Joseph Gallant

Doing Physics with Scientific Notebook

A Problem Solving Approach

• Broschiertes Buch

Produktbeschreibung

This guide provides step-by-step instructions to guide those using Scientific Notebook (SNB) software to deal with physics problems. Including a CD enabling the reader to have 30-day trial of SNB software, the book contains many examples with detailed explanations of how to use the features of SNB to solve many physics problems. While it follows the traditional undergraduate physics curriculum typically used by textbooks and can therefore be used to supplement any undergraduate physics text, professional physicists and engineers will also find the book useful.

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The goal of this book is to teach undergraduate students how to use Scientific Notebook (SNB) to solve physics problems. SNB software combines word processing and mathematics in standard notation with the power of symbolic computation. As its name implies, SNB can be used as a notebook in which students set up a math or science problem, write and solve equations, and analyze and discuss their results.

Written by a physics teacher with over 20 years experience, this text includes topics that have educational value, fit within the typical physics curriculum, and show the benefits of using SNB.

This easy-to-read text:
Provides step-by-step instructions for using Scientific Notebook (SNB) to solve physics problems
Features examples in almost every section to enhance the reader's understanding of the relevant physics and to provide detailed instructions on using SNB
Follows the traditional physics curriculum, so it can be used to supplement teaching at all levels of undergraduate physics
Includes many problems taken from the author's class notes and research

Aimed at undergraduate physics and engineering students, this text teaches readers how to use SNB to solve some everyday physics problems.

Produktdetails

• Verlag: Wiley & Sons
• Artikelnr. des Verlages: 14566598000
• 1. Auflage
• Seitenzahl: 528
• Erscheinungstermin: 29. Mai 2012
• Englisch
• Abmessung: 252mm x 172mm x 33mm
• Gewicht: 994g
• ISBN-13: 9780470665985
• ISBN-10: 047066598X
• Artikelnr.: 34550740

Autorenporträt

Joe Gallant, Kent State University, USA Joe Gallant is currently a tenured associate professor of physics at Kent State University. He received his Ph.D. in 1996 in theoretical nuclear physics from the University of Massachusetts at Amherst. His primary task is teaching and he taught a number of physics courses at Kent State University from 1993 to 2007 before moving to Hiram College, where his currently responsible for teaching a number of physics courses, including: Principles of Physics I and II; Doing Physics with Scientific Notebook; Modern Physics; Thermal Physics and Electricity and Magnetism. He also carries out original research, and has published three papers where he uses used SNB to do the calculations. His current research involves classical periodic orbits near black holes.

