General Announcements
ASTRO 1: Basic Astronomy
A survey of the development of astronomy with an emphasis on understanding
the observable properties of the solar system, the sun and other stars, our
own and other galaxies, and the entire universe. Topics of current interest
will be discussed as time permits.
(Fall,Winter,Spring,Summer) (4 credits)
ASTRO 1H: Astronomy 1 Honors
Concurrent Enrollment in Astronomy 1
A supplement to Astronomy 1 emphasizing fundamental concepts and additional topics in Astronomy. Intended for highly motivated and well prepared students.
(Fall,Winter,Spring) (1 credit)
ASTRO 2: History of the Universe
Prerequisite: Astronomy 1
The content will vary with the professor and student interests. Course
has included modern extragalactic astronomy and cosmology, quasars,
active galactic nuclei, dark matter, gravitational lenses, the early
universe, the origins of life, and the possibility of extraterrestrial
intelligence.
(Spring) (4 credits)
CCS 0:
() (0 credits)
CCS 1A: NEWTONIAN MECHANICS
Calculus and Consent of Instructor.
(Fall) (0 credits)
CCS 2A: Mechanics and Waves
Consent of Instructor
Oscillatory motion. Rotational motion. Angular momentum. Gravity and
central force motion. Elastic waves.
(Winter) (0 credits)
CCS 3A: WAVES, KINETIC THEORY AND RELATIVITY
Satisfactory completion of Physics CS 2A.
Sound waves. Fluid dynamics. Kinetic theory of matter. The
Maxwell-Boltzmann distribution. Specific heat. The special theory of
relativity.
(Spring) (0 credits)
CCS 4: Electromagnetism
(Fall) (0 credits)
CCS 5: Electromag & Optics
consent of instructor
Magnetic material. AC circuits. Maxwell's equations. Electromagnetic
waves. Ray optics. Wave Optics. Kirchhoff diffraction theory.
() (0 credits)
CCS 9: Advanced Independent Research
(Fall) (0 credits)
CCS 10: PHYSICS COLLOQUIUM
(Spring) (0 credits)
CCS 15A: Introduction to Experimental Physics
CCS 3
No Open for Credit to studnes who have completed Physics 3HL. Laboratory
course focusing on using the experiment method to explore physical
phenomena and to discover the specific mathematical laws dscribing thems.
Students are expected to carry out and interpret their own experiments.
Three reports in the form of short papers are required.
(Fall) (0 credits)
CCS 15B: Experimental Physics
CCS 15A
Not open for credit to students who have completed Physics 4HL or 13BH.
Laboratory course focusing on the art and science of experimentation. Each
student will design experiments to measure well-defined physical
quantities, and build, borrow, and assemble the necessary apparatus. A
research paper presenting the method, results, and conclusion, together
with an oral presentation, will be required for each experiment.
() (0 credits)
CCS 15C: Experimental Physics
CCS 15B
Not open for credit to students who have completed Phys 5HL or 13CH
Laboratory course focusing on the art and science of experimentatoin. Each
student will design experiments to well0defined physical quantities, and
build, borrow, and assemble the necessary apparatus. A research paper
presenting the method, results, and conculusions, together with an oral
presentation, will be required for each experiment.
(Spring) (3 credits)
CCS 20: THE FIRST MEN IN THE MOON: THE SCIENCE, TECHNOLOGY, AND HISTORY OF LUNAR EXPLORATION
This summer will mark the 30th anniversary of Apollo 11, the first manned
mission to the surface of the Moon. This course will examine the historical
forces that made this adventure a national priority, the technology that
made it possible, and the scientific bounty of lunar exploration that has
revolutionized our understanding of where the Moon -- as well as the Earth
-- came from.
(Spring) (0 credits)
CCS 30: Reading Project
consent of instructor
May be repeated each quarter for credit.
Set up by the student in consultation with the instructor, and concluding with
the student's reports of progress.
() (0 credits)
CCS 31: Newtonian Mechanics
consent of instructor; creative studies and physics majors only
Vectors, kinematics, Newton's laws of motion, work and energy, conservative forces, momentum, conservation of momentum, center of mass motion, collisions and systems with variable mass.
(Fall) (5 credits)
CCS 32: Mechanics and Waves
Phys CS 31
Oscillatory motion. Rotational motion. Angular momentum. Gravity and
central force motion. Elastic waves.
(Winter) (5 credits)
CCS 33: Wave, Kinetic Theory, Relativity
Phys CS 31 and 32
Sound waves, fluid mechanics, kinetic theory of matter, Maxwell-Botzmann distribution, specific heat, entrophy and the special theory of relativity.
(Spring) (5 credits)
CCS 34: Electromagnetism
(Fall) (5 credits)
CCS 34: Electromagnetism
consent of instructor; creative studies and physics major
Electrostatics. DC curcuits, Magnetostatics. Vector potential.
