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ADDITIONAL CHAPTER OF THEORETICAL PHYSICS Educational-Scientific Institute of Gravitation and Cosmology, PFUR Obligatory course for 5th and 6th course students. Lectures: 48 h., Seminars: 24 h. Aim Principled problems of analytical mechanics, Special Relativity, hydro-gaseous dynamics, microscopic electrodynamics, electrodynamics of continuous media, quantum mechanics. Course inculuded into the state programme in specialization «Gravity, cosmology, and relativistic astrophysics». Theme 1. Analytical mechanics Least action principle. Lagrange equations. Conservation laws. One-dimensional motion. Motion in central field. Kepler's laws. Canonical equations, Maupertuis's principle. Poisson brackets. Hamilton-Jacobi equations. Hamilton-Jacobi method. Theme 2. Relativistic mechanics Speed of light absolutism. Interval. Relativity's principle. Lorentz transformations. Adding of speeds. Simultaneity relativity. Length contraction & time dilatation in a moving reference system. 4-dimensional vectors. 4-velocity. 4-momentum, 4force. Hyperbolic motion. Theme 3. Hydro-gaseous dynamics Perfect fluid. Continuity equation. Euler equation. Viscous fluid. Navier-Stokes equation. Turbulence. Border-line stratum. Gas motion. Sound. Shock waves. Relativistic hydrodynamics. Theme 4. Microscopic electrodynamics General structure of electrodynamics. Electric charges, electromagnetic field. Gauge invariance. Maxwell equations. Lorentz force. Relativistic invariance. Electromagnetic field: Lagrangian, energy-momentum tensor. Charged particle motion in internal field. Electromagnetic waves. Lienard-Wiechert potentials. Mulipole expansion. Moments: dipole, quadrupole. Electromagnetic waves radiation. Larmor formula. Sychrotron radiation. Wave scattering by free charged particles. Electron's classical radius. Self-interaction force, radiation drag. Theme 5. Electrodynamics of continuous media Maxwell equations in medium. Polarization, averaged current density and charge in medium. Boundary conditions. Dielectrics and conductors: electrostatics. BiotSavart law. Ferromagnetism, superconductivity. Quasistationary electromagnetic fields. Induction law in running conductors. Skin effect. Electromagnetic waves in matter. Dispersion. Spread of the waves on the border of two media. Theme 6. Quantum mechanics Quantum mechanics: basic formulations, interpretations. Old quantum theory. Planck formula. Bohr postulates. De Broglie waves. Wave mechanics. KleinGordon equation. Energy and momentum operators. Schrodinger equation. Wave packet. Uncertainty relations. Commutators. Superposition principle. Wave packet reduction in measurement process. Ortonormalization conditions of wave functions. Probabilistic interpretation of wave function. Averaged quantities and matrix elements of operators. Time derivatives of operators and conservation laws. Ehrenfest theorem. Harmonic oscillator. Hydrogen atom. Quasiclassical approximation. Green-Liouville and Wentzel-Kramers-Brillouin methods. Tunneling effects. Gamov formula. Bohr-Sommerfeld formula. Probability current denisty. Relativistic quantum mechanics, quantum field theory. Secondary quantization of bosons and fermions. Bose and Fermi distributions. Dirac equation. Gamma-matrices. Spin. Quantum theory of radiation. Golden rule of quantum mechanics. Intensity of dipole electric radiation. Matrix elements of harmonic oscillator. Oscillator force. Line natural breadth. Einstein-Podolsky-Rosen effect. Bell inequalities. Hidden symmetries. Quantum teleportation. Bibliography Basic 1. L.D. Landau Mechanics (1965) 2. L.D. Landau, E.M. Lifshitz Field theory (1973) 3. L.D. Landau, E.M. Lifshitz Hydrodynamics (1986) 4. L.D. Landau, E.M. Lifshitz Quantum mechanics. Nonrelativistic theory (1963) 5. V.G. Levich Course of theoretical physics (1969) 6. H. Bethe Quantum mechanics (1965) Additional 1. V.G. Levich, Yu.A. Vdovin, V.A. Myamlin Theoretical physics course (1971) 2. H. Bethe Quantum mechanics of one- and two- electron atoms (1960) 3. A.S. Davydov Quantum mechanics (1963) 4. V.V. Belokurov, O.D. Timofeevskaya, O.A. Khrustalev Quantum teleportation – usual miracle (2000) Composer: M.L. Filchenkov, PhD, Ass. Professor of ESIGC PFUR