Together with Einstein's theory of relativity quantum mechanics constitutes one of the fundamental pillars of the modern physics. Quantum mechanics describes phenomena on atomic and subatomic lengthscales where particles behave like waves and wave phenomena acquire particle-like attributes. In many instances quantum behavior is manifested on much larger lengthscales and is directly observable in our everyday lives (lasers, semiconductors, superconducting devices, etc.)
This course will provide a rigorous introduction into the world of quantum phenomena. We shall introduce the wavefunction
description of matter, Schrodinger equation governing the behavior of the latter, discuss its interpretation and find its solutions for a number of interesting situations. Understanding the principles of the quantum mechanics involves learning considerable amount of mathematical formalism. Thus, although we shall not need any truly complicated math, working knowledge of the basic calculus, differential equations, and linear algebra will be expected and demanded.
(course page design by M. Franz)