(Fall) (5 credits)
CCS 35: Electromagnetism and Optics
Phys CS 34, consent of instructor, creative studies major
Faraday's Law of Induction, Magnetic materials, AC curcuits, Maxwell's equations, Electromagnetic waves, Ray optics. Wave optics. Diffraction theory.
(Winter) (5 credits)
CCS 36: Quantum Physics
Phys CS 34 and 35; consent of instructor and creative studies major
Wave-particle duality. Photons. Matter waves. The uncertainty principle. The Schrodinger equation. Potential wells and barriers. The quantized simple harmonic oscillator. The hydrogen atom.
(Spring) (5 credits)
CCS 36: Quantum Physics
Phys CS 34 or 35; consent of instructor; creative studies major
Wave-particle duality. Photons. Matter waves. The uncertainty principle.
The Schrodinger equation. Potential wells and barriers. The quantized
simple harmonic oscillator. The hydrogen atom.
(Spring) (5 credits)
CCS 40: Special Topics
(Fall) (0 credits)
CCS 99: Independent Studies
(Fall) (0 credits)
CCS 140: Special Topics
() (0 credits)
CCS 140: Special Topics
(Spring) (0 credits)
NATSC 1A: Contemporary Natural Science Physics
Not open for degree credit for students who have completed Physics 10.
Modern description of matter from the scale of the universe to the scale
of subatomic particles. Focus on concepts of order, simplicity, and
beauty of nature at a fundamental level. Basically descriptive; some
familiarity with high-school algebra is useful.
(Fall) (4 credits)
NATSC 2: Origin and Evolution of the Universe
Satisfies General Education "C" Quantitative Requirement.
The evolution of the universe followed through cosmological, geological,
biological, and anthropological phases ending with todays social and
environmental consequences. Highlights include basic concepts of natural
and physical sciences and introduction to scientific methods and thought.
(Spring) (4 credits)
PHYS 0:
(Fall) (0 credits)
PHYS 0:
(Fall) (0 credits)
PHYS 0BL: Advanced Experimental Physics
Prerequisite: Physics 115B, 128A.
Selected experiments in contemporary physics, e.g., holography, laser light
scattering zeeman effect, x-rays, superconductivity, magnetic resonance,
Mossbauer effect.
(Spring) (3 credits)
PHYS 0BL: Advanced Experimental Physics
Prerequisite: Physics 115B, 128A.
Selected experiments in contemporary physics, e.g., holography, laser light
scattering zeeman effect, x-rays, superconductivity, magnetic resonance,
Mossbauer effect.
(Spring) (3 credits)
PHYS 1: Basic Physics
Prerequisites: Mathematics 3A or equivalent
Classical mechanics, kinematics, vectors, Newton's laws, friction and
electrical resistance, work and energy, conservation laws, momentum and
collisions, rigid-body rotation.
Students who have not taken Mathematics 3A
will not be able to take Physics 1.
(Winter,Spring) (4 credits)
PHYS 1H: Honors Supplement to Basic Physics (Mechanics)
Prerequisite: students must have a Math SAT score above 700
A supplement to Physics 1 emphasizing fundamental concepts
and
possibly
additional topics in physics. Intended for highly
motivated
and
well prepared students.
(Winter) (1 credit)
PHYS 2: Basic Physics
Prerequisites: Physics 1 and Mathematics 3A-B or equivalent.
Rotational dynamics, statics, gravitation, periodic motion including LRC
electrical circuits, fluid mechanics, temperature and heat, thermal
properties of matter, the laws of thermodynamics.
(Fall,Spring) (4 credits)
PHYS 2H: Honors Supplement to Basic Physics (Mechanics and Electrostatics)
Prerequisite: students must maintain at least a B+ average in Physics 2.
A supplement to Physics 2 emphasizing fundamental concepts and possibly
additional topics and physics. Intended for highly motivated and well
prepared students.
(Spring) (1 credit)
PHYS 3: Basic Physics
Prerequisites: Physics 2, and Mathematics 3A-B-C or equivalent,concurrent enrollment in Physics 3L. (Recommend Mathematics 5A be takenconcurrently.)
Mechanical waves, wave interference and normal modes, sound and hearing,
electrical field, Gauss's law, electric potential, capacitance and
dielectrics, current, resistance, electromotive force, DC circuits.
(Fall,Summer) (3 credits)
PHYS 3H: Honors Supplement to Basic Physics (Electromagnetism and Waves)
Prerequisite: students must maintain at least a B+ average in Physics 3.
A supplement to Physics 3 emphasizing fundamental concepts and possibly
additional topics in physics. Intended for highly motivated and well
prepared students.
(Fall) (1 credit)
PHYS 3HL: Introduction to Experimental Physics
Prerequisites: consent of instructor. Must be taken concurrently with
Physics 3H.
Laboratory course focusing on using the experimental method to explore
physical phenomena and to discover the specific mathematical laws
describing them. Students are expected to carry out and interpret their
own experiments. Three reports in the form of short papers are required.
(Fall) (2 credits)
PHYS 3L: Physics Laboratory
Prerequisite: concurrent enrollment in Physics 3 or 23.