Inhaltsangabe

Preface xv So we're all on the same page... xvii What is science? xviii To
the Student xix To the Teacher xx Contact Information xx Acknowledgments
xxi 1 Introduction to SNB 1 Why SNB? 1 The Basics 2 Physics à la mode: Math
or Text 8 Creating Mathematical Expressions 8 Evaluate and Evaluate
Numerically 11 Scientific Notation 13 Substitution and Endpoint Evaluation
14 Solving Equations 17 Solve Exact 18 Solve Numeric 21 Systems of
Equations 24 The Compute Menu 25 Simplify and Expand 25 Factor 26 Rewrite
and Combine 28 Check Equality 29 Polynomials 31 Power Series 32 Definitions
35 Other Good Stuff 37 Computing In-place 37 Making Assumptions About
Variables 37 Limits 40 A Few Words About Calculus 42 Units 46 Converting
Units 47 User-Defined Units 51 Plotting 52 Plot 2D Rectangular 54 Other
2-Dimensional Plots 55 Plot 3D Rectangular 58 Cylindrical and Spherical
Plots 60 Plotting Data 63 Fitting a Curve to Data 63 Differential Equations
67 Solve ODE Exact and Laplace 68 Solve ODE Numeric 70 Problems 75 2
One-Dimensional Kinematics 83 Constant Acceleration 83 Displacement and
Position 83 Velocity and Acceleration 84 Equations of Motion 86 Signs of
the Times 88 Free Fall 89 Varying Acceleration 91 Displacement, Velocity,
and Acceleration 91 Equations of Motion 93 Gravity and Air Resistance 96
Resisting Air Resistance is Futile 97 Long-Distance Free Fall 99 Problems
102 3 Vectors 105 Components of a Vector 107 Magnitude and Direction 108
Adding Vectors 111 The Component Method 112 The SNB Method 113 The Graphing
Method 115 Unit Vectors 119 Multiplying Vectors 120 Dot Product 121 Cross
Product 122 Problems 125 4 Projectile Motion 127 No Air Resistance 127
Trajectory 132 Time of Flight 134 Maximum Height 135 Linear Air Resistance
137 Trajectory 141 Time of Flight and Range 143 Maximum Height 145 Turn Off
the Air! 146 Turn Down the Air! 147 Quadratic Air Resistance 151
Height-Dependent Air Resistance 152 Problems 154 5 Newton's Laws of Motion
157 Newton's First Law 157 Newton's Second Law for Constant Forces 158
Newton's Second Law for Varying Forces 165 Time-Dependent Forces 165
Velocity-Dependent Forces 167 Position-Dependent Forces 170 Newton's Third
Law 173 Problems 175 6 Conservation Laws 179 Definitions 179 Conservation
of Energy 181 Work 181 The Work-Energy Theorem 185 Potential Energy 186
Mechanical Energy is Conserved 188 A Complete Bookkeeping 191 Conservation
of Momentum 193 Collisions in 1-Dimension 193 Collisions in 2-Dimensions
196 Rockets 199 Deep Space 199 Launch 202 Air Resistance 207 Varying
Gravity and Air Resistance 213 Problems 216 7 Circular Motion 221 Uniform
Circular Motion 222 The Rotating Umbrella 224 Rotational Kinematics 227 The
Compact Disk 229 Newton's Second Law and Circular Motion 233 Uniform
Circular Motion and the 2nd Law 233 Non-Uniform Circular Motion and the 2nd
Law 235 Sliding on a Sphere 236 Problems 248 8 Harmonic Motion 251 Simple
Harmonic Motion, Simply 251 Energy and SHM 254 Not-Quite-as-Simple Harmonic
Motion 255 Energy and SHM, Again 257 Damped Harmonic Motion 259 Underdamped
(ß² 20) 259 Critically Damped (ß² = omega²0) 261 Overdamped (ß² > omega²0)
262 Driven Harmonic Motion 263 Constant Driving Force, no Damping 263
Sinusoidal Driving Force, no Damping 264 Constant Driving Force with
Damping 265 Sinusoidal Driving Force with Damping 267 Small Oscillations
270 Not-so-Simple Harmonic Motion 272 Problems 275 9 Central Forces 279
Equations of Motion 279 Newtonian Gravitation 285 Kepler's Laws 286 The
Effective Potential 292 Two Special Forces 296 The 3-d Harmonic Oscillator
296 The Inverse-Square Force 299 Numerical Stuff 303 Problems 305 10 Fluids
309 Density and Pressure 309 Static Fluids 311 Buoyancy 312 Fluids in
Motion 314 Bernoulli's Equation 316 Applications of Bernoulli's Equation
318 A More Realistic Approach 320 Flow in a Pipe 321 Stokes' Law 330
Problems 331 11 Temperature and Heat 335 Temperature Scales 335 Absolute
Temperature 337 Heat and Work 338 Heat Flow 339 Change in Temperature:
Specific Heat 339 Change in State: Latent Heat 340 Calorimetry 341 Varying
Specific Heat 344 The Specific Heat of Solids 345 Problems 353 12 Special
Relativity 359 The Two Postulates 360 The Consequences 361 Time Dilation
363 Length Contraction 364 Addition of Velocities 365 Simultaneity 367 The
Lorentz Transformation 367 Space-Time 370 Relativistic Momentum and Energy
375 Relativistic Collisions 378 Relativistic Dynamics 382 Four-Vectors 387
Problems 392 A Topics in Classical Physics 397 Newton's Nose-Cone Problem
397 Simple Shapes 398 Frusta and Fudges 403 Newton's Minimizer 409 Indented
Tips and the Minimizer 411 The Shape of the Eiffel Tower 414 An Interesting
Classical Orbit 417 Fisher's Crystal 421 Problems 428 B Topics in Modern
Physics 435 The Tale of the Traveling Triplets 435 Trip 1: Constance goes
to Vega 435 Relativistic Interlude: Constant Acceleration 437 Trip 2: Axel
goes to Vega 441 What happens on the way to Vega... 443 Orbits in General
Relativity 445 Angular Momentum 447 Precessing Ellipses and Periodic Orbits
451 Be the Ball: Embedding Diagrams 456 Classical Lifetime of a Hydrogen
Atom 460 Missed It By That Much 460 Can Special Relativity Save the Day?
462 Quantum Mechanical Bound States 465 Infinite Square Well ("Particle in
a Box") 467 Finite Square Well 470 V-shaped Linear Well 477 Problems 483
References and Suggested Reading 491 Index 495