Berkeley Physics Course: Quantum physics, by E. H. Wichmann, Volumes 1-5

alpha-particle amplitude angular momentum approximation assume average barrier beam binding energy Bohr Broglie wave Chapter charge collision consider corresponding counter decay defined denote describe diffraction discussion electric dipole electron electrostatic elementary particles emission emitted energy levels excited experiment experimental expression fact field fine structure constant frequency fundamental given hydrogen atom incident intensity interactions ionization isotope kinetic energy Klein-Gordon equation macroscopic magnetic magnitude mass means measurements molecules motion nature neutrons non-relativistic nuclear force nucleus observed optical oscillator photo-cell photon Planck's constant polarized positron potential precise prediction principle probability problem quantity quantum electrodynamics quantum mechanics quantum physics radiation reader region Schrödinger equation Schrödinger theory Schrödinger wave shown in Fig slit solution spectral lines statistical ensemble superposition Suppose temperature term scheme total energy transitions uncertainty relation unit variable vector space velocity wave function wave length wave train zero