Introductory laboratory emphasizing experiments in electromagnetism.
(Fall) (1 credit)
PHYS 4: Basic Physics
Prerequisites: Physics 3 and concurrent enrollment in Physics 4L.(Recommended Mathematics 5B be taken concurrently.)
Magnetic fields, electromagnetic induction and inductance, AC circuits,
Maxwell's equations, electromagnetic waves, light and geometrical optics,
interference and diffraction.
(Fall,Winter) (3 credits)
PHYS 4H: Honors Supplement to Basic Physics (Optics and Modern Physics)
Prerequisite: students must maintain at least a B+ average in Physics 4.
A supplement to Physics 4 emphasizing fundamental concepts and possibly
additional topics in physics. Intended for highly motivated and well
prepared students.
(Winter) (1 credit)
PHYS 4HL: Experimental Physics
Prerequisites: Physics 3HL and consent of instructor. Must be taken
concurrently with Physics 4H.
Laboratory course focusing on the art and science of experimentation.
Each student will design experiments to measure well-defined physical
quantities and build, borrow or assemble the necessary apparatus. A
research paper presenting the method, results and conclusions, will be
required for each experiment.
(Winter) (2 credits)
PHYS 4L: Physics Laboratory
Prerequisite: concurrent enrollment in Physics 4 or 24.
Introductory laboratory emphasizing wave motion and optics.
(Winter) (1 credit)
PHYS 5: Basic Physics
Prerequisites: Physics 4 and concurrent enrollment in Physics 5L.(Recommend Mathematics 5C be taken concurrently.)
Special relativity, blackbody radiation, Compton scattering, photoelectric
effect, Bohr model, quantum mechanics, molecules, condensed matter,
nuclear physics, elementary particle.
(Spring) (3 credits)
PHYS 5H: Honors Supplement to Basic Physics (Thermodynamic and Kinetic Theory)
Prerequisite: students must maintain at least a B+ average in Physics 5.
A supplement to Physics 5 emphasizing fundamental concepts and possibly
additional topics in physics. Intended for highly motivated and well
prepared students.
(Spring) (1 credit)
PHYS 5HL: Experimental Physics
Prerequisites: Physics 4HL and consent of instructor. Must be taken
concurrently with Physics 5H.
Laboratory course focusing on the art and science of experimentation.
Each student will design experiments to measure well-defined physical
quantities and build, borrow, or assemble the necessary apparatus. A
research paper presenting the method, results and conclusions, together
with an oral presentation, will be required for each experiment.
(Spring) (2 credits)
PHYS 5L: Physics Laboratory
Prerequisites: Physics 4; concurrent enrollment in Physics 5 or 25.
Introductory laboratory emphasizing atomic, molecular, and condensed matter
physics.
(Spring) (1 credit)
PHYS 6A: Introductory Physics
Prerequisite: one quarter of calculus (may be taken concurrently).
Mechanics.
(Fall,Winter) (3 credits)
PHYS 6AL: Introductory Experimental Physics
Prerequisite: concurrent enrollment in Physics 6A or consent of instructor.
Self directed laboratory course where students seek to discover simple
mathematical descriptions to laws governing various physical phenomena.
Each student is responsible for deciding what to measure, how to measure
it, and what interpretation can be placed on the results.
(Fall,Winter,Summer) (1 credit)
PHYS 6B: Introductory Physics
Prerequisite: one quarter of calculus (may be taken concurrently).
Heat, thermodynamics, electricity, and magnetism.
(Winter,Spring) (3 credits)
PHYS 6BL: Introductory Experimental Physics
Prerequisite: concurrent enrollment in Physics 6B or consent of instructor.
Experiments in the mechanical, electrical, and thermal properties of
matter, the behavior of light, and quantum phenomena with application to
the biological sciences.
(Winter,Spring) (1 credit)
PHYS 6C: Introductory Physics
Prerequisite: one quarter of calculus (may be taken concurrently).
Electromagnetic waves, optics, modern physics.
(Fall,Spring,Summer) (3 credits)
PHYS 6CL: Introductory Experimental Physics
Prerequisite: concurrent enrollment in Physics 6C or consent of instructor.
Experiments in the mechanical, electrical, and thermal properties of
matter, the behavior of light, and quantum phenomena with application to
the biological sciences.
(Fall,Spring,Summer) (1 credit)
PHYS 10: Concepts of Physics
Not open for degree credit to students who have completed Natural
Science 1A.
A survey of important concepts in physics for the nonscience major. The
contents will vary depending on the interests of the students and
instructor.
(Winter,Spring,Summer) (4 credits)
PHYS 13AH: Honors Introduction to Experimental Physics
Physics 3 or 23 (may be taken concurrently).
Designed to introduce undergraduates to contemporary experimental research
at an early stage in their careers. Emphasis is placed on acquiring an
"experimental frame of mind", professional communication skills, and a
broad range of laboratory techniques. Not open for degree credit to
students who have completed Physics 3L or Physics CS 15A.
