflation and the vacuum 339 Falling flat: Inflation and the shape of the universe 339 Dark Energy: The Universal Accelerator 340 Universal Info Pulled from the Cosmic Microwave Background 341 Finding the lumps in the cosmic microwave background 342 Mapping the universe with the cosmic microwave background 342 In a Galaxy Far Away: Standard Candles and the Hubble Constant 344 Standard candles: How do scientists measure galaxy distances? 344 The Hubble constant: How fast do galaxies really move? 345 The Fate of the Universe 346 Part 5: the Part of Tens 347 Chapter 17: Ten Strange Facts about Astronomy and Space 349 You Have Tiny Meteorites in Your Hair 349 A Comet’s Tail Often Leads the Way 350 Earth Is Made of Rare and Unusual Matter 350 High Tide Comes on Both Sides of Earth at the Same Time 350 On Venus, the Rain Never Falls on the Plain 350 Rocks from Mars Dot Earth 351 Pluto Was Discovered from the Predictions of a Wrong Theory 351 Sunspots Aren’t Dark 351 A Star in Plain View May Have Exploded, But No One Knows 352 The Same Supernova or Quasar May Be Seen in Different Places 352 Chapter 18: Ten Common Errors about Astronomy and Space 353 “The Light from That Star Took 1,000 Light-Years to Reach Earth” 353 There’s No Gravity in Space 354 Summer Comes When Earth Is Closest to the Sun 354 The Back of the Moon Is Dark 354 The “Morning Star” or “Evening Star” Is a Star 355 The Asteroid Belt Is Crowded 355 Nuking a “Killer Asteroid” on a Collision Course for Earth Will Save Us 355 The Sun Is an Average Star 356 The Hubble Space Telescope Gets Up Close and Personal 356 The Big Bang Is Dead 356 Part 6: Appendixes 357 Appendix A: Star Maps 359 Appendix B: Glossary 367 Index 373

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Book SynopsisForget everything you thought you knew about reality.The world is a seriously bizarre place. Things can exist in two places at once and travel backwards and forwards in time. Waves and particles are one and the same, and objects change their behaviour according to whether they are being watched. This is not some alternative universe but the realm of the very small, where quantum mechanics rules. In this weird world of atoms and their constituents, our common sense understanding of reality breaks down - yet quantum mechanics has never failed an experimental test. What does it all mean? For all its weirdness, quantum mechanics has given us many practical technologies including lasers and the transistors that underlie computers and all digital technology. In the future, it promises computers more powerful than any built before, the ability to communicate with absolute privacy, and even quantum teleportation. The Quantum World explores the past, present and future of quantum science, its applications and mind-bending implications. Discover how ideas from quantum mechanics are percolating out into the vast scale of the cosmos - perhaps, in the future, to reveal a new understanding of the big bang and the nature of space and time.ABOUT THE SERIESNew Scientist Instant Expert books are definitive and accessible entry points to the most important subjects in science; subjects that challenge, attract debate, invite controversy and engage the most enquiring minds. Designed for curious readers who want to know how things work and why, the Instant Expert series explores the topics that really matter and their impact on individuals, society, and the planet, translating the scientific complexities around us into language that's open to everyone, and putting new ideas and discoveries into perspective and context.

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Book SynopsisIsaac is a Department for Education project at the University of Cambridge that develops understanding and confidence through problem solving in the physical sciences, by combining accessible and concise print resources with a state of the art online study tool. This book is a co-publication between Periphyseos Press/Isaac and Cambridge University Press. 2 books in 1: ESSENTIAL PRE-UNIVERSITY PHYSICS helps you master the concepts of physics in pre-university courses (including A Level, IAL, IB and the AICE Diploma). Use the skill sheets to practise applying fundamental principles of physics to a range of situations, beginning with manipulating the essential equations. DEVELOPING PROBLEM-SOLVING SKILLS builds the problem solving fluency needed for physics and engineering at university. All problems can be answered on the Isaac online platform. Registration is free and gives both students and teachers personalised support through a sophisticated online marking system for all problems and a section-by-section archive of video lessons.

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Book SynopsisThis book offers a comprehensive overview of the theoretical background and practice of physics teaching and learning and assists in the integration of highly interesting topics into physics lessons. Researchers in the field, including experienced educators, discuss basic theories, the methods and some contents of physics teaching and learning, highlighting new and traditional perspectives on physics instruction. A major aim is to explain how physics can be taught and learned effectively and in a manner enjoyable for both the teacher and the student. Close attention is paid to aspects such as teacher competences and requirements, lesson structure, and the use of experiments in physics lessons. The roles of mathematical and physical modeling, multiple representations, instructional explanations, and digital media in physics teaching are all examined. Quantitative and qualitative research on science education in schools is discussed, as quality assessment of physics instruction. The book is of great value to researchers involved in the teaching and learning of physics, to those training physics teachers, and to pre-service and practising physics teachers.Table of ContentsTopics of Physics Education and Connections to other Sciences.- Professional Competencies for Teaching Physics.- How to Teach a Teacher: Challenges and Opportunities in Physics Teacher Education in Germany and the U.S..- Instructional Design.- Nature of Scientific Knowledge and Nature of Scientific Inquiry in Physics Lessons.- Instructional Coherence and the Development of Student Competence in Physics.- Multiple Representations and Learning Physics.- Physical-Mathematical Modelling and its Role in Learning Physics.- Physics Tasks.- Experiments in Physics Teaching.- Multimedia and Digital Media in Physics In-struction.- Instructional Explanations in Physics Teaching.- Language in physics instruction.- Students’ Conceptions.- Formative Assessment- Methodical Basics of Empirical Research.- Qualitative research on science education in schools.

