Also the methods of evaluation of statistical data using PC and practical work with measurement devices is involved. Students obtain basic habits connected with the experimental work in physical laboratory. S Foundations of physical measurements 2 This introductory course is devoted to the essentials of measurements of the most important physical quantities. It is especially recommended to those students who are going to study one of the physical curricula - Physical engineering and Nuclear engineering. Also the methods of evaluation of statistical data using PC and practical work with measurement devices is involved.
Students obtain basic habits connected with the experimental work in physical laboratory.
Continuation of ZFM 1. Maxwell's equations in the Minkowski space - time, electromagnetic waves in dielectric media, electromagnetic radiation in the dipole approximation. Basic properties of nuclei, nuclear structure, binding energy, nuclear forces, nuclear models, liquid-drop model, Weizs cker formula, elementary theory of fission, radioactivity, alpha decay, beta decay, gamma ray emission, nuclear reactions, compound nucleus, resonances, direct reactions, fusion reaction, elementary particles, quark theory, hadron structure. W Quantum physics State description, wave function, postulates of quantum mechanics, Born s statistical interpretation, expectation values, Schr dinger equation, Heisenberg uncertainty principle, quantization of angular momentum, solution of simple systems, hydrogen atom, spin, the Pauli exclusion principle, scattering theory. W Subatomic physics 1 Basic properties of nuclei, structure of nuclei, nucleon, quark structure of nuclei, hypernuclei, electric charge, nuclear size, mass defect, binding energy, spin, electromagnetic moments, nonrelativistic and relativistic kinematics of collision processes, conservation laws, cross section, nuclear forces, meson theory, spin and statistics.