(Fall) (2 credits)
PHYS 13BH: Honors Experimental Physics
Physics 13AH; and Physics 4 or 24 (may be taken concurrently).
Designed to introduce undergraduates to contemporary experimental research
at an early stage in their careers. Emphasis is placed on acquiring an
"experimental frame of mind", professional communication skills, and a
broad range of laboratory techniques.
(Winter) (2 credits)
PHYS 13CH: Honors Experimental Physics
Physics 13BH; and Physics 5 or 25 (may be taken concurrently).
Designed to introduce undergraduates to contemporary experimental research
at an early stage in their careers. Emphasis is placed on acquiring an
"experimental frame of mind", professional communication skills, and a
broad range of laboratory techniques.
Prerequisites:
Physics 13BH; and Physics 5 or 25 (may be taken concurrently).
Enrollment:
Not open for degree credit to students who have completed Physics 5L or
Physics CS 15C.
(Spring) (2 credits)
PHYS 16: Undergraduate Seminar
None
Selected topics of special interest designed to display the broad diversity
of physics. Also designed to introduce students to faculty research and
department labs. This course is strongly recommended for freshmen, transfer
students, and prospective majors within physics.
(Fall) (1 credit)
PHYS 16: Undergraduate Seminar
None
Selected topics of special interest designed to display the broad diversity
of physics. Also designed to introduce students to faculty research and
department labs. This course is strongly recommended for freshmen, transfer
students, and prospective majors within physics.
(Fall) (1 credit)
PHYS 20: General Physics
concurrent enrollment Math 3A
Classical mechanics, kinematics, vectors, Newton's laws, work and energy,
conservation laws
(Fall) (4 credits)
PHYS 20: General Physics
concurrent enrollment Math 3A
Classical mechanics, kinematics, vectors, Newton's laws, work and energy,
conservation laws
(Fall) (4 credits)
PHYS 21: General Physics
C- or better in Math3A
Classical mechanics, kinematics, vectors, Newton's Laws, work and energy,
conservation laws, momentum and collisions, rigid-body rotation.
(Winter) (4 credits)
PHYS 22: General Physics
Physics 21 with a grade of C- or better; Mathematics 3A-B.
Rotational dynamics, statics, gravitation, periodic motion, fluid
mechanics, temperature and heat, thermal properties of matter, the laws of
thermodynamics. (S)
(Spring) (0 credits)
PHYS 23: General Physics
Physics 22 with a grade of C- or better; Mathematics 3A-B-C; concurrent enrollment in Physics 3L or 13AH.
Mechanical waves, wave interference and normal modes, sound and hearing,
electric charge and electric field, Gauss's law, electric potential,
capacitance and dielectrics, current, resistance, electromotive force, DC
circuits. (F)
(Fall) (3 credits)
PHYS 23: General Physics
Physics 22 with a grade of C- or better; Mathematics 3A-B-C; concurrent enrollment in Physics 3L or 13AH.
Mechanical waves, wave interference and normal modes, sound and hearing,
electric charge and electric field, Gauss's law, electric potential,
capacitance and dielectrics, current, resistance, electromotive force, DC
circuits. (F)
(Fall) (3 credits)
PHYS 24: General Physics
Physics 23 with a grade of C- or better; Mathematics 5A; concurrent enrollment in Physics 4L or 13BH.
Magnetic fields, electromagnetic induction and inductance, AC circuits,
Maxwell's equations, electromagnetic waves, light and geometrical optics,
interference and diffraction. (W)
(Winter) (3 credits)
PHYS 25: General Physics
Physics 24 with a grade of C- or better; Mathematics 5A-B; concurrent enrollment in Physics 5L or 13CH.
Special relativity, blackbody radiation, Compton scattering, photoelectric
effect, Bohr model, quantum mechanics, molecules, condensed matter, nuclear
physics, elementary particles. (S)
(Spring) (3 credits)
PHYS 25: General Physics
Physics 24 with a grade of C- or better; Mathematics 5A-B; concurrent enrollment in Physics 5L or 13CH.
Special relativity, blackbody radiation, Compton scattering, photoelectric
effect, Bohr model, quantum mechanics, molecules, condensed matter,
nuclear physics, elementary particles.
(Spring) (3 credits)
PHYS 25L: Experimental Physics
Physics 4 or 24 & 4L
Covers the essence of experimental research. Students study atomic spectra, diffraction and basic quantum physics experimentally, and write short Physical Review style articles about their results.
() (0 credits)
PHYS 25L: Experimental Physics
Physics 4 or 24 and 4L; Physics 5 or 25 (may be taken concurrently).
Covers the essence of experimental research. Students study atomic spectra, diffraction and basic quantum physics experimentally, and write short Physical Review style articles about their results.
(Spring) (2 credits)
PHYS 43: Origins: A Dialogue Between Scientists and Humanists
Introduction to the ways in which different disciplines have addressed the
concept of origins. This course is organized as a dialogue between science,
religion and history or more broadly constued between science and the
humanists.
