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9780813529080

Physics, the Human Adventure

by ;
  • ISBN13:

    9780813529080

  • ISBN10:

    0813529085

  • Edition: 3rd
  • Format: Paperback
  • Copyright: 2001-03-01
  • Publisher: Rutgers Univ Pr

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Looking to rent a book? Rent Physics, the Human Adventure [ISBN: 9780813529080] for the semester, quarter, and short term or search our site for other textbooks by Holton, Gerald; Brush, Stephen G.. Renting a textbook can save you up to 90% from the cost of buying.

Summary

Physics, the Human Adventure is the third edition of the classic text Introduction to Concepts and Theories in Physical Science. Authored by Gerald Holton, the text was a landmark in science education. It was the first modern textbook in physics (or in any other science) to make full and effective use of the history and philosophy of science in presenting for both the general and the science-oriented student an account of the nature of physical science. A second edition, prepared by Stephen G. Brush, brought the book up to date by increasing the coverage of topics in modern physics and by taking account of recent scholarly research in the history of science.

In the new book Physics, The Human Adventure, each of the chapters has been reworked to further clarify the physics concepts and to incorporate recent physical advances and research. The book shows the unifying power of science by bringing in connections to chemistry, astronomy, and geoscience. In short, the aid of the new edition is to teach good physics while presenting physical science as a human adven

Author Biography

Gerald Holton is Mallinckrodt Professor of Physics and History of Science, Emeritus, Harvard University Stephen G. Brush is Distinguished University Professor of the History of Science, University of Maryland, College Park

