Proceedings of the Royal Society of London A Mathematical and Physical Sciences · 1948 · 73 citations · 7 references
Natural SciencesPhysicsElectromagneticsElectromagnetismTheoretical PhysicsElectromagnetic WavesMaxwell's EquationsRelativistic MechanicsRelativistic PhysicsScattering ProcessesScattering TheoryClassical Scattering TheoryClassical TheoryElectromagnetic Field TheoryElectron ScatteringProton ScatteringRelativistic Collision TheoryRelativistic Dynamics Of ParticlesRelativistic Scattering Theory
Abstract A set of classical relativistic equations of motion of an electron in an electromagnetic field is postulated. These equations are free from ‘run-away’ solutions, and give the same results as the Maxwell-Lorentz theory for non-relativistic motions when the external electromagnetic field does not vary too rapidly. For the scattering of light by an electron, the scattering crosssection is independent of the frequency and is a universal constant. This brings out a point of difference from the Lorentz-Dirac equations according to which the scattering cross-section varies inversely as the square of the frequency of the incident light, for large frequencies. For the motion of an electron towards a fixed proton, the equations allow a collision, unlike the Lorentz-Dirac equations according to which the electron is brought to rest before it reaches the proton.
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Is a Moving Mass Retarded by the Reaction of its own Radiation?
Leigh Page · Physical Review · 1918 · 53 citations