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Book SynopsisWhile there are many publications on the topic written by experts for experts, this text is specifically designed to allow advanced students and researchers with no background in physics to comprehend novel fluorescence microscopy techniques. This second edition features new chapters and a subsequent focus on super-resolution and single-molecule microscopy as well as an expanded introduction. Each chapter is written by a renowned expert in the field, and has been thoroughly revised to reflect the developments in recent years.Table of ContentsList of Contributors xv Preface xix 1 Introduction to Optics 1Rainer Heintzmann and Ulrich Kubitscheck 1.1 A Short History of Theories about Light 1 1.2 Properties of LightWaves 2 1.3 Four Effects of Interference 7 1.4 Optical Elements 13 1.5 Optical Aberrations 20 2 Principles of LightMicroscopy 23Ulrich Kubitscheck 2.1 Introduction 23 2.2 Construction of Light Microscopes 23 2.3 Wave Optics and Resolution 32 2.4 Apertures, Pupils, and Telecentricity 50 2.5 Microscope Objectives 53 2.6 Contrast 67 2.7 Summary 82 3 Fluorescence Microscopy 85JurekW. Dobrucki and Ulrich Kubitscheck 3.1 Contrast in Optical Microscopy 85 3.2 Physical Foundations of Fluorescence 86 3.3 Features of Fluorescence Microscopy 90 3.4 A Fluorescence Microscope 95 3.5 Types ofNoise in a Digital Microscopy Image 114 3.6 Quantitative Fluorescence Microscopy 119 3.7 Limitations of Fluorescence Microscopy 124 3.8 Summary and Outlook 128 4 Fluorescence Labeling 133Gerd Ulrich Nienhaus and Karin Nienhaus 4.1 Introduction 133 4.2 Key Properties of Fluorescent Labels 133 4.3 Synthetic Fluorophores 138 4.4 Genetically Encoded Labels 149 4.5 Label Selection for Particular Applications 155 5 Confocal Microscopy 165Nikolaus Naredi-Rainer, Jens Prescher, Achim Hartschuh, and Don C. Lamb 5.1 Evolution and Limits of ConventionalWidefield Microscopy 165 5.2 Theory of Confocal Microscopy 166 5.3 Applications of Confocal Microscopy 186 6 Two-Photon Excitation Microscopy for Three-Dimensional Imaging of Living Intact Tissues 203David W. Piston 6.1 Introduction 203 6.2 What is Two-Photon Excitation? 205 6.3 How Does Two-Photon Excitation MicroscopyWork in Practice? 211 6.4 Instrumentation 216 6.5 Limitations of Two-Photon Excitation Microscopy 222 6.6 When is 2PMthe Best Option? 229 6.7 Applications of Two-Photon Microscopy 231 6.8 Other NonlinearMicroscopies 239 6.9 Future Outlook for 2PM 240 7 Light Sheet Microscopy 243Gopi Shah,MichaelWeber, and Jan Huisken 7.1 Principle of Light Sheet Microscopy 244 7.2 Light Sheet Microscopy: Key Advantages 245 7.3 Construction andWorking of a Light Sheet Microscope 246 7.4 Theory of Light Sheet Microscopy 247 7.5 Light Sheet Interaction with Tissue 251 7.6 3D Imaging 253 7.7 Multiview Imaging 255 7.8 Different Lens Configurations 257 7.9 Sample Mounting 258 7.10 Recent Advances in Light Sheet Microscopy 259 7.11 Outlook 260 8 Localization-Based Super-Resolution Microscopy 267Markus Sauer and Mike Heilemann 8.1 Super-Resolution Microscopy: An Introduction 267 8.2 The Principle of Single-Molecule Localization Microscopy 269 8.3 Photoactivatable and Photoconvertible Probes 272 8.4 Intrinsically Photoswitchable Probes 272 8.5 Photoswitching of Organic Fluorophores by Chemical Reactions 273 8.6 Experimental Setup for Localization Microscopy 273 8.7 Optical Resolution and Imaging Artifacts 276 8.8 Fluorescence Labeling for Super-Resolution Microscopy 278 8.9 Measures for Improving Imaging Contrast 283 8.10 SMLM Software 283 8.11 Reference Structures for SMLM 285 8.12 Quantification of SMLM Data 286 9 Super-Resolution Microscopy: Interference and Pattern Techniques 291Udo Birk, Gerrit Best, Roman Amberger, and Christoph Cremer 9.1 Introduction 291 9.2 Structured Illumination Microscopy (SIM) 293 9.3 SpatiallyModulated Illumination (SMI) Microscopy 307 9.4 Application of Patterned Techniques 313 10 STEDMicroscopy 321Travis J. Gould, Lena K. Schroeder, Patrina A. Pellett, and Joerg Bewersdorf 10.1 Introduction 321 10.2 The Concepts behind STED Microscopy 322 10.3 Experimental Setup 330 10.4 Applications 334 11 Fluorescence Photobleaching Techniques 339Reiner Peters 11.1 Introduction 339 11.2 Basic Concepts and Procedures 340 11.3 Fluorescence Recovery after Photobleaching (FRAP) 345 11.4 Continuous Fluorescence Microphotolysis (CFM) 352 11.5 CLSM-Assisted Photobleaching Methods 356 12 Single-Molecule Microscopy in the Life Sciences 365Markus Axmann, JosefMadl, and Gerhard J. Schütz 12.1 Encircling the Problem 365 12.2 What is the Unique Information? 367 12.3 Building a Single-Molecule Microscope 372 12.4 Analyzing Single-Molecule Signals: Position, Orientation, Color, and Brightness 387 12.5 Learning from Single-Molecule Signals 394 13 Förster Resonance Energy Transfer and Fluorescence Lifetime Imaging 405Fred S.Wouters 13.1 General Introduction 405 13.2 Förster Resonance Energy Transfer 406 13.3 Measuring FRET 426 13.4 FLIM 439 13.5 Analysis and Pitfalls 444 A Appendix A:What Exactly is a Digital Image? 453Ulrich Kubitscheck A.1 Introduction 453 A.2 Digital Images as Matrices 453 A.3 Look-up Table 457 A.4 Intensity Histograms 457 A.5 Image Processing 458 A.6 Pitfalls 460 B Appendix B: Practical Guide to Optical Alignment 463Rainer Heintzmann B.1 How to Obtain aWidened Parallel Laser Beam? 463 B.2 Mirror Alignment 465 B.3 Lens Alignment 466 B.4 Autocollimation Telescope 466 B.5 Aligning a Single Lens Using a Laser Beam 466 B.6 How to Find the Focal Plane of a Lens? 469 B.7 How to Focus to the Back Focal Plane of an Objective Lens? 470 Index 473

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Book Synopsisoffers the theory and mechanism of wetting-controlled surfaces, model of physics and chemistry, idea of design, methods of fabrication to realize wetting functions.

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Book Synopsis

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Book Synopsis

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Book Synopsis

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Book SynopsisOffers important lessons about the opportunities for quantitative, physics-style experiments on diverse biological phenomena. This title emphasizes the unifying power of abstract physical principles to motivate advanced experiments on biological systems. It covers a range of biological phenomena from the physicist's perspective.Trade ReviewWilliam Bialek, Winner of the 2013 Swartz Prize for Theoretical and Computational Neuroscience, Society for Neuroscience "[T]he book goes beyond being a structured material for readers to learn about biophysics; it takes readers on an incredible journey in discovering fascinating ways in which biological phenomena can be viewed and studied. The technical adroitness and more importantly, the unique way of thinking about biological problems, in the reviewer's opinion, makes the book a must-read for any aspiring biophysicists."--Angie Ma, Contemporary Physics "[P]hysicists who are seeking an exciting intellectual path through the complexity of biology will deeply appreciate Bialek's clear vision of the big ideas and his expert guidance through their many applications."--Stephen J. Hagen, Physics Today "The book is well crafted, linking the historic work of the 'giants', e.g. Helmholtz with his seminal view of vision and hearing, with latest and trendy research, exemplified by the use of information theory in biology."--Robert Endres, Biological Physics Group NewsletterTable of ContentsAcknowledgments ix PART I EXPLORING THE PHENOMENA 1. Introduction 3 *1.1 About Our Subject 3 *1.2 About This Book 11 2. Photon Counting in Vision 17 *2.1 A First Look 17 *2.2 Dynamics of Single Molecules 51 *2.3 Biochemical Amplification 68 *2.4 The First Synapse and Beyond 97 *2.5 Coda 115 3. Lessons, Problems, Principles 117 PART II CANDIDATE PRINCIPLES 4. Noise Is Not Negligible 127 *4.1 Fluctuations and Chemical Reactions 127 *4.2 Motility and Chemotaxis in Bacteria 149 *4.3 Molecule Counting, More Generally 172 *4.4 More about Noise in Perception 192 *4.5 Proofreading and Active Noise Reduction 218 *4.6 Perspectives 245 5. No Fine Tuning 247 *5.1 Sequence Ensembles 248 *5.2 Ion Channels and Neuronal Dynamics 279 *5.3 The States of Cells 299 *5.4 Long Time Scales in Neural Networks 329 *5.5 Perspectives 349 6. Efficient Representation 353 *6.1 Entropy and Information 354 *6.2 Noise and Information Flow 369 *6.3 Does Biology Care about Bits? 395 *6.4 Optimizing Information Flow 421 *6.5 Gathering Information and Making Models 449 *6.6 Perspectives 467 7. Outlook 469 Appendix Some Further Topics 473 * A.1 Poisson Processes 473 * A.2 Correlations, Power Spectra, and All That 484 * A.3 Diffraction and Biomolecular Structure 495 * A.4 Electronic Transitions in Large Molecules 503 * A.5 The Kramers Problem 512 * A.6 Berg and Purcell, Revisited 521 * A.7 Maximum Entropy 533 * A.8 Measuring Information Transmission 545 Annotated Bibliography 557 Index 625