(Spring) (4 credits)
PHYS 100A: Methods of Theoretical Physics
Prerequisites: Mathematics 5C or equivalent
Mathematical methods in physics: theory of functions of complex
variables, Fourier series, integral transforms, partial differential
equations of physics, boundary value problems, Legendre and Bessel
functions. Introduction to Hilbert spaces.
(Fall) (3 credits)
PHYS 100B: Methods of Theoretical Physics
Prerequisites: Physics
100A
Mathematical methods in physics: theory of functions of complex
variables,
Fourier series, integral transforms, partial differential
equations of
physics, boundary value problems, Legendre and Bessel
functions.
Introduction to Hilbert spaces.
(Winter) (3 credits)
PHYS 105A: Classical Mechanics
Prerequisites: Physics 2 and concurrent enrollment in Mathematics 5B or
its equivalent.
Dynamics of a particle and systems of particles. Harmonic oscillator.
Curvilinear coordinates. Central force motion. Scattering. Elementary
rigid body motion. Moving coordinate systems. Lagrange's equations and
generalized coordinates. Forces of constraint. Rigid body rotation.
Small vibrations and normal modes. Hamilton's equations.
(Winter) (3 credits)
PHYS 105B: Classical Mechanics
Prerequisites: Physics 105A
Dynamics of a particle and systems of particles. Harmonic
oscillator.
Curvilinear coordinates. Central force motion. Scattering.
Elementary
rigid body motion. Moving coordinate systems. Lagrange's
equations and
generalized coordinates. Forces of constraint. Rigid body
rotation.
Small vibrations and normal modes. Hamilton's equations.
(Spring) (3 credits)
PHYS 106: Nonlinear Phenomena
Physics 105A;Same as ME163C and ECE183 (ME And ECE have different prereqs
An introduction to nonlinear phenomena. Flows and bifurcations in one and
two dimensions, chaos, fractals, strange attractors. Applications to
physics, engineering, chemistry and biology.
(Spring) (4 credits)
PHYS 106G: Nonlinear Phenomena
Consent of Instructor
An introduction to nonlinear phenomena. Flows and bifurcations in one and
two dimensions, chaos, fractals, strange attractors. Applications to
physics, engineering, chemistry and biology.
(Spring) (4 credits)
PHYS 110A: Electromagnetism
Prerequisites: Physics 5 and concurrent enrollment in Mathematics 5C or
its equivalent.
Electrostatics, magnetostatics, electric and magnetic properties of
materials, Maxwell's equations, electromagnetic waves, radiation from
charged particles, special relativity.
(Fall) (4 credits)
PHYS 110B: Electromagnetism
Prerequisites: Physics 110A
Electrostatics, magnetostatics, electric and magnetic properties
of
materials, Maxwell's equations, electromagnetic waves, radiation
from
charged particles, special relativity.
(Winter) (4 credits)
PHYS 110C: Electromagnetism
Prerequisites: Physics 110B
Electrostatics, magnetostatics, electric and magnetic
properties
of
materials, Maxwell's equations, electromagnetic waves,
radiation
from
charged particles, special relativity.
(Spring) (4 credits)
PHYS 115A: Quantum Mechanics
Prerequisites: Physics 5; Physics 100A or Mathematics 124A (may be taken
concurrently) or equivalent.
Inadequacies of classical physics and quantum mechanical resolutions.
The postulates of quantum mechanics. Schroedinger's equation and
illustrative solutions. Measurements, operators, and observables.
Angular momentum, spin, and one-electron atoms. Introduction to
perturbation theory. The exclusion principle, multi-electron atoms, and
the chemical structure of the elements.
(Winter) (4 credits)
PHYS 115AG: Quantum Mechanics
Open only by consent of the physics graduate advisor to graduate students who have not taken Physics 115A-B, or the respective parts thereof in this institution.
Same description as Physics 115A
(Winter) (4 credits)
PHYS 115B: Quantum Mechanics
Prerequisites: Physics 115A
Inadequacies of classical physics and quantum mechanical resolutions.
The
postulates of quantum mechanics. Schroedinger's equation and
illustrative
solutions. Measurements, operators, and observables.
Angular momentum,
spin, and one-electron atoms. Introduction to
perturbation theory. The
exclusion principle, multi-electron atoms, and
the chemical structure of
the elements.
(Spring) (4 credits)
PHYS 115BG: Quantum Mechanics
Open only by consent of the physics graduate advisor to graduate students who have not taken Physics 115A-B, or the respective parts thereof in this institution.
Same description as Physics 115B
(Spring) (4 credits)
PHYS 115C: Advanced Topics in Quantum Mechanics
Prerequisites: Physics 115B; Physics 100B or Mathematics 124B or
equivalent.
Scattering theory. Time dependent and time independent perturbation
theory and other approximate methods. Applications to nuclear, atomic,
and molecular physics.
(Fall) (4 credits)
PHYS 115CG: Advanced Topics in Quantum Mechanics
Open only by consent of the physics graduate advisor to graduate students who have not taken Physics 115C, or the respective parts thereof in this institution.
