Prof. Uzdensky leads the Theoretical Plasma Astrophysics Group at CU. His current research focuses on Extreme Plasma Astrophysics  studying collective plasma processes in astrophysicallyrelevant physical regimes where relativistic, radiation, and QED effects become important. This new frontier pioneered by D. Uzdensky is important for understanding plasma phenomena around neutron stars and accreting black holes. In particular, Prof. Uzdensky studies the dynamics, nonthermal particle acceleration, and radiation signatures of relativistic collisionless magnetic reconnection and turbulence, including how they are affected by radiation reaction, and their applications to pulsar and magnetar magnetospheres, pulsar wind nebulae, blackhole accretion flows, coronae, and jets, and gammaray bursts. He also studies plasmoiddominated regime of magnetic reconnection in large systems and its onset in both resistive MHD and collisionless plasmas.
keywords
theoretical plasma physics, space physics, solar physics, plasma astrophysics, highenergy astrophysics, magnetohydrodynamics, magnetic reconnection, turbulence, relativistic plasmas, radiation processes in plasmas
ASTR 5150  Introductory Plasma Physics
Primary Instructor

Spring 2018 / Spring 2020
Includes basic phenomena of ionized gases, static and dynamic shielding, linear waves, instabilities, particles in fields, collisional phenomena, fluid equations, collisionless Boltzman equations, Landau damping, scattering and absorption of radiation in plasmas, elementary nonlinear processes, WKB wave theory, controlled thermonuclear fusion concepts, astrophysical applications and experimental plasma physics (laboratory). Same as PHYS 5150.
ASTR 7160  Intermediate Plasma Physics
Primary Instructor

Spring 2021
Topics vary yearly but include nonlinear effects such as wave coupling, quasilinear relaxation, particle trapping, nonlinear Landau damping, collisionless shocks, solutions; nonneutral plasmas; kinetic theory of waves in a magnetized plasma; anisotropy; inhomogeneity; radiation ponderomotive force, parametric instabilities, stimulated scattering; plasma optics; kinetic theory and fluctuation phenomena. Recommended prerequisite: PHYS 5150. Same as PHYS 7160.
MATH 5030  Intermediate Mathematical Physics 1
Primary Instructor

Fall 2018
Surveys classical mathematical physics, starting with complex variable theory and finite dimensional vector spaces. Discusses topics in ordinary and partial differential equations, the special functions, boundary value problems, potential theory, and Fourier analysis. Department enforced prerequisite: MATH 4001. Instructor consent required for undergraduates. Same as PHYS 5030.
PHYS 1110  General Physics 1
Primary Instructor

Fall 2019
Three lect., one rec. per week, plus three evening exams in the fall and spring semesters. First semester of threesemester sequence for science and engineering students. Covers kinematics, dynamics, momentum of particles and rigid bodies, work and energy, gravitation, simple harmonic motion and introduction to thermodynamics. Degree credit not granted for this course and PHYS 1115.
PHYS 3210  Classical Mechanics and Mathematical Methods 2
Primary Instructor

Fall 2020
Lagrangian and Hamiltonian treatment of theoretical mechanics, including coupled oscillations, waves in continuous media, central force motion, rigid body motion and fluid dynamics. The calculus of variations, linear algebra, tensor algebra, vector calculus, and partial differential equations will be introduced in the context of the mechanics.
PHYS 5030  Intermediate Mathematical Physics 1
Primary Instructor

Fall 2018
This course and its continuation, PHYS 5040, form a survey of classical mathematical physics. Studies complex variable theory and finite vector spaces, and includes topics in ordinary and partial differential equations, boundary value problems, potential theory, and Fourier analysis. Same as MATH 5030.
PHYS 5150  Introductory Plasma Physics
Primary Instructor

Spring 2018 / Spring 2020
Includes basic phenomena of ionized gases, static and dynamic shielding, linear waves, instabilities, particles in fields, collisional phenomena, fluid equations, collisionless Boltzman equations, Landau damping, scattering and absorption of radiation in plasmas, elementary nonlinear processes, WKB wave theory, controlled thermonuclear fusion concepts, astrophysical applications and experimental plasma physics (laboratory). Department enforced prerequisite: PHYS 3310. Instructor consent required for undergraduates. Same as ASTR 5150.
PHYS 7160  Intermediate Plasma Physics
Primary Instructor

Spring 2019 / Spring 2021
Continuation of PHYS 5150. Topics vary yearly but include nonlinear effects such as wave coupling, quasilinear relaxation, particle trapping, nonlinear Landau damping, collisionless shocks, solutions; nonneutral plasmas; kinetic theory of waves in a magnetized plasma; anisotropy; inhomogeneity; radiation ponderomotive force, parametric instabilities, stimulated scattering; plasma optics; kinetic theory and fluctuation phenomena. Recommended prerequisite: PHYS 5150. Same as ASTR 7160.