Matter and Motion

Matter and Motion

Matter and Motion

Matter and Motion

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Overview

This slim yet dense volume remains an excellent introduction to Newtonian physics, just as when it was first published in 1877. Beginning with the basics of physical science and working his way steadily up to universal gravitation, Maxwell surveys late-19th-century physics in his clear and concise style. Matter and Motion addresses: . motion . force . the properties of the center of mass of a material system . work and energy . recapitulation . the pendulum and gravity . the equations of motion of a connected system Readers from the science historian to the high school physics student will come away from Matter and Motion with a deeper understanding of the roots of modern physics. Scottish physicist and mathematician JAMES CLERK MAXWELL (1831-1879) is considered by many to be one of the giants of theoretical physics. Albert Einstein once described Maxwell's work as "the most profound and the most fruitful that physics has experienced since the time of Newton." A devoutly religious man and a published poet as well as a renowned scientist, Maxwell's books include Theory of Heat (1870), Treatise on Electricity and Magnetism (1873), and Elementary Treatise on Electricity (1881).

Product Details

ISBN-13: 9781602063082
Publisher: Cosimo Classics
Publication date: 04/01/2007
Pages: 184
Product dimensions: 5.50(w) x 8.50(h) x 0.42(d)

About the Author


James Clerk Maxwell: In His Own Words — And Others
Dover reprinted Maxwell's Treatise on Electricity and Magnetism in 1954, surely one of the first classics of scientific literature over a thousand pages in length to be given new life and accessibility to students and researchers as a result of the paperback revolution of the 1950s. Matter and Motion followed in 1991 and Theory of Heat in 2001.

Some towering figures in science have to speak for themselves. Such is James Clerk Maxwell (1813–1879), the Scottish physicist and mathematician who formulated the basic equations of classical electromagnetic theory.

In the Author's Own Words:
"We may find illustrations of the highest doctrines of science in games and gymnastics, in traveling by land and by water, in storms of the air and of the sea, and wherever there is matter in motion."

"The 2nd law of thermodynamics has the same degree of truth as the statement that if you throw a tumblerful of water into the sea, you cannot get the same tumblerful of water out again." — James Clerk Maxwell

Critical Acclaim for James Clerk Maxwell:
"From a long view of the history of mankind — seen from, say, ten thousand years from now — there can be little doubt that the most significant event of the 19th century will be judged as Maxwell's discovery of the laws of electrodynamics. The American Civil War will pale into provincial insignificance in comparison with this important scientific event of the same decade." — Richard P. Feynman

"Maxwell's equations have had a greater impact on human history than any ten presidents." — Carl Sagan

