The research of Dr. Becker and his group is focused on the theoretical analysis and numerical simulations of ultrafast processes in atoms, molecules and nanostructures, which can be observed and controlled using intense laser pulses. Applications can be found in basic and applied research. The study of the response of matter to electromagnetic radiation is closely related to the development of intense laser systems generating ultrashort light pulses. The strengths of these light fields exceed that of the Coulomb field within an atom or molecule while the pulse lengths have decreased below the femtosecond (10^-15 s) barrier and a new research area called attoscience evolved.
atomic, molecular and optical physics, ultrafast intense laser science, attosecond and femtosecond dynamics, coherent control, nanostructures, laser pulse propagation and filamentation, ab-initio numerical simulation, S-matrix theory
PHYS 2210 - Classical Mechanics and Mathematical Methods 1
Spring 2020 / Spring 2022
Theoretical Newtonian mechanics, including position and velocity dependent forces, oscillation, stability, non-inertial frames and gravitation from extended bodies. Ordinary differential equations, vector algebra, curvilinear coordinates, complex numbers, and Fourier series will be introduced in the context of the mechanics.
PHYS 3310 - Principles of Electricity and Magnetism 1
Covers mathematical theory of electricity and magnetism, including electrostatics, magnetostatics, and polarized media, and provides an introduction to electromagnetic fields, waves, and special relativity.
PHYS 3320 - Principles of Electricity and Magnetism 2
Spring 2019 / Fall 2022
Continuation of PHYS 3310. Electromagnetic induction; magnetic energy; microscopic theory of magnetic properties; Ac circuits; Maxwell's Equations; planewaves; waveguides and transmission lines; radiation from electric and magnetic dipoles and from an accelerated charge.
PHYS 4410 - Quantum Mechanics 2
Extends quantum mechanics to include perturbation theory and its applications to atomic fine structure, multi-particle systems, interactions with external forces, the periodic table and dynamical processes including electromagnetic transition rates.
PHYS 7550 - Atomic and Molecular Spectra
Covers theory of atomic structure and spectra, including coupling of angular momenta, tensor operators, energy levels, fine and hyperfine structure, transition probabilities, Zeeman and Stark effects. Molecular spectra: electronic, vibrational, and rotational states. Rotation matrices, symmetric top.