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Book SynopsisPaul G. Hewitt Becoming a physics instructor and textbook authordidn't seem a likely outcome of my earlier years. I grew up in Saugus (nearBoston), Massachusetts. In my high school years, an influential counselorconvinced me that I wouldn't have to take academic courses due to my talent forart. My passions at the time were drawing comic strips, rink roller-skating,and especially boxing, which helped repel school bullies. At age 17, I won thesilver medal of the New England Amateur Athletic Union in the 112-pound class.Shortly after that, I delivered newspapers, painted signs, and learnedsilk-screen printing in Boston, where I met life-long friend Ernie Brown, whoinfluenced me to spend two winters with him in Miami, Florida. I dedicated theeleventh edition of Conceptual Physics to Ernie. In 1953, during the Koreanconflict, I was abruptly drafted into the Army. I was fortunate, however, thatthe war ended on my last day of basic training at Camp Carson iTable of ContentsAbout Science Part One: MECHANICS Newton's First Law of Motion: Inertia Linear Motion Newton's Second Law of Motion Newton's Third Law of Motion Momentum Energy Rotational Motion Gravity Projectile and Satellite Motion Part Two: PROPERTIES OF MATTER The Atomic Nature of Matter Solids Liquids Gases Part Three: HEAT Temperature, Heat, and Expansion Heat Transfer Change of Phase Thermodynamics Part Four: SOUND Vibrations and Waves Sound Musical Sounds Part Five: ELECTRICITY AND MAGNETISM Electrostatics Electric Current Magnetism Electromagnetic Induction Part Six: LIGHT Properties of Light Color Reflection and Refraction Light Waves Light Emission Light Quanta Part Seven: ATOMIC AND NUCLEAR PHYSICS The Atom and the Quantum Atomic Nucleus and Radioactivity Nuclear Fission and Fusion Part Eight: RELATIVITY Special Theory of Relativity General Theory of Relativity Author Profile Appendices A. On Measurement and Unit Conversions B. More About Motion C. Graphing D. Vector Applications E. Exponential Growth and Doubling Time Odd-Numbered Answers Glossary Credits Index

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Book Synopsis"Some people say, 'How can you live without knowing?' I do not know what they mean. I always live without knowing. That is easy. How you get to know is what I want to know."--Richard P. Feynman Nobel Prize-winning physicist Richard P. Feynman (1918-88) was that rarest of creatures--a towering scientific genius who could make himself understood byTrade Review"Feynman's depth and zing leap from the page."--Nature "[Richard Feynman] combined scientific genius with regular-guy language... Now his daughter, Michelle Feynman--born three years after he received the Nobel in 1965--has edited a collection of quotes from his voluminous output of books, lectures, essays, articles and scientific papers."--Washington Post "So much has been said by and about the charismatic physicist Richard Feynman that it is no surprise to find that his witticisms fill a book nearly 400 pages long... A fun present for any Feynman fanboys and fangirls in your life."--Physics World "Deeply learned... Highly detailed and utterly convincing."--Tarek Masoud, Perspectives on Politics "[Feynman] was, after all, a Nobel Prize winning scientist, yet he wrote often with great lucidity and humor, much of which is on display in this collection."--Acadiana LifeStyleTable of ContentsA Brief Note on Sources ix Foreword, by Brian Cox xi Reflections on Richard Feynman, by Yo-Yo Ma xv Preface: My Quotable Father, by Michelle Feynman xvii Chronology xxiii Youth 3 Family 15 Autobiographical 23 Art, Music, and Poetry 51 Nature 57 Imagination 83 Humor 89 Love 103 Philosophy and Religion 109 Nature of Science 123 Curiosity and Discovery 165 How Physicists Think 185 The Quantum World 197 Science and Society 213 Mathematics 223 Technology 241 War 249 Challenger 261 Politics 271 Doubt and Uncertainty 281 Education and Teaching 293 Advice and Inspiration 317 Intelligence 327 The Nobel Prize 333 Worldview 345 The Future 355 Honoring Richard Feynman 363 Acknowledgments 383 Photo Credits 387 Sources 389 Index 397

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Book SynopsisA wise and inspiring manifesto about why understanding physics can make you happier, by one of the leading science writers of our time.Trade ReviewTim Radford's The Consolations of Physics is a love letter to the Voyager space probes. The poetry of their journey stimulated Radford to wax lyrical about the purpose of science. It is a beautiful, moving book that roams through the grand physics of recent decades. -- Michael Brooks * New Statesman, Books of the Year *Lyrical hymn to space exploration, knowledge and the enquiring mind... Helps quench our curiosity, yet deepens the mystery, about the cosmos and our attempts to discover more about it. -- Darragh McManus * Irish Independent *Beautiful, joyful, inspiring. A celebration of physicists' quest to understand the universe, from one of the best science writers around. -- Jo Marchant, New York Times bestselling author of CUREIt's rare that you get a book that connects Dante's Divine Comedy to the Higgs boson and the geology of limestone cliffs, and this weaving together of two thousand's years of intellectual thought is one of the many delights of this book. It's a hymn to scientific endeavour. -- Professor Mark Miodownik, New York Times bestselling author of STUFF MATTERSWow... Tim Radford's writing is so beautiful, it reads like poetry. A book more about life and passion than physics. People who have never cared a jot about physics (like me) must read this book. -- Suzanne O'Sullivan, Wellcome Prize-winning author of IT'S ALL IN YOUR HEADA beautiful, inspiring reflection on science, humanity, space, and matter - this would blow Boethius's mind. -- Sarah Bakewell, Sunday Times-bestselling author of HOW TO LIVE and AT THE EXISTENTIALIST'S CAFEAn appreciative survey of the vast canvas on which physicists do their creative work - the entire observable universe, from the beginning of time to its end (assuming there is one)... Beneath his jocularity, Radford is an unapologetic intellectual. -- Graham Farmelo * Guardian *Beautifully crafted 'love letter to physics'... His deft narrative interweaves discoveries such as the Higgs boson, the Hubble Deep Field and gravitational waves with Dante Alighieri's epic fourteenth-century poem The Divine Comedy, which intuited the laws of motion found by Galileo Galilei some 300 years later. -- Barbara Kiser * Nature *Engaging and delightful... In Radford's persuasive and genial company, as he roams from the initial singularity to dark energy, from Saint Augustine's City of God to Dante's The Divine Comedy, from the Higgs bosun to the multiverse, it's hard not to be moved by the fact that there are those who are capable of dreaming up and executing complex undertakings that explore the order that underpins creation. -- Manjit Kumar * Observer *Physics may not be a subject many people find consoling, but in this poetic paean to mankind's quest to make sense of the universe Tim Radford...might convert a few. -- Rob Kingston * Sunday Times *

