Experiments involving the fields of electricity, magnetism, heat, optics, and modern physics. Written and oral presentations of results. Instructor consent required. One course.
How theory and experimental techniques from physics can be used to analyze and understand biological structure and function, including chemical, mechanical, electrical, collective, and information-processing aspects. Prerequisites: BIOLOGY 201L and knowledge of statistical physics by taking either PHYSICS 363 or CHEM 311. One course.
Thermal properties of matter treated using the basic concepts of entropy, temperature, chemical potential, partition function, and free energy. Topics include the laws of thermodynamics, ideal gases, thermal radiation and electrical noise, heat engines, Fermi-Dirac and Bose-Einstein distributions, semiconductor statistics, kinetic theory, and phase transformations. Prerequisite: PHYSICS 264L. One course.
Electrostatic fields and potentials, boundary value problems, magnetic induction, energy in electromagnetic fields, Maxwell's equations, introduction to electromagnetic radiation. Prerequisite: MATH 216 or equivalent. One course.
Newtonian mechanics at the intermediate level, Lagrangian mechanics, linear oscillations, chaos, dynamics of continuous media, motion in noninertial reference frames. Prerequisite: MATH 216 or equivalent (may be taken concurrently). One course.
Basic principles of astronomy treated quantitatively. Cosmological models, galaxies, stars, interstellar matter, the solar system, and experimental techniques. MATH 212 and MATH 216 strongly encouraged. Prerequisites: PHYSICS 264 or instructor consent. One course.
Elements of electronics including circuits, transfer functions, solid-state devices, transistor circuits, operational amplifier applications, digital circuits, and computer interfaces. Lectures and laboratory. Prerequisites: PHYSICS 142L, 152L, or 162L, or equivalent; MATH 212 or equivalent. One course.
Third course in sequence for physics and biophysics majors. Introductory treatments of special relativity and quantum mechanics. Topics include: wave mechanics and interference; relativistic kinematics, energy and momentum; the Schrodinger equation and its interpretation; quantum particles in one-dimension; spin; fermions and bosons; the hydrogen spectrum. Applications to crystallography, semiconductors, atomic physics and optics, particle physics, and cosmology. Prerequisites: PHYSICS 162L and MATH 212 or their equivalents. One course.
Second in series of half-courses on experimental physics techniques for physics and biophysics majors. Focus on core physics concepts of electricity, magnetism and optics: electrostatics, magnetostatics, magnetic induction, electromagnetic waves, geometrical and physical optics. Students work in teams and use computers to collect, visualize, and analyze data.
Second semester of a two-semester sequence intended for potential physics or biophysics majors. Course discusses basic principles and applications of electrodynamics, including electric fields, Gauss's Law, electric potential, capacitance, DC and AC circuits, magnetic fields, Ampere's Law, electric and magnetic forces, magnetic induction, Maxwell's equations, electromagnetic waves, properties of light, ray optics, and wave optics. Prerequisites: PHYSICS 161D and MATH 122 or consent from instructor. Recommended that course is taken concurrently with PHYSICS 162L. One course.