Same description as Physics 115C
(Fall) (4 credits)
PHYS 118: Thermodynamics
Prerequisites: Physics 5 and concurrent enrollment in Mathematics 5C or
its equivalent.
Thermodynamics: three laws of thermodynamics, phase diagrams, entropy,
equipartition of energy, specific heat, reversible and irreversible
processes. Kinetic theory: Maxwell-Boltzmann distribution, pressure,
viscosity, thermal conductivity, diffusion.
() (3 credits)
PHYS 119A: Statistical Mechanics and Thermodynamics
Prerequisite: Physics 5.
Kinetic theory of statistical ensembles. Boltzmann, Fermi-Dirac, and
Bose-Einstein distribution laws. Relation of thermodynamic variables and
microscopic properties.
(Winter,Spring) (4 credits)
PHYS 119AG: Statistical Mechanics and Thermodynamics
Open only by consent of the physics graduate advisor to graduatestudents who have not taken Physics 119, or the respective part thereofin this institution.
Same description as Physics 119A.
(Spring) (4 credits)
PHYS 119B: Thermodynamics and Statistical Physics
Physics 5
Thermal and Statistical Physics. Statistical Mechanics: Boltzmann, Fermi-Dirac, Bose-Einstein distribution laws. Relation of thermodynamic variables and microscopic properties.
(Winter) (4 credits)
PHYS 119BG: Thermodynamics and Statistical Physics
Only open to Graduate Students
same as Physics 119B
(Winter) (4 credits)
PHYS 120: Physics of California Waves, Weather, Quakes and Fires
Physics 5 or 25
Why do the waves hit the beach every five seconds? This course teaches
students the relevant fluid dynamics and allows them to apply it to
natural phenomena of California: seismic waves, tsunamis, maximum tree
heights, fluid flow around fish.
(Spring) (4 credits)
PHYS 121A: The Practice of Science
Consent of instructor.
Provides experience in pursuing careers within science and engineering
through discussions with researchers, lectures on ethics, funding,
intellectual property, and commercial innovation. Students prepare a
focused research proposal that is pursued in the second quarter of the
course.
(Winter) (3 credits)
PHYS 121B: The Practice of Science
Physics 121A.
Provides experience in pursuing careers within science and engineering
through discussions with researchers, lectures on ethics, funding,
intellectual property, and commercial innovation. Students prepare a
focused research proposal that is pursued in the second quarter of the
course.
(Spring) (4 credits)
PHYS 123A: Condensed Matter Physics
Prerequisite: Physics 115A.
Classification of solids; crystal symmetry, thermal electric and
magnetic properties; metals, semiconductors, and the band theory of
electronic states; magnetic resonance; superconductivity; imperfections.
Emphasis will be placed on both fundamental and applied aspects.
(Fall) (4 credits)
PHYS 123AG: Condensed Matter Physics
Prerequisites: Physics 115A or 115AG. Open only by consent of the
physics graduate advisor to graduate students who have not taken Physics
123A-B or the respective parts.
Same description as Physics 123A.
(Fall) (4 credits)
PHYS 123B: Condensed Matter Physics
Prerequisite: Physics 123A.
Classification of solids; crystal symmetry, thermal electric and
magnetic
properties; metals, semiconductors, and the band theory of
electronic
states; magnetic resonance; superconductivity; imperfections.
Emphasis
will be placed on both fundamental and applied aspects.
(Winter) (4 credits)
PHYS 123BG: Condensed Matter Physics
Prerequisites: Physics 115A or 115AG. Open only by consent of thephysics graduate advisor to graduate students who have not taken Physics123A-B or the respective parts.
Same description as Physics 123B.
(Winter) (4 credits)
PHYS 125: Elementary Particle Physics
Prerequisite: Physics 115B.
Introduction to quarks and leptons and the phenomenology of the
particles they comprise; fundamental symmetries, invariance principles,
and the associated quantum numbers, strong, electromagnetic and weak
interactions and their relationship.
(Spring) (4 credits)
PHYS 125G: Elementary Particle Physics
Open only to graduate students with the consent of the physics graduate
advisor.
Same description as Physics 125.
(Spring) (4 credits)
PHYS 126: Plasma Physics
Prerequisites: Physics 110A-B-C (110C may be taken concurrently).
Introduction to the physics of the fully ionized gas. Motion of charged
particles in electric and magnetic fields, magnetohydrodynamics,
equilibrium plasma configurations and their stability, waves in plasmas.
Examples selected from the space and astrophysical sciences and
controlled fusion research.
() (4 credits)
PHYS 127A: Analog Electronics
Prerequisites: six units of calculus and six units of physics.
Passive circuits, diodes, transistors, field effect
transistors,
operational amplifiers, feedback and control. Design,
building and
testing of analog circuits.
(Fall) (3 credits)
PHYS 127A: Analog Electronics
Prerequisites: six units of calculus and six units of physics.
Passive circuits, diodes, transistors, field effect transistors,
operational amplifiers, feedback and control. Design, building and testing
of analog circuits.