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Book SynopsisWhat happened before the primordial fire of the Big Bang: a theory about the ultimate origin of the universe.In the beginning was the Big Bang: an unimaginably hot fire almost fourteen billion years ago in which the first elements were forged. The physical theory of the hot nascent universe—the Big Bang—was one of the most consequential developments in twentieth-century science. And yet it leaves many questions unanswered: Why is the universe so big? Why is it so old? What is the origin of structure in the cosmos? In An Infinity of Worlds, physicist Will Kinney explains a more recent theory that may hold the answers to these questions and even explain the ultimate origins of the universe: cosmic inflation, before the primordial fire of the Big Bang.Kinney argues that cosmic inflation is a transformational idea in cosmology, changing our picture of the basic structure of the cosmos and raising unavoidable questions about what we mean by a scientific theory. He explains that inflation is a remarkable unification of inner space and outer space, in which the physics of the very large (the cosmos) meets the physics of the very small (elementary particles and fields), closing in a full circle at the first moment of time. With quantum uncertainty its fundamental feature, this new picture of cosmic origins introduces the possibility that the origin of the universe was of a quantum nature. Kinney considers the consequences of eternal cosmic inflation. Can we come to terms with the possibility that our entire observable universe is one of infinitely many, forever hidden from our view?

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Book SynopsisSidney Coleman (19372007) earned his doctorate at Caltech under Murray Gell-Mann. Before completing his thesis, he was hired by Harvard and remained there his entire career. A celebrated particle theorist, he is perhaps best known for his brilliant lectures, given at Harvard and in a series of summer school courses at Erice, Sicily. Three times in the 1960s he taught a graduate course on Special and General Relativity; this book is based on lecture notes taken by three of his students and compiled by the Editors.Trade Review'Sidney Coleman was one of the deepest thinkers and clearest teachers of modern physics. His Lectures on Relativity are a delight: brimming with insights, they invite us to survey Einstein's greatest scientific legacy with a modern theorist's toolkit.' David Kaiser, Professor of Physics and the History of Science, Massachusetts Institute of Technology'One important lesson my esteemed mentor, Sidney Coleman, imparted to me was that if one were to claim that one understood something, one should mean it. Coleman is the undisputed master of clear understanding. Apparently, many theoretical physicists never got the memo. I hope that the reader of this, and other, Coleman books will eventually get the message by osmosis.' A. Zee, Theoretical Physicist at University of California, Santa Barbara and the author of several books on physics, including Einstein Gravity in a Nutshell'It is a pleasure to read Sidney Coleman's Lectures on Relativity, characterized as one would expect by exceptional clarity and insight. They are surprisingly modern, to boot, including discussions of black holes and cosmology. Any fan of relativity would benefit from reading them.' Sean M. Carroll, California Institute of Technology'In Sidney Coleman's Lectures on Relativity, we get the benefit of Sidney's questions. There are hundreds of question marks here, some leading the reader to the next topic and some highlighting confusing subtleties. It is not the Socratic method exactly because most of the questions are addressed to the smartest person in the room – Sidney himself. But his supremely logical answers lead the reader through this important subject.' Howard Georgi, Mallinckrodt Professor of Physics, Harvard UniversityTable of ContentsPreface. Part I. Special Relativity: 1. The geometry of special relativity; 2. Relativistic mechanics; 3. Relativistic electrodynamics. Part II. General Relativity: 4. The principle of equivalence; 5. Differential geometry; 6. Gravity; 7. The Schwarzschild solution; 8. Conservation and cosmology; Afterword; Appendix A – Compendium of formulas; Appendix B – Final exams. Index.

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Book SynopsisFrom the same author as the popular first edition, the second edition of this trusted, accessible physics textbook breaks down content into manageable chunks to help students with the transition from GCSE to A Level study. It has been fully revised and updated for the new A Level specifications for first teaching from September 2015, and is suitable for AQA, OCR, WJEC and Edexcel. The textbook provides plenty of examples and practice questions for consolidation of learning. Additional sections in the textbook provide help with revision and exam technique, practical skills and maths skills.

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Book SynopsisProvides the mathematical methods that aspiring scientists and engineers are likely to encounter as students and beginning researchers. This book also provides mathematical relations and their proofs essential to the study of physics and related fields. It focuses on problem-solving skills and active learning, offering numerous chapter problems.Trade Review"...a thorough handbook about mathematics that is useful in physics."--MAA.org "This volume is a great collection of essential mathematical tools and techniques used to solve problems in physics, very useful to any student of physics or research professional in the field. It is concentrated to problem-solving art and offers a large amount of problems and exercises."--Zentralblatt MATH 1239Table of Contents1. Mathematical Preliminaries 2. Determinants and Matrices 3. Vector Analysis 4. Tensors and Differential Forms 5. Vector Spaces 6. Eigenvalue Problems 7. Ordinary Differential Equations 8. Partial Differential Equations 9. Green's Functions 10. Complex Variable Theory 11. Further Topics in Analysis 12. Gamma Function 13. Bessel Functions 14. Legendre Functions 15. Angular Momentum 16. Group Theory 17. More Special Functions 18. Fourier Series 19. Integral Transforms 20. Periodic Systems 21. Integral Equations 22. Mathieu Functions 23. Calculus of Variations 24. Probability and Statistics

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Book SynopsisDon''t You Have Time to Think? collects the witty, eccentric and moving letters letters of Nobel Prize-winning physicist Richard P. Feynman. Richard Feynman was no ordinary genius. Brilliant, free-spirited and irreverent, he upset those in authority, gave captivating lectures, wrote equations on napkins in strip joints and touched countless lives everywhere. He also wrote hundreds of letters to friends, family, critics, colleagues and devoted fans around the world. Now these letters have been brought together for the first time. From down-to-earth advice to eager students to discussions of time travel and the atom bomb, and from blunt rebuttals to journalists to poignant exchanges with his first wife as she lay dying, they will introduce you to a unique person whose wisdom and lust for life inspired all those who came into his orbit. ''Nobel-winning physicist, expert bongo-player, safe-cracker and all-round genius, Feynman was, as thi

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Book SynopsisCan we do better in space than we ve done here on Earth?

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Book SynopsisPublisher's Note: Products purchased from Third Party sellers are not guaranteed by the publisher for quality, authenticity, or access to any online entitlements included with the product.Understanding PHYSICS just got a whole lot EASIER!Stumped trying to make sense of physics? Here's your solution. Physics Demystified, Second Edition helps you grasp the essential concepts with ease.Written in a step-by-step format, this practical guide begins by covering classical physics, including mass, force, motion, momentum, work, energy, and power, as well as the temperature and states of matter. Electricity, magnetism, and electronics are discussed as are waves, particles, space, and time. Detailed examples, concise explanations, and worked problems make it easy to understand the material, and end-of-chapter quizzes and a final exam help reinforce learning.It's a no-brainer! You'll learn about:Table of ContentsAcknowledgments; How to Use This Book; Part I: Classical Physics; Chapter 0. Review of Scientific Notation; Chapter 1. Units and Constants; Chapter 2. Mass, Force, and Motion; Chapter 3. Momentum, Work, Energy, and Power; Chapter 4. Particles of Matter; Chapter 5. Basic States of Matter; Chapter 6. Temperature, Pressure, and Changes of State;Test: Part I; Part II: Electricity, Magnetism, and Electronics; Chapter 7. Direct Current; Chapter 8. Alternating Current; Chapter 9. Magnetism; Chapter 10. More About Alternating Current; Chapter 11. Semiconductors; Test: Part II; Part III: Waves, Particles, Space, and Time; Chapter 12. Wave Phenomena; Chapter 13. Forms of Radiation; Chapter 14. Optics; Chapter 15. Relativity Theory; Test: Part III; Final Exam; Answers to Quizzes, Tests, and Final Exam; Suggested Additional Reading; Index

