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2: Electrodynamic Laws, Approximations and Relations

Last updated

Mar 22, 2021
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- 1.6: Transfer Relations and Continuum Dynamics of Linear Systems
- 2.1: Definitions

James R. Melcher
Massachusetts Institute of Technology via MIT OpenCourseWare

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2.1: Definitions
2.2: Differential Laws of Electrodynamics
2.3: Quasistatic Laws and the Time-Rate Expansion
2.4: Continuum Coordinates and the Convective Derivative
2.5: Transformations between Inertial Frames
2.6: Integral Theorems
Several integral theorems prove useful, not only in the description of electromagnetic fields but also in dealing with continuum mechanics and electromechanics. These theorems will be stated here without proof.
2.7: Jump Conditions
2.8: Lumped Parameter Electroquasistatic Elements
2.9: Lumped Parameter Magnetoquasistatic Elements
2.10: Conservation of Electroquasistatic Energy
2.11: Conservation of Magnetoquasistatic Energy
2.12: Complex Amplitudes; Fourier Amplitudes and Fourier Transforms
2.13: Flux-Potential Transfer Relations for Laplacian Fields
2.14: Energy Conservation and Quasistatic Transfer Relations
2.15: Solenoidal Fields, Vector Potential and Stream Function
2.16: Vector Potential Transfer Relations for Certain Laplacian Fields
2.17: Methodology
2.18: Quasistatic Integral Laws
2.19: Polarization of Moving Media
2.20: Magnetization of Moving Media
2.21: Problems

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