Table of Contents

Preface xiii
PART A The Origins of Scientific Cosmology
The Astronomy of Ancient Greece
3(14)
The Motions of Stars, Suns, and Planets
3(2)
Plato's Problem
5(1)
The Aristotelian System
6(2)
How Big Is the Earth?
8(2)
The Heliocentric Theory
10(1)
Modified Geocentric Theories
11(3)
The Success of the Ptolemaic System
14(3)
Copernicus' Heliocentric Theory
17(10)
Europe Reborn
17(1)
The Copernican System
17(5)
Bracing the System
22(1)
The Opposition to Copernicus's Theory
23(2)
Historic Consequences
25(2)
On the Nature of Scientific Theory
27(13)
The Purpose of Theories
27(3)
The Problem of Change: Atomism
30(1)
Theories of Vision
31(4)
Criteria for a Good Theory in Physical Science
35(5)
Kepler's Laws
40(10)
The Life of Johannes Kepler
40(1)
Kepler's First Law
41(2)
Kepler's Second Law
43(2)
Kepler's Third Law
45(1)
Kepler's Theory of Vision
46(1)
The New Concept of Physical Law
47(3)
Galileo and the New Astronomy
50(13)
The Life of Galileo
50(2)
The Telescopic Evidences for the Copernican System
52(2)
Toward a Physical Basis for the Heliocentric System
54(4)
Science and Freedom
58(5)
PART B The Study of Motion
Mathematics and the Description of Motion
63(14)
Rene Descartes
63(2)
Constant Velocity
65(2)
The Concept of Average Speed
67(1)
Instantaneous Speed
68(2)
Acceleration
70(2)
Oresme's Graphical Proof of the Mean-speed Theorem
72(1)
Equations of Motion for Constant Acceleration
73(4)
Galileo and the Kinematics of Free Fall
77(11)
Introduction
77(1)
Aristotelian Physics
78(2)
Galileo's Two New Sciences
80(3)
Galileo's Study of Accelerated Motion
83(5)
Projectile Motion
88(15)
Projectile with Initial Horizontal Motion
88(3)
Introduction to Vectors
91(2)
The General Case of Projectile Motion
93(3)
Applications of the Law of Projectile Motion
96(1)
Galileo's Conclusions
97(2)
Summary
99(4)
PART C Newton's Laws and His System of the World
Newton's Laws of Motion
103(20)
Science in the Seventeenth Century
103(1)
A Short Sketch of Newton's Life
104(1)
Newton's Principia
105(3)
Newton's First Law of Motion
108(1)
Newton's Second Law of Motion
109(2)
Standard of Mass
111(1)
Weight
112(2)
The Equal-Arm Balance
114(1)
Inertial and Gravitational Mass
115(1)
Examples and Applications of Newton's Second Law of Motion
116(2)
Newton's Third Law of Motion
118(1)
Examples and Applications of Newton's Third Law
119(4)
Rotational Motion
123(8)
Kinematics of Uniform Circular Motion
123(2)
Centripetal Acceleration
125(2)
Derivation of the Formula for Centripetal Acceleration and Force
127(1)
The Earth's Centripetal Acceleration and Absolute Distances in the Solar System
128(3)
Newton's Law of Universal Gravitation
131(26)
Derivation of the Law of Universal Gravitation
131(4)
Gravitation Planets and Kepler's Third Law
135(1)
The Cavendish Experiment: The Constant of Gravitation
136(2)
The Masses of the Earth, Sun, and Planets
138(1)
Some Influences on Newton's Work
139(1)
Some Consequences of the Law of Universal Gravitation
140(4)
The Discovery of New Planets Using Newton's Theory of Gravity
144(2)
Bode's Law: An Apparent Regularity in the Positions of the Planets
146(3)
Gravity and the Galaxies
149(2)
``I Do Not Feign Hypotheses''
151(2)
Newton's Place in Modern Science
153(4)
PART D Structure and Method in Physical Science
On the Nature of Concepts
157(13)
Introduction: The Search for Constancies in Change
157(1)
Science and Nonscience
158(1)
The Lack of a Single Method
159(2)
Physical Concepts: Measurement and Definition
161(2)
Physically Meaningless Concepts and Statements
163(1)
Primary and Secondary Qualities
164(1)
Mathematical Law and Abstraction
165(2)
Explanation
167(3)
On the Duality and Growth of Science
170(17)
The Free License of Creativity
170(1)
``Private'' Science and ``Public'' Science
171(1)
The Natural Selection of Physical Concepts
172(2)
Motivation
174(2)
Objectivity
176(1)
Fact and Interpretation
177(1)
How Science Grows
178(2)
Consequences of the Model
180(7)
On the Discovery of Laws
187(16)
Opinions on Scientific Procedure
187(4)
A Sequence of Elements in Formulations of Laws
191(4)
The Limitations of Physical Law
195(2)
The Content of Science: Summary
197(6)
PART E The Laws of Conservation
The Law of Conservation of Mass
203(6)
Prelude to the Conservation Law
203(1)
Steps Toward a Formulation
203(1)
Lavoisier's Experimental Proof
204(2)
Is Mass Really Conserved?
206(3)
The Law of Conservation of Momentum
209(10)
Introduction
209(1)
Definition of Momentum
210(2)
Momentum and Newton's Laws of Motion
212(1)
Examples Involving Collisions
213(2)
Examples Involving Explosions
215(1)
Further Examples
215(1)
Does Light Have Momentum?
216(1)
Angular Momentum
217(2)
The Law of Conservation of Energy
219(32)
Christiaan Huygens and the Kinetic Energy (Vis Viva) Concept
219(3)
Preliminary Questions: The Pile Driver
222(1)
The Concept of Work
223(1)
Various Forms of Energy
224(2)
The Conservation Law: First Form and Applications
226(3)
Extensions of the Conservation Law
229(5)
Historical Background of the Generalized Law of Conservation of Energy: The Nature of Heat
234(5)
Mayer's Discovery of Energy Conservation
239(3)
Joule's Experiments on Energy Conservation
242(3)
General Illustration of the Law of Conservation of Energy
245(2)
Conservation Laws and Symmetry
247(4)
The Law of Dissipation of Energy
251(14)
Newton's Rejection of the ``Newtonian World Machine''
251(2)
The Problem of the Cooling of the Earth
253(3)