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Book SynopsisCircuits overloaded from electric circuit analysis? Many universities require that students pursuing a degree in electrical or computer engineering take an Electric Circuit Analysis course to determine who will "make the cut" and continue in the degree program.Table of ContentsIntroduction 1 About This Book 1 Conventions Used in This Book 1 What You’re Not to Read 2 Foolish Assumptions 2 How This Book is Organized 2 Part I: Getting Started with Circuit Analysis 2 Part II: Applying Analytical Methods for Complex Circuits 3 Part III: Understanding Circuits with Transistors and Operational Amplifiers 3 Part IV: Applying Time-Varying Signals to First- and Second-Order Circuits 3 Part V: Advanced Techniques and Applications in Circuit Analysis 3 Part VI: The Part of Tens 3 Icons Used in This Book 4 Where to Go from Here 4 Part I: Getting Started with Circuit Analysis 5 Chapter 1: Introducing Circuit Analysis 7 Getting Started with Current and Voltage 7 Going with the flow with current 8 Recognizing potential differences with voltage 9 Staying grounded with zero voltage 9 Getting some direction with the passive sign convention 10 Beginning with the Basic Laws 11 Surveying the Analytical Methods for More-Complex Circuits 11 Introducing Transistors and Operational Amplifiers 12 Dealing with Time-Varying Signals, Capacitors, and Inductors 13 Avoiding Calculus with Advanced Techniques 13 Chapter 2: Clarifying Basic Circuit Concepts and Diagrams 15 Looking at Current-Voltage Relationships 15 Absorbing energy with resistors 16 Applying Ohm’s law to resistors 16 Calculating the power dissipated by resistors 18 Offering no resistance: Batteries and short circuits 18 Batteries: Providing power independently 19 Short circuits: No voltage, no power 19 Facing infinite resistance: Ideal current sources and open circuits 20 All or nothing: Combining open and short circuits with ideal switches 20 Mapping It All Out with Schematics 21 Going in circles with loops 22 Getting straight to the point with nodes 24 Chapter 3: Exploring Simple Circuits with Kirchhoff’s Laws 25 Presenting Kirchhoff’s Famous Circuit Laws 25 Kirchhoff’s voltage law (KVL): Conservation of energy 26 Identifying voltage rises and drops 26 Forming a KVL equation 27 Kirchhoff’s current law (KCL): Conservation of charge 29 Tracking incoming and outgoing current 29 Calculating KCL 30 Tackling Circuits with KVL, KCL, and Ohm’s Law 31 Getting batteries and resistors to work together 31 Starting with voltage 32 Bringing in current 32 Combining device equations with KVL 33 Summarizing the results 34 Sharing the same current in series circuits 34 Climbing the ladder with parallel circuits 36 Describing total resistance using conductance 37 Using a shortcut for two resistors in parallel 38 Finding equivalent resistor combinations 38 Combining series and parallel resistors 40 Chapter 4: Simplifying Circuit Analysis with Source Transformation and Division Techniques 41 Equivalent Circuits: Preparing for the Transformation 42 Transforming Sources in Circuits 45 Converting to a parallel circuit with a current source 45 Changing to a series circuit with a voltage source 47 Divvying It Up with the Voltage Divider 49 Getting a voltage divider equation for a series circuit 49 Figuring out voltages for a series circuit with two or more resistors 51 Finding voltages when you have multiple current sources 52 Using the voltage divider technique repeatedly 55 Cutting to the Chase Using the Current Divider Technique 57 Getting a current divider equation for a parallel circuit 57 Figuring out currents for parallel circuits 59 Finding currents when you have multiple voltage sources 60 Using the current divider technique repeatedly 63 Part II: Applying Analytical Methods for Complex Circuits 65 Chapter 5: Giving the Nod to Node-Voltage Analysis 67 Getting Acquainted with Node Voltages and Reference Nodes 67 Testing the Waters with Node Voltage Analysis 69 What goes in must come out: Starting with KCL at the nodes 70 Describing device currents in terms of node voltages with Ohm’s law 70 Putting a system of node voltage equations in matrix form 72 Solving for unknown node voltages 73 Applying the NVA Technique 74 Solving for unknown node voltageswith a current source 74 Dealing with three or more node equations 76 Working with Voltage Sources in Node-Voltage Analysis 80 Chapter 6: Getting in the Loop on Mesh Current Equations 83 Windowpanes: Looking at Meshes and Mesh Currents 83 Relating Device Currents to Mesh Currents 84 Generating the Mesh Current Equations 86 Finding the KVL equations first 87 Ohm’s law: Putting device voltages in terms of mesh currents 87 Substituting the device voltages into the KVL equations 88 Putting mesh current equations into matrix form 89 Solving for unknown currents and voltages 89 Crunching Numbers: Using Meshes to Analyze Circuits 90 Tackling two-mesh circuits 90 Analyzing circuits with three or more meshes 92 Chapter 7: Solving One Problem at a Time Using Superposition 95 Discovering How Superposition Works 95 Making sense of proportionality 96 Applying superposition in circuits 98 Adding the contributions of each independent source 100 Getting Rid of the Sources of Frustration 101 Short circuit: Removing a voltage source 101 Open circuit: Taking out a current source 102 Analyzing Circuits with Two Independent Sources 103 Knowing what to do when the sources are two voltage sources 103 Proceeding when the sources are two current sources 105 Dealing with one voltage source and one current source 107 Solving a Circuit with Three Independent Sources 108 Chapter 8: Applying Thévenin’s and Norton’s Theorems 113 Showing What You Can Do with Thévenin’s and Norton’s Theorems 114 Finding the Norton and Thévenin Equivalents for Complex Source Circuits 115 Applying Thévenin’s theorem 117 Finding the Thévenin equivalent of a circuit with a single independent voltage source 117 Applying Norton’s theorem 119 Using source transformation to find Thévenin or Norton 122 A shortcut: Finding Thévenin or Norton equivalents with source transformation 122 Finding the Thévenin equivalent of a circuit with multiple independent sources 122 Finding Thévenin or Norton with superposition 124 Gauging Maximum Power Transfer: A Practical Application of Both Theorems 127 Part III: Understanding Circuits with Transistors and Operational Amplifiers 131 Chapter 9: Dependent Sources and the Transistors That Involve Them 133 Understanding Linear Dependent Sources: Who Controls What 134 Classifying the types of dependent sources 134 Recognizing the relationship between dependent and independent sources 136 Analyzing Circuits with Dependent Sources 136 Applying node-voltage analysis 137 Using source transformation 138 Using the Thévenin technique 140 Describing a JFET Transistor with a Dependent Source 142 Examining the Three Personalities of Bipolar Transistors 145 Making signals louder with the common emitter circuit 146 Amplifying signals with a common base circuit 149 Isolating circuits with the common collector circuit 151 Chapter 10: Letting Operational Amplifiers Do the Tough Math Fast 155 The Ins and Outs of Op-Amp Circuits 155 Discovering how to draw op amps 156 Looking at the ideal op amp and its transfer characteristics 157 Modeling an op amp with a dependent source 158 Examining the essential equations for analyzing ideal op-amp circuits 159 Looking at Op-Amp Circuits 160 Analyzing a noninverting op amp 160 Following the leader with the voltage follower 162 Turning things around with the inverting amplifier 163 Adding it all up with the summer 164 What’s the difference? Using the op-amp subtractor 166 Increasing the Complexity of What You Can Do with Op Amps 168 Analyzing the instrumentation amplifier 168 Implementing mathematical equations electronically 170 Creating systems with op amps 171 Part IV: Applying Time-Varying Signals to First- and Second-Order Circuits 173 Chapter 11: Making Waves with Funky Functions 175 Spiking It Up with the Lean, Mean Impulse Function 176 Changing the strength of the impulse 178 Delaying an impulse 178 Evaluating impulse functions with integrals 179 Stepping It Up with a Step Function 180 Creating a time-shifted, weighted step function 181 Being out of step with shifted step functions 182 Building a ramp function with a step function 182 Pushing the Limits with the Exponential Function 184 Seeing the Signs with Sinusoidal Functions 186 Giving wavy functions a phase shift 187 Expanding the function and finding Fourier coefficients 189 Connecting sinusoidal functions to exponentials with Euler’s formula 190 Chapter 12: Spicing Up Circuit Analysis with Capacitors and Inductors 193 Storing Electrical Energy with Capacitors 193 Describing a capacitor 194 Charging a capacitor (credit cards not accepted) 195 Relating the current and voltage of a capacitor 195 Finding the power and energy of a capacitor 196 Calculating the total capacitance for parallel and series capacitors 199 Finding the equivalent capacitance of parallel capacitors 199 Finding the equivalent capacitance of capacitors in series 200 Storing Magnetic Energy with Inductors 200 Describing an inductor 201 Finding the energy storage of an attractive inductor 202 Calculating total inductance for series and parallel inductors 203 Finding the equivalent inductance for inductors in series 203 Finding the equivalent inductance for inductors in parallel 204 Calculus: Putting a Cap on Op-Amp Circuits 205 Creating an op-amp integrator 205 Deriving an op-amp differentiator 207 Using Op Amps to Solve Differential Equations Really Fast 208 Chapter 13: Tackling First-Order Circuits 211 Solving First-Order Circuits with Diff EQ 211 Guessing at the solution with the natural exponential function 213 Using the characteristic equation for a first-order equation 214 Analyzing a Series Circuit with a Single Resistor and Capacitor 215 Starting with the simple RC series circuit 215 Finding the zero-input response 217 Finding the zero-state response by focusing on the input source 219 Adding the zero-input and zero-state responses to find the total response 222 Analyzing a Parallel Circuit with a Single Resistor and Inductor 224 Starting with the simple RL parallel circuit 225 Calculating the zero-input response for an RL parallel circuit 226 Calculating the zero-state response for an RL parallel circuit 228 Adding the zero-input and zero-state responses to find the total response 230 Chapter 14: Analyzing Second-Order Circuits 233 Examining Second-Order Differential Equations with Constant Coefficients 233 Guessing at the elementary solutions: The natural exponential function 235 From calculus to algebra: Using the characteristic equation 236 Analyzing an RLC Series Circuit 236 Setting up a typical RLC series circuit 237 Determining the zero-input response 239 Calculating the zero-state response 242 Finishing up with the total response 245 Analyzing an RLC Parallel Circuit Using Duality 246 Setting up a typical RLC parallel circuit 247 Finding the zero-input response 249 Arriving at the zero-state response 250 Getting the total response 251 Part V: Advanced Techniques and Applications in Circuit Analysis 253 Chapter 15: Phasing in Phasors for Wave Functions 255 Taking a More Imaginative Turn with Phasors 256 Finding phasor forms 256 Examining the properties of phasors 258 Using Impedance to Expand Ohm’s Law to Capacitors and Inductors 259 Understanding impedance 260 Looking at phasor diagrams 261 Putting Ohm’s law for capacitors in phasor form 262 Putting Ohm’s law for inductors in phasor form 263 Tackling Circuits with Phasors 263 Using divider techniques in phasor form 264 Adding phasor outputs with superposition 266 Simplifying phasor analysis with Thévenin and Norton 268 Getting the nod for nodal analysis 270 Using mesh-current analysis with phasors 271 Chapter 16: Predicting Circuit Behavior with Laplace Transform Techniques 273 Getting Acquainted with the Laplace Transform and Key Transform Pairs 273 Getting Your Time Back with the Inverse Laplace Transform 276 Rewriting the transform with partial fraction expansion 276 Expanding Laplace transforms with complex poles 278 Dealing with transforms with multiple poles 280 Understanding Poles and Zeros of F(s) 282 Predicting the Circuit Response with Laplace Methods 285 Working out a first-order RC circuit 286 Working out a first-order RL circuit 290 Working out an RLC circuit 292 Chapter 17: Implementing Laplace Techniques for Circuit Analysis 295 Starting Easy with Basic Constraints 296 Connection constraints in the s-domain 296 Device constraints in the s-domain 297 Independent and dependent sources 297 Passive elements: Resistors, capacitors, and inductors 297 Op-amp devices 299 Impedance and admittance 299 Seeing How Basic Circuit Analysis Works in the s-Domain 300 Applying voltage division with series circuits 300 Turning to current division for parallel circuits 302 Conducting Complex Circuit Analysis in the s-Domain 303 Using node-voltage analysis 303 Using mesh-current analysis 304 Using superposition and proportionality 305 Using the Thévenin and Norton equivalents 309 Chapter 18: Focusing on the Frequency Responses 313 Describing the Frequency Response and Classy Filters 314 Low-pass filter 315 High-pass filter 316 Band-pass filters 316 Band-reject filters 317 Plotting Something: Showing Frequency Response à la Bode 318 Looking at a basic Bode plot 319 Poles, zeros, and scale factors: Picturing Bode plots from transfer functions 320 Turning the Corner: Making Low-Pass and High-Pass Filters with RC Circuits 325 First-order RC low-pass filter (LPF) 325 First-order RC high-pass filter (HPF) 326 Creating Band-Pass and Band-Reject Filters with RLC or RC Circuits 327 Getting serious with RLC series circuits 327 RLC series band-pass filter (BPF) 327 RLC series band-reject filter (BRF) 330 Climbing the ladder with RLC parallel circuits 330 RC only: Getting a pass with a band-pass and band-reject filter 332 Part VI: The Part of Tens 335 Chapter 19: Ten Practical Applications for Circuits 337 Potentiometers 337 Homemade Capacitors: Leyden Jars 338 Digital-to-Analog Conversion Using Op Amps 338 Two-Speaker Systems 338 Interface Techniques Using Resistors 338 Interface Techniques Using Op Amps 339 The Wheatstone Bridge 339 Accelerometers 339 Electronic Stud Finders 340 555 Timer Circuits 340 Chapter 20: Ten Technologies Affecting Circuits 341 Smartphone Touchscreens 341 Nanotechnology 341 Carbon Nanotubes 342 Microelectromechanical Systems 342 Supercapacitors 343 The Memristor 343 Superconducting Digital Electronics 343 Wide Bandgap Semiconductors 343 Flexible Electronics 344 Microelectronic Chips that Pair Up with Biological Cells 344 Index 345

