Atomic Physics Lectures by University of Amsterdam
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Atomic Physics Lectures by University of Amsterdam
Atomic Physics Lectures by University of Amsterdam
This
lecture note covers the following topics: Quantum motion in a central potential
field, Hydrogenic atoms, Angular Momentum, Fine Structure, Magnetic hyperfine
structure, Electric hyperfine structure, Helium-like atoms, Central field
approximation for many-electron atoms, Many-electron wavefunctions, Ground
states of many-electron atoms, The free electromagnetic field, Interaction of
atoms with light and Spontaneous emission .
This note explains atomic nature of matter,
Chart of the nuclides, Mass defect and binding energy, Modes of radioactive
decay, Radioactivity, Neutron interactions, Nuclear fission, Energy release from
fission and interaction of radiation with matter.
This book covers the following topics:
Quantum mechanics of the hydrogen atom , Radiative emission by atoms and
selection rules , Shell model and alkali spectra , Angular momentum coupling ,
Helium and the exchange energy , Spin-orbit coupling and spectral fine structure
, The Zeeman and Stark effects .
This note covers the
following topics: Planck's energy distribution law, Relation between Einstein
coe cients, Waves and particles, Schrodinger equation, Particle in a box, Ground
state of the hydrogen atom, Harmonic oscillator 1-D, Hydrogen atom and central
forces, Interaction of atoms with electromagnetic radiation, Spin of the
electron.
This lecture note is an introduction to atomic
and molecular physics with non-relativistic quantum mechanics and elementary
mathematical physics as prerequisites. Topics covered includes: History of
Atomic and Molecular Physics and basic backgrounds, Atomic Physics and Atomic
Structure, Molecular Physics and Molecular Structure.
This lecture
note covers the following topics: Introduction: atoms and electromagnetic waves,
Failures of classical physics, Wave and Particle duality, Bohr’s atom, The wave
function and Schrodinger equation, Quantum mechanics of some simple systems,
Principles and Postulates of Quantum mechanics, Angular momentum and electron
spin.
Major
topics covered are: Ultracold atom: electron interaction, Laser sub cycle two
dimensional electron momentum mapping using orthogonal two color fields ,
Magneto optical trapping of a diatomic molecule , Coherent magnon optics in a
ferromagnetic spinor Bose-Einstein condensate, Nanophotonic quantum phase switch
with a single atom , Exact equations of motion for natural orbitals of strongly
driven two electron systems.
This lecture note covers the following topics: emission and absorption of
light, spectral lines, Atomic orders of magnitude, Basic structure of atoms, The
Central Field Approximation, Many-electron atoms, Energy levels, Corrections to
the Central Field, Spin-Orbit interaction, The Vector Model, Two-electron atoms,
Symmetry and indistinguishability, Nuclear effects on energy levels, Isotope
effects, Atoms in magnetic fields.
This book covers the following topics: Angular Momentum, Central-Field
Schr¨odinger Equation, Self-Consistent Fields, Atomic Multiplets, Hyperfine
Interaction & Isotope Shift, Radiative Transitions and MBPT for Matrix
Elements.
This note covers the following topics: Spectroscopy, Bohr model of the
atom, The Schrodinger equation of the hydrogen atom, Optical transitions in a
two-level system, Magnetic effects in atoms and the electron spin, Many electron
atoms, Energy levels in molecules; the quantum structure.
This
lecture note covers the following topics: Nuclei , Empirical Mass Formula,
Nuclear Force, Yukawa Theory and Two-nucleon System, Fundamental Description of
Nuclear Force, Fermi Gas and Deformed Nuclei.
The aim of this note is to explain the
quantum theory of the hydrogen atom and other simple atoms and describes the
main features of atomic spectra and the basic principles of laser operation.
This
note covers the following topics: Atomic and nuclear physics describes
fundame===========ntal particles (i.e. electrons, protons, neutrons), their structure,
properties and behavior.