The Second Law of Thermodynamics and the Dissipation of Energy
256(3)
Entropy and the Heat Death
259(6)
PART F Origins of the Atomic Theory in Physics and Chemistry
The Physics of Gases
265(10)
The Nature of Gases---Early Concepts
265(2)
Air Pressure
267(3)
The General Gas Law
270(2)
Two Gas Models
272(3)
The Atomic Theory of Chemistry
275(21)
Chemical Elements and Atoms
275(1)
Dalton's Model of Gases
276(2)
Properties of Dalton's Chemical Atom
278(1)
Dalton's Symbols for Representing Atoms
279(1)
The Law of Definite Proportions
280(1)
Dalton's Rule of Simplicity
281(1)
The Early Achievements of Dalton's Theory
282(2)
Gay-Lussac's Law of Combining Volumes of Reacting Gases
284(1)
Avogadro's Model of Gases
285(3)
An Evaluation of Avogadro's Theory
288(1)
Chemistry After Avogadro: The Concept of Valence
289(3)
Molecular Weights
292(4)
The Periodic Table of Elements
296(12)
The Search for Regularity in the List of Elements
296(1)
The Early Periodic Table of Elements
297(4)
Consequences of the Periodic Law
301(2)
The Modern Periodic Table
303(5)
The Kinetic-Molecular Theory of Gases
308(33)
Introduction
308(2)
Some Qualitative Successes of the Kinetic-Molecular Theory
310(1)
Model of a Gas and Assumptions in the Kinetic Theory
311(4)
The Derivation of the Pressure Formula
315(3)
Consequences and Verification of the Kinetic Theory
318(4)
The Distribution of Molecular Velocities
322(5)
Additional Results and Verifications of the Kinetic Theory
327(2)
Specific Heats of Gases
329(4)
The Problem of Irreversibility in the Kinetic Theory: Maxwell's Demon
333(3)
The Recurrence Paradox
336(5)
PART G Light and Electromagnetism
The Wave Theory of Light
341(11)
Therories of Refraction and the Speed of Light
341(3)
The Propagation of Periodic Waves
344(3)
The Wave Theory of Young and Fresnel
347(3)
Color
350(2)
Electrostatics
352(17)
Introduction
352(1)
Electrification by Friction
352(1)
Law of Conservation of Charge
353(1)
A Modern Model for Electrification
353(1)
Insulators and Conductors
354(2)
The Electroscope
356(1)
Coulomb's Law of Electrostatics The Electrostatic Field
357(2)
The Electrostatic Field
359(2)
Lines of Force
361(1)
Electric Potential Difference-- Qualitative Discussion
362(1)
Potential Difference---Quantitative Discussion
363(1)
Uses of the Concept of Potential
364(1)
Electrochemistry
365(1)
Atomicity of Charge
366(3)
Electromagnetism, X-Rays, and Electrons
369(19)
Introduction
369(1)
Currents and Magnets
369(5)
Electromagnetic Waves and Ether
374(3)
Hertz's Experiments
377(2)
Cathode Rays
379(3)
X-rays and the Turn of the Century
382(3)
The ``Discovery of the Electron''
385(3)
The Quantum Theory of Light
388(21)
Continuous Emission Spectra
388(3)
Planck's Empirical Emission Formula
391(1)
The Quantum Hypothesis
392(4)
The Photoelectric Effect
396(2)
Einstein's Photon Theory
398(2)
The Photon-Wave Dilemma
400(2)
Applications of the Photon Concept
402(1)
Quantization in Science
403(6)
PART H The Atom and the Universe in Modern Physics
Radioactivity and the Nuclear Atom
409(18)
Early Research on Radioactivity and Isotopes
409(4)
Radioactive Half-Life
413(2)
Radioactive Series
415(2)
Rutherford's Nuclear Model
417(5)
Moseley's X-Ray Spectra
422(2)
Further Concepts of Nuclear Structure
424(3)
Bohr's Model of the Atom
427(19)
Line Emission Spectra
427(1)
Absorption Line Spectra
428(4)
Balmer's Formula
432(2)
Niels Bohr and the Problem of Atomic Structure
434(1)
Energy Levels in Hydrogen Atoms
435(6)
Further Developments
441(5)
Quantum Mechanics
446(16)
Recasting the Foundations of Physics Once More
446(1)
The Wave Nature of Matter
447(4)
Knowledge and Reality in Quantum Mechanics
451(5)
Systems of Identical Particles
456(6)
Einstein's Theory of Relativity
462(25)
Biographical Sketch of Albert Einstein
462(2)
The FitzGerald-Lorentz Contraction
464(3)
Einstein's Formulation (1905)
467(1)
Galilean Transformation Equations
468(2)
The Relativity of Simultaneity
470(2)
The Relativistic (Lorentz) Transformation Equations
472(2)
Consequences and Examples
474(1)
The Equivalence of Mass and Energy
474(3)
Relativistic Quantum Mechanics
477(3)
The General Theory of Relativity
480(7)
The Origin of the Solar System and the Expanding Universe
487(12)
The Nebular Hypothesis
487(2)
Planetesimal and Tidal Theories
489(2)
Revival of Monistic Theories After 1940
491(3)
Nebulae and Galaxies
494(1)
The Expanding Universe
495(1)
Lemaitre's Primeval Atom
496(3)
Construction of the Elements and the Universe
499(18)
Nuclear Physics in the 1930s
499(4)
Formation of the Elements in Stars
503(3)
Fission and the Atomic Bomb
506(3)
Big Bang or Steady State?
509(3)
Discovery of the Cosmic Microwave Radiation
512(1)
Beyond the Big Bang
513(4)
Thematic Elements and Styles in Science
517(38)
The Thematic Elements in Science
517(3)
Themata in the History of Science
520(2)
Styles of Thought in Science and Culture
522(3)
Epilogue
525(6)
APPENDIXES
Appendix I Abbreviations and Symbols
531(4)
Appendix II Metric System Prefixes, Greek Alphabet, Roman Numerals
535(2)
Appendix III Defined Values, Fundamental Constants and Astronomical Data
537(2)
Appendix IV Conversion Factors
539(2)
Appendix V Systems of Units
541(2)
Appendix VI Alphabetic List of the Elements
543(2)
Appendix VII Periodic Table of Elements
545(2)
Appendix VIII Summary of Some Trigonometric Relations
547(4)
Appendix IX Vector Algebra
551(4)
General Bibliography 555(4)
Credits 559(2)
Index 561

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