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Book SynopsisA Sunday Times Book of the Year From the author of the international bestseller How to Teach Quantum Physics to Your Dog Your humble alarm clock, digital cameras, the smell of coffee, the glow of a grill, fibre broadband, smoke detectors… all hold secrets about quantum physics. Beginning at sunrise, Chad Orzel reveals the extraordinary science that underpins the simplest activities we all do every day, from making toast to shopping online. It’s all around us, the wonderful weirdness of quantum – you just have to know where to look.Trade Review‘[A] fine example of scientific passion.’ * Sunday Times, Books of the Year *‘Informative and friendly.’ * New York Times *‘Physics is everywhere and in everything, and no one explains physics better than Chad Orzel. This book is a meal for your mind.’ -- John Scalzi, author of The Rough Guide to the Universe‘Orzel is the perfect guide to the world of atoms and photons, demonstrating that even our morning breakfast rituals are not possible without the wonders of modern physics.’ -- James Kakalios, author of The Physics of Superheroes and The Physics of Everyday Things‘As Chad Orzel wonderfully shows in Breakfast with Einstein, a full gamut of our commonplace daily activities – from boiling water [on the stove]…to taking and exchanging photos with our electronic cameras and phones – depends on quantum rules… A must-read for anyone fascinated with how the quantum revolution explains how things work.’ -- Paul Halpern, author of The Quantum Labyrinth