(Fall) (3 credits)
PHYS 127AG: Analog Electronics
Open only to graduate students with consent of physics graduate advisor.
Same description as Physics 127A.
(Fall) (3 credits)
PHYS 127AL: Analog Electronics
Physics 2 or 22 or 6B with a minimum grade of C-; and, Math 3B or 34B with a minimum grade of C-.
Passive circuits, diodes, transistors, field effect transistors,
operational amplifiers, feedback and control. Design, building and testing
of analog circuits.
(Fall) (4 credits)
PHYS 127AL: Analog Electronics
Physics 2 or 22 or 6B with a minimum grade of C-; and, Math 3B or 34B with a minimum grade of C-.
Passive circuits, diodes, transistors, field effect transistors,
operational amplifiers, feedback and control. Design, building and testing
of analog circuits.
(Fall) (4 credits)
PHYS 127AL: Analog Electronics
Physics 2 or 22 or 6B with a minimum grade of C-; and, Math 3B or 34B with a minimum grade of C-.
Passive circuits, diodes, transistors, field effect transistors,
operational amplifiers, feedback and control. Design, building and testing
of analog circuits.
(Fall) (4 credits)
PHYS 127AL: Analog Electronics
Physics 2 or 22 or 6B with a minimum grade of C-; and, Math 3B or 34B with a minimum grade of C-.
Passive circuits, diodes, transistors, field effect transistors,
operational amplifiers, feedback and control. Design, building and testing
of analog circuits.
(Fall) (4 credits)
PHYS 127B: Digital Electronics
Prerequisite: six units of calculus and six units of physics.
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 127B: Digital Electronics
Prerequisite: six units of calculus and six units of physics.
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 127B: Digital Electronics
Prerequisite: six units of calculus and six units of physics.
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 127B: Digital Electronics
Prerequisite: six units of calculus and six units of physics.
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 127B: Digital Electronics
Prerequisite: six units of calculus and six units of physics.
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 127B: Digital Electronics
Prerequisite: six units of calculus and six units of physics.
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 127B: Digital Electronics
Prerequisite: six units of calculus and six units of physics.
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 127B: Digital Electronics
Prerequisite: six units of calculus and six units of physics.
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 127B: Digital Electronics
Prerequisite: six units of calculus and six units of physics.
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 127B: Digital Electronics
Prerequisite: six units of calculus and six units of physics.
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 127B: Digital Electronics
Prerequisite: six units of calculus and six units of physics.
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 127B: Digital Electronics
Prerequisite: six units of calculus and six units of physics.
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 127BG: Digital Electronics
Open only to graduate students with consent of physics graduate advisor.
Same description as Physics 127B.
(Winter) (3 credits)
PHYS 127BL: Digital Electronics
Phys 127AL with a minimum grade of C-
Gates, combinational and sequential logic, multiplexes, counters, shift
registers, memory and microprocessors. Design, building and testing of
digital circuitry, including a modern microprocessor based computer system.
(Winter) (3 credits)
PHYS 128AL: Advanced Experimental Physics
Physics 127AL with a minimum grade of C-; and Physics 115A (may be taken concurrently).
Selected experiments in contemporary physics, e.g., holography, laser
lightscattering zeeman effect, x-rays, superconductivity, magnetic
resonance, Mossbauer effect.
(Winter) (3 credits)
PHYS 128AL: Advanced Experimental Physics
Physics 127AL with a minimum grade of C-; and Physics 115A (may be taken concurrently).
Selected experiments in contemporary physics, e.g., holography, laser
lightscattering zeeman effect, x-rays, superconductivity, magnetic
resonance, Mossbauer effect.
(Winter) (3 credits)
PHYS 128AL: Advanced Experimental Physics
Physics 127AL with a minimum grade of C-; and Physics 115A (may be taken concurrently).
Selected experiments in contemporary physics, e.g., holography, laser
lightscattering zeeman effect, x-rays, superconductivity, magnetic
resonance, Mossbauer effect.
(Winter) (3 credits)
PHYS 128AL: Advanced Experimental Physics
Physics 127AL with a minimum grade of C-; and Physics 115A (may be taken concurrently).
Selected experiments in contemporary physics, e.g., holography, laser
lightscattering zeeman effect, x-rays, superconductivity, magnetic
resonance, Mossbauer effect.
(Winter) (3 credits)
PHYS 128AL: Advanced Experimental Physics
Physics 127AL with a minimum grade of C-; and Physics 115A (may be taken concurrently).
Selected experiments in contemporary physics, e.g., holography, laser
lightscattering zeeman effect, x-rays, superconductivity, magnetic
resonance, Mossbauer effect.
(Winter) (3 credits)
PHYS 128AL: Advanced Experimental Physics
Phys 127AL with a minimum grade of C-.
Selected experiments in contemporary physics, e.g., holography, laser
lightscattering zeeman effect, x-rays, superconductivity, magnetic
resonance, Mossbauer effect.