Table of Contents

Chapter IIntroduction
1Nature of Physical Science1
2Definition of a Material System2
3Definition of Internal and External2
4Definition of Configuration2
5Diagrams3
6A Material Particle3
7Relative Position of two Material Particles4
8Vectors4
9System of Three Particles5
10Addition of Vectors5
11Subtraction of one Vector from another6
12Origin of Vectors6
13Relative Position of Two Systems7
14Three Data for the Comparison of Two Systems7
15On the Idea of Space9
16Error of Descartes9
17On the Idea of Time11
18Absolute Space12
19Statement of the General Maxim of Physical Science13
Chapter IIOn Motion
20Definition of Displacement15
21Diagram of Displacement15
22Relative Displacement16
23Uniform Displacement17
24On Motion18
25On the Continuity of Motion18
26On Constant Velocity19
27On the Measurement of Velocity when Variable19
28Diagram of Velocities20
29Properties of the Diagram of Velocities21
30Meaning of the Phrase "At Rest"22
31On Change of Velocity22
32On Acceleration23
33On the Rate of Acceleration24
34Diagram of Accelerations25
35Acceleration a Relative Term25
Chapter IIIOn Force
36Kinematics and Kinetics26
37Mutual Action between Two Bodies--Stress26
38External Force26
39Different Aspects of the same Phenomenon27
40Newton's Laws of Motion27
41The First Law of Motion28
42On the Equilibrium of Forces30
43Definition of Equal Times31
44The Second Law of Motion32
45Definition of Equal Masses and of Equal Forces32
46Measurement of Mass33
47Numerical Measurement of Force35
48Simultaneous Action of Forces on a Body36
49On Impulse37
50Relation between Force and Mass38
51On Momentum38
52Statement of the Second Law of Motion in Terms of Impulse and Momentum39
53Addition of Forces39
54The Third Law of Motion40
55Action and Reaction are the Partial Aspects of a Stress40
56Attraction and Repulsion41
57The Third Law True of Action at a Distance42
58Newton's Proof not Experimental42
Chapter IVOn the Properties of the Centre of Mass of a Material System
59Definition of a Mass-Vector44
60Centre of Mass of Two Particles44
61Centre of Mass of a System45
62Momentum represented as the Rate of Change of a Mass-Vector45
63Effect of External Forces on the Motion of the Centre of Mass46
64The Motion of the Centre of Mass of a System is not affected by the Mutual Action of the Parts of the System47
65First and Second Laws of Motion48
66Method of treating Systems of Molecules48
67By the Introduction of the Idea of Mass we pass from Point-Vectors, Point Displacements, Velocities, Total Accelerations, and Rates of Acceleration, to Mass-Vectors, Mass Displacements, Momenta, Impulses, and Moving Forces49
68Definition of a Mass-Area50
69Angular Momentum51
70Moment of a Force about a Point51
71Conservation of Angular Momentum52
Chapter VOn Work and Energy
72Definitions54
73Principle of Conservation of Energy54
74General Statement of the Principle of the Conservation of Energy55
75Measurement of Work56
76Potential Energy58
77Kinetic Energy58
78Oblique Forces60
79Kinetic Energy of Two Particles referred to their Centre of Mass61
80Kinetic Energy of a Material System referred to its Centre of Mass62
81Available Kinetic Energy63
82Potential Energy65
83Elasticity65
84Action at a Distance66
85Theory of Potential Energy more complicated than that of Kinetic Energy67
86Application of the Method of Energy to the Calculation of Forces68
87Specification of the [Mode of Action] of Forces69
88Application to a System in Motion70
89Application of the Method of Energy to the Investigation of Real Bodies70
90Variables on which the Energy depends71
91Energy in Terms of the Variables72
92Theory of Heat72
93Heat a Form of Energy73
94Energy Measured as Heat73
95Scientific Work to be done74
96History of the Doctrine of Energy75
97On the Different Forms of Energy76
Chapter VIRecapitulation
98Retrospect of Abstract Dynamics79
99Kinematics79
100Force79
101Stress80
102Relativity of Dynamical Knowledge80
103Relativity of Force81
104Rotation83
105Newton's Determination of the Absolute Velocity of Rotation84
106Foucault's Pendulum86
107Matter and Energy89
108Test of a Material Substance89
109Energy not capable of Identification90
110Absolute Value of the Energy of a Body unknown90
111Latent Energy91
112A Complete Discussion of Energy would include the whole of Physical Science91
Chapter VIIThe Pendulum and Gravity
113On Uniform Motion in a Circle92
114Centrifugal Force93
115Periodic Time93
116On Simple Harmonic Vibrations94
117On the Force acting on the Vibrating Body94
118Isochronous Vibrations95
119Potential Energy of the Vibrating Body96
120The Simple Pendulum96
121A Rigid Pendulum98
122Inversion of the Pendulum100
123Illustration of Kater's Pendulum100
124Determination of the Intensity of Gravity101
125Method of Observation102
126Estimation of Error103
Chapter VIIIUniversal Gravitation
127Newton's Method105
128Kepler's Laws105
129Angular Velocity106
130Motion about the Centre of Mass106
131The Orbit107
132The Hodograph107
133Kepler's Second Law108
134Force on a Planet109
135Interpretation of Kepler's Third Law110
136Law of Gravitation111
137Amended Form of Kepler's Third Law112
138Potential Energy due to Gravitation113
139Kinetic Energy of the System113
140Potential Energy of the System114
141The Moon is a Heavy Body115
142Cavendish's Experiment116
143The Torsion Balance117
144Method of the Experiment118
145Universal Gravitation119
146Cause of Gravitation120
147Application of Newton's Method of Investigation121
148Methods of Molecular Investigations122
149Importance of General and Elementary Properties122
Chapter IXOn the Equations of Motion of a Connected System123
Appendix IThe Relativity of the Forces of Nature137
Appendix IIThe Principle of Least Action145
Index162
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