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Book SynopsisThrough lively prose and photos, this revised edition of Uncorked unlocks the door to what champagne is all about.Trade ReviewWinner of the 2005 Best Book in the World on French Wine, Gourmand World Cookbook Awards Winner of the 2004 Award for Best Professional/Scholarly Book in Physics and Astronomy, Association of American Publishers Praise for the previous edition: "[This] jewel-of-a-book makes the perfect companion gift to a bottle of bubbly... Written by a passionate, wine-loving physicist with just the proper level of jargon for non-scientists, the birth, rise and bursting of a Champagne bubble is scrutinized, rhapsodized, diagrammed, photographed and, finally, demystified... Knowing more about a bubble's lowly birth (formed from debris on the side of the glass) and ephemeral rise to fame will only serve to make you love it more."--Claudia Conlon, Wine News Praise for the previous edition: "This book presents the birth, life and death of a champagne bubble with such gusto, good humor and clarity that you will devour its delicious contents in one gulp. Whereas good champagne is to be sipped, this book is not. You will never experience the sensual elegance of champagne in quite the same way again once you have read this entertaining account of its history and 'fizzics.'"--Richard N. Zare, Nature Praise for the previous edition: "A highly entertaining introduction to the science of champagne bubbles... Uncorked is very readable, and Liger-Belair's clear and simple descriptions of the physics are superbly suitable for a general audience. The book is also very aesthetically pleasing, making it an ideal present for wine lovers and bores alike."--Stuart West, Science Praise for the previous edition: "Uncorked is an interesting, enjoyable read for anyone who has gazed too long upon a champagne-filled flute."--Gregory Mone, Popular Science Praise for the previous edition: "Liger-Belair, a physicist inspired to study bubbles by a brainstorm over a beer, delves into a champagne flute with a curiosity as strong as his microscope. The result is a book as informative as it is engaging, boosted by the gorgeous, up-close photos of bubbles in motion."--Tara Q. Thomas, Denver Post Praise for the previous edition: "A delightfully readable little book."--Joanna Simon, Sunday Times--London Praise for the previous edition: "[A] convivial examination of the party season's favorite tipple."--Paul Nettleton, Guardian Praise for the previous edition: "The ultimate guide to the 'fizzics' of sparkling wine."--Deborah Scoblionkov, Philadelphia InquirerTable of ContentsForeword ix 1 Introduction 1 2 The History of Champagne 7 3 The Making of Champagne 19 4 A Flute or a Goblet? 31 5 The Birth of a Bubble 37 6 The Bubble Rises 59 7 The Bubble Bursts 85 8 The Future of Champagne Wines 133 Afterword 143 Glossary 183 Bibliography 185 Acknowledgments 188 Index 189

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Book SynopsisReveals the simple techniques needed to estimate virtually anything and illustrates them using an eclectic array of problems. This title shows how to estimate everything from how closely you can orbit a neutron star without being pulled apart by gravity, to the fuel used to transport your food from the farm to the store.Trade Review"This follow-up to the popular Guesstimation offers more on the joy of mathematical estimation, and inspiration for the budding analyst."--Nature "The books do a wonderful job at helping the reader to master the craft."--Cut the Knot Insights "A delightful volume... I hope to be able to use many of the tricks I learned in the future. I also hope to teach some of them to students. This would make a great secondary textbook in many classes, ranging from quantitative literacy to a science methods class for future educators. A careful study of this book would certainly improve a student's ability to take a complicated question, break it down into solvable parts, and assemble the parts to find an answer. Because this is quite close to what I want my students to do when faced with a difficult problem in pure mathematics as well, I consider this to be a very valuable book indeed."--Dominic Klyve, MAA Reviews "Guesstimation 2.0: Solving Today's Problems on the Back of a Napkin succeeds where most popular science literature so often fails. This is because it provides its readers with a scientific tool they can use immediately in their everyday lives... [Makes] an excellent addition for the casual scientist, job interviewee, or anyone hoping to impress their friends at a party."--Gabriel Thoumi, Mongabay.com "Readers who enjoyed Weinstein's first volume will be pleased with this instalment."--Choice "Guesstimation 2.0 is a book that was made to mediate between fun and useful... Whether or not a fan of numbers, it's always cool to appear smart, therefore Guesstimation 2.0 is an excellent element to add to one's arsenal."--Sarthak Shankar, Organiser "Certainly a good read for any teacher who enjoys numbers and the world around us."--Mark Hughes, Mathematics Teaching in the Middle School "Guesstimation's problems are fun and engaging in character, and the solutions are intuitive and well explained. Each problem and solution stands independently, and is about four pages long, making the book ideal for passing a quick ten minutes, and easy to pick up and put down. If, like me, you like ill-posed questions to have concrete answers then Guesstimation is definitely a good place to hone your estimation skills!"--Fionntan Roukema, Mathematical SpectrumTable of ContentsAcknowledgments xi Preface xiii 1 How to Solve Problems 1 2 General Questions 11 *2.1 Who unrolled the toilet paper? 13 *2.2 Money height 17 *2.3 Blotting out the Sun 19 *2.4 Really extra-large popcorn 21 *2.5 Building volume 25 *2.6 Mass of money 29 *2.7 A baseball in a glass of beer 33 *2.8 Life on the phone 37 *2.9 Money under the bridge 41 *2.10 Monkeys and Shakespeare 45 *2.11 The titans of siren 49 *2.12 Airheads at the movies 53 *2.13 Heavy cars and heavier people 55 *2.14 Peeing in the pool 59 3 Recycling: What Really Matters? 63 *3.1 Water bottles 67 *3.2 99 bottles of beer on the wall ... 71 *3.3 Can the aluminum 75 *3.4 Paper or plastic? 79 *3.5 Paper doesn't grow on trees! 83 *3.6 The rain in Spain ... 87 *3.7 Bottom feeders 91 *3.8 You light up my life! 95 4 The Five Senses 101 *4.1 Don't stare at the Sun 103 *4.2 Men of vision 105 *4.3 Light a single candle 109 *4.4 Oh say can you see? 113 *4.5 Bigger eyes 117 *4.6 They're watching us! 121 *4.7 Beam the energy down, Scotty! 125 *4.8 Oh say can you hear? 131 *4.9 Heavy loads 135 5 Energy and Work 139 *5.1 Power up the stairs 143 *5.2 Power workout 145 *5.3 Water over the dam 149 *5.4 A hard nut to crack 153 *5.5 Mousetrap cars 155 *5.6 Push hard 159 *5.7 Pumping car tires 161 *5.8 Pumping bike tires 165 *5.9 Atomic bombs and confetti 169 6 Energy and Transportation 173 *6.1 Gas-powered humans 177 *6.2 Driving across country 181 *6.3 Keep on trucking 185 *6.4 Keep on biking 189 *6.5 Keep on training 193 *6.6 Keep on flying 197 *6.7 To pee or not to pee 201 *6.8 Solar-powered cars 205 *6.9 Put a doughnut in your tank 209 *6.10 Perk up your car 213 *6.11 Don't slow down 217 *6.12 Throwing tomatoes 219 7 Heavenly Bodies 223 *7.1 Orbiting the Sun 227 *7.2 Flying off the Earth 229 *7.3 The rings of Earth 233 *7.4 It is not in the stars to hold our destiny 237 *7.5 Orbiting a neutron star 241 *7.6 How high can we jump? 245 *7.7 Collapsing Sun 249 *7.8 Splitting the Moon 253 *7.9 Splitting a smaller moon 257 *7.10 Spinning faster and slower 263 *7.11 Shrinking Sun 267 *7.12 Spinning Earth 271 *7.13 The dinosaur killer and the day 273 *7.14 The Yellowstone volcano and the day 277 *7.15 The orbiting Moon 281 *7.16 The shortest day 283 8 Materials 289 *8.1 Stronger than spider silk 291 *8.2 Beanstalk to orbit 295 *8.3 Bolt failure 299 *8.4 Making mountains out of molecules 303 *8.5 Chopping down a tree 307 9 Radiation 311 *9.1 Nuclear neutrinos 315 *9.2 Neutrinos and you 319 *9.3 Solar neutrinos 323 *9.4 Supernovas can be dangerous 327 *9.5 Reviving ancient bacteria 331 *9.6 Decaying protons 335 *9.7 Journey to the center of the galaxy 337 Appendix A * Dealing with Large Numbers 341 * A.1 Large Numbers 341 * A.2 Precision, Lots of Digits, and Lying 343 * A.3 Numbers and Units 345 Appendix B * Pegs to Hang Things On 347 Bibliography 351 Index 355

