Spring 2018

The fundamentals of physics presented with emphasis on the structure and beauty of physical laws. Practical component will relate these laws to commonly encountered events. Not available for major credit.

Fundamental laws and principles of physics with emphasis on theapplication of physical principles to the problems ofarchitecture. Lecture, 4 hours; laboratory, 3 hours.

Fundamental laws and principles of physics emphasizing areasrelated to life sciences. Prerequisite for Biological Sciences,Medicine, Dentistry, Pharmacy. Lecture, 4 hrs.; Lab, 3 hrs.

Fundamental laws and principles of physics emphasizing areas related to life sciences. Prerequisite for Biological Sciences, Medicine, Dentistry, and Pharmacy. Lecture, 4 hrs.; Lab, 3 hrs. (Duplicates credit in 105abLg and 125L).

Laboratory component for PHYS 151Lg for transfer students with equivalent lecture credit from another institution. For transfer students immediately after matriculation. Graded CR/NC.

Laboratory component for PHYS 152L for transfer students with equivalent lecture credit from another institution. For transfer students immediately after matriculation. Graded CR/NC.

Gateway to the majors and minors in Physics and Astronomy. Statics and dynamics of particles and rigid bodies, conservation principles, gravitation, simple harmonic oscillators, thermodynamics, heat engines, entropy. Lecture, 3 hours; laboratory, 3 hours.

Electrostatics, magnetostatics, electrical circuits, wave motion, sound waves, electromagnetic waves. Lecture, 4 hours; laboratory, 3 hours.

Geometrical optics, interference, diffraction, special relativity, quantum mechanics, atomic physics, solid state physics. Lecture: 3 hours; Laboratory: 3 hours.

Gateway to the majors and minors in Physics and Astronomy. Introductory treatment intended for well-qualified students. Dynamics of particles and rigid bodies, conservation laws, wave motion, thermodynamics, heat engines, entropy.

Interference and diffraction of waves, special relativity, quantum mechanics, atomic physics, nuclear physics, condensed matter physics, elementary particles.

Mechanics, mechanical vibrations and waves, special relativity. Emphasizes applications in the areas of applied physics and engineering.

Investigation of energy technologies, including development and implementation issues. Topics include the Industrial Revolution, electromagnetic induction, power transmission, combustion engines, fission and fusion. Not available for major credit.

First, second, and third laws; thermodynamic potentials, applications; distribution laws, kinetic theory, transport phenomena, specific heats.

b: Electromagnetic induction; AC circuits; Maxwell's equations.

Geometry of the Universe, special relativity, curved metrics, black holes, equivalence principle, cosmology, Friedman-Robertson-Walker geometry, Einstein's equations. Prerequisite: PHYS 304.

Concepts and techniques of quantum mechanics; free and bound states, the hydrogen atom.

Electric dipole transitions; traveling wave and resonant amplifiers; laser pumping and rate equations; threshold, frequency, and power output of lasers; holography; laser communication systems.

Individual research and readings. Not available for graduate credit. Prerequisite: consent of instructor.

Development of modern experimental techniques, including computer interface with data acquisition hardware and data analysis by software, applied specifically to experiments in modern physics. Emphasis on laboratory work with discussion of theoretical background. Lecture, 2 hours; laboratory, 6 hours.

An original project will be constructed applying computer technology (in either hardware or software) to produce a result useful in the physics classroom or laboratory.

Topics of current research interest in physics and astronomy. Lectures directed to physics graduate students by faculty of the department and by outside speakers. Graded CR/NC.

a: Electrostatics, boundary value problems, multiple expansions, microscopic models of matter, magnetostatics. b: Maxwell's equations, potentials and gauge transformations; electromagnetic waves; wave guides; electromagnetic radiation; special relativity.

Introduction to algorithm development. Integration of ordinary differential equations; chaotic systems; molecular dynamics; Monte Carlo integration and simulations; cellular automata and other complex systems. Recommended preparation: ability to program in C or C++

a: General formulation of quantum mechanics with applications; theory of measurement; exactly solvable problems; angular momentum formalism.

Research leading to the master's degree. Maximum units which may be applied to the degree to be determined by the department. Graded CR/NC.

Credit on acceptance of thesis.

Credit on acceptance of thesis.

Part-time or full-time, practical work experience in the students field of study. The internship must be located at an off-campus facility. Students are individually supervised by faculty. May not be taken until the student has completed at least one semester of enrollment in the graduate program with a cumulative 3.0 GPA.

Computational methods in relativistic quantum field theory: Feynman path integral, covariant perturbation theory, regularization, renormalization group, and non-perturbative techniques. Recommended preparation: PHYS-668. Recommended preparation: PHYS-668.

Course content will vary yearly with current interest. Topics covered may include field theory, many body theory, Green's functions, dispersion theory, and group theory.

Coursework taken on campus at Caltech as part of the Caltech-USC cross-registration program. Graded CR/NC.

Research leading to the doctorate. Maximum units which may be applied to the degree to be determined by the department. Graded CR/NC.

Credit on acceptance of dissertation.

Credit on acceptance of dissertation.

Credit on acceptance of dissertation.

Credit on acceptance of dissertation.