The Natural Philosophy of James Clerk MaxwellThis book provides an introductory yet comprehensive account of James Clerk Maxwell's (1831-79) physics and world view. The argument is structured by a focus on the fundamental themes that shaped Maxwell's science: analogy and geometry, models and mechanical explanation, statistical representation and the limitations of dynamical reasoning, and the relation between physical theory and its mathematical description. This approach, which considers his physics as a whole, bridges the disjunction between Maxwell's greatest contributions: the concept of the electromagnetic field and the kinetic theory of gases. Maxwell's work and ideas are viewed historically in terms of his indebtedness to scientific and cultural traditions, of Edinburgh experimental physics, and of Cambridge mathematics and philosophy of science, which nurtured his career. Peter M. Harman is Professor of the History of Science at Lancaster University. He has published primarily on the history of physics and natural philosophy in the 18th and 19th centuries, the period from Newton to Maxwell. His previous books include Energy, Force, and Matter (Cambridge, 1982), The Investigation of Difficult Things (Cambridge, 1992), After Newton: Essays on Natural Philosophy (Variorum, 1993), The Scientific Letters and Papers of James Clerk Maxwell, volume 1 (Cambridge, 1990), volume 2 (Cambridge, 1995). |
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Contents
Formative influences | 13 |
Edinburgh physics and Cambridge mathematics | 37 |
Physical and geometrical analogy | 71 |
Models and mechanisms | 91 |
the electromagnetic theory of light | 98 |
Dynamical and statistical explanation | 113 |
Other editions - View all
The Natural Philosophy of James Clerk Maxwell P. M. Harman,Peter Michael Harman No preview available - 2001 |
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acting action analogy applied argument atoms bodies Cambridge Chapter claims colours concept conclusion considered consistent continued curves described developed direction discussion distance distinction distribution dynamical theory Edinburgh effect elastic electric electromagnetic field electrostatic energy equations established ether experimental experiments explained expression Faraday Faraday's fluid Forbes geometrical heat ideas Illustrations interest knowledge law of thermodynamics lecture letter light limit lines of force magnetic mass material mathematical matter Maxwell Maxwell's mean measurement mechanical medium metaphysics method molecular molecules motion Natural Natural Philosophy Newton's observed optics paper particles Philosophy physical potential presented principle problem produced propagation properties published quantities quaternions reasoning reference relation remarks representation represented result ring rotation Royal scientific second law Society space statistical Stokes suggested supposed surfaces Tait theorem theory of gases Thomson tion Treatise University vector velocity vortices Writing