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Book SynopsisDespite remarkable advances in astronomy, space research, and related technology since the first edition of this book was published, the philosophy of the prior editions has remained the same throughout. However, because of this progress, there is a need to update the information and present the new findings. In the fourth edition of Astronomy: Principles and Practice, much like the previous editions, the celebrated authors give a comprehensive and systematic treatment to the theories of astronomy.This reference furthers your study of astronomy by presenting the basic software and hardware, providing several straightforward mathematical tools, and discussing some simple physical processes that are either involved in the astronomer''s tools of trade or concerned in the mechanisms associated with astronomical bodies. The first six chapters introduce the simple observations that can be made by the eye as well as discuss how such observations were interpreted by previous civilizatiTrade Review"…The book is well organized and conveniently divided into four sections. … A feature of the text which I found particularly appealing was the almost conversational style in which it is written, … making it riveting reading. Another aspect which was striking was the manner in which the authors very successfully integrated historical and factual information. … the book provides first-year students with a solid basis on which to continue studies in astronomy or physics."-Physical Sciences Educational Reviews, Vol. 7, Issue 1, June 2006 "… the strengths of the old version have been retained … and the book has been brought up to date with, for example, the sections on CCDs and modern telescopes." - Vik Dhillon, Sheffield University, UK "Members will find themselves returning to it again and again for help with those really searching questions. A book worth considering." - Jeffrey Barham, Popular AstronomyTable of ContentsPart 1: Introduction. Part 2: The Celestial Sphere and ElementaryCelestial Mechanics. Part 3: Observational Techniques. Part 4: Experimental Work. Web Sites. Appendices. Bibliography. Answers to Problems. Index.

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Book SynopsisThe maths needed to succeed in A Level Science is harder now than ever before. Suitable for all awarding bodies, this practical handbook addresses all of the maths skills needed for A Level Physics specifications. Worked examples, practice questions, ''remember points'' and ''stretch yourself'' questions give students the key knowledge and then the opportunity to practise and build confidence.

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Book SynopsisAn introductory text book for graduates and advanced undergraduates on group representation theory. It emphasizes group theory's role as the mathematical framework for describing symmetry properties of classical and quantum mechanical systems.Familiarity with basic group concepts and techniques is invaluable in the education of a modern-day physicist. This book emphasizes general features and methods which demonstrate the power of the group-theoretical approach in exposing the systematics of physical systems with associated symmetry.Particular attention is given to pedagogy. In developing the theory, clarity in presenting the main ideas and consequences is given the same priority as comprehensiveness and strict rigor. To preserve the integrity of the mathematics, enough technical information is included in the appendices to make the book almost self-contained.A set of problems and solutions has been published in a separate booklet.Trade Review"This book is written to meet precisely this need of the lack of suitable textbooks on general group-theoretical methods in physics for all serious students of experimental and theoretical physics at the beginning graduate and advanced undergraduate level." (orig./WL) Physics Briefs "This book is well organized and the material is presented in an appealing and easily absorbed style, ... comes closer than any other to being a modern version of Wigner's classic Group Theory and its Application to the Quantum Mechanics of Atomic Spectra." Foundations of Physics "A valuable addition to group theory texts for physicists. It is most appropriate for students who have taken or are taking graduate quantum mechanics, especially if their interests lie in modern field theory." Mathematical Reviews

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Book SynopsisEverything You Need to Know about Mathematics for Science and EngineeringUpdated and expanded with new topics, The Mathematics Companion: Mathematical Methods for Physicists and Engineers, 2nd Edition presents the essential core of mathematical principles needed by scientists and engineers. Starting from the basic concepts of trigonometry, the book covers calculus, differential equations, and vector calculus. A new chapter on applications discusses how we see objects mathematically with the eye, how quantum mechanics works, and more.A Convenient, Student-Friendly Format Rich with Diagrams and Clear ExplanationsThe book presents essential mathematics ideas from basic to advanced level in a way that is useful to both students and practicing professionals. It offers a unique and educational approach that is the signature style of the author's companion books. The author explains mathematical concepts clearly, concisely, and visually, ilTrade Review"The book summarizes basic notions of mathematical methods for physicists and engineers in a schematic way. It is aimed both at science students and physicists who need a quick handy reference when they have to solve a specific mathematical problem."—Applications of Mathematics, 60, 2015Praise for the First Edition:"This is an interesting and useful little book … .it is very well done, and everything that might be expected to be there is there … . The book might also be invaluable for those undergraduate students in Mathematics, Science, or Engineering, who need to undertake first- and second-year courses in Mathematics, and it will serve those who wish to have quick access to all those formulae that seem to be so readily forgotten."—Australian Physics, March/April 2006Table of ContentsPart 1 Essential Mathematics: Basic mathematics. Differentiation. Integration. Exponentials and logarithms. Hyperbolic functions. Infinite series. Part 2 Advance Mathematics: Ordinary differential equations. Laplace transforms. Vector analysis. Partial derivatives. Multiple integrals. Fourier series. Special functions. Partial differential equations.

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