(Winter) (3 credits)
PHYS 128BL: Advanced Experimental Physics
Prerequisite: Physics 115B, 128A.
Selected experiments in contemporary physics, e.g., holography, laser light
scattering zeeman effect, x-rays, superconductivity, magnetic resonance,
Mossbauer effect.
(Spring) (3 credits)
PHYS 129: Computer Interfacing
Prerequisites: six units of physics and six units of calculus. Not opento graduate students.
Use of personal computer for control and measurement in a hands-on
project
oriented environment. Introduction to a real time multitasking
operating
system and the C programming language. Basic feedback control
theory.
(Spring) (4 credits)
PHYS 129G: Computer Interfacing
Open only to graduate students with consent from the physics graduateadvisor.
Same description as Physics 129.
(Spring) (4 credits)
PHYS 131: Gravitation and Relativity
Prerequisites: Physics 105A-B (105B may be taken concurrently only with
the consent of the instructor).
An introduction to Einstein's general relativity. The spacetime of
special relativity, the principle of equivalence, gravity as geometry,
the description of spacetime geometry, the spacetime of a relativistic
star, solar system tests of general relativity, gravitational collapse,
black holes, cosmology.
(Spring) (4 credits)
PHYS 132: STELLAR STRCTR/EVOL
Physics 5, or consent of instructor
Observed properties and classification of stars, the
Hertzsprung-Russell diagram, stellar atmospheres, hydrostatic equilibrium,
energy transport, equations of state, thermonuclear reaction rates, origin
of the elements, life history of stars, stellar death, compact objects,
star formation.
(Fall) (4 credits)
PHYS 133: Galaxies and Cosmology
Prerequisites: completion of the lower-division prerequisite courses for the physics or engineering majors, or consent of instructor.
Observed properties of galaxies, the interstellar medium, stellar dynamics, spiral arms,
galaxy clusters, dark matter, quasars, the Hubble expansion, Friedmann models, thermal
history of the universe, the origin of the light elements, the cosmic microwave
background, structure formation.
(Fall) (4 credits)
PHYS 133G: Astrophysics
Open only by consent of the physics graduate advisor to graduate
students who have not taken Physics 133.
Same description as Physics 133.
(Fall) (4 credits)
PHYS 134: Observational Astrophysics
Prerequisites: Physics 5 and 133 recommended.
Techniques and implementation of observational methods in
astronomy/astrophysics. Sensors, digital-image processing and analysis,
research projects with computer-controlled remote access telescope using
a digital image sensor. Studies of variable stars, galaxy morphology,
supernova, etc.
(Fall,Winter) (4 credits)
PHYS 135: Biophysics and Biomaterials
Prerequisites: Physics 6C or Physics 3, 4, 5, or consent of instructor.
Structure and function of cellular molecules (lipids, nucleic acids,
proteins, and carbohydrates). Single cell and multicellular organisms
(cell-cell and cell-extracellular matrix interactions). Tools of
molecular biology. Biomaterials and biomedical applications (e.g.,
chemical sensors, drug and gene carriers; drug design).
(Fall) (3 credits)
PHYS 141: Optics
Prerequisite: Physics 5.
Modern geometrical and physical optics. Polarization, coherence,
interference, and diffraction phenomena. Fourier transform spectroscopy,
intensity correlation interferometry, spatial filtering, and holography.
Selected topics on lasers, light scattering, and quantum optics as time
permits.
(Fall,Winter) (4 credits)
PHYS 142L: Experimental Research in Condensed Matter Physics
Prerequisites: Physics 5 and consent of instructor. May be repeated for credit to a maximum of 4 units.
Offers qualified undergraduates the opportunity to work in research
laboratories in condensed matter physics. Each staff member has his/her
own course identified by a letter code.
(Spring) (4 credits)
PHYS 143L: Experimental Research in Physics
Prerequisites: Physics 5 and consent of instructor. May be repeated for
credit up to 4 units.
Offers qualified undergraduates the opportunity to work in experimental
research in elementary particle physics. Each staff member has his/her
own course identified by a letter code.
(Spring) (4 credits)
PHYS 144: Physics of Complex Fluids
Prerequisites: Physics 118, Physics 105A-B, and Physics 110A-B.
Introduction to the physics of complex fluids. Topics will include:
solution thermodynamics, electrolytes, polymer solutions, collodial
dispersions, wetting, surfactants, micellar solutions, liquid crystals,
microemulsions, gels, and aggregation phenomena.
(Fall) (4 credits)
PHYS 145L: Experimental Research in Astrophysics
Prerequisites: Physics 5 and consent of instructor. May be repeated for
credit to a maximum of four units.
Offers qualified undergraduates the opportunity to work in experimental
research in astrophysics. Each staff member has his/her own course
identified by a letter code.
(Fall,Winter,Spring) (4 credits)
PHYS 150: Special Topics in Astrophysics
Physics 5 or 25.
Course varies from year to year according to the currents of the times.
(Spring) (3 credits)
PHYS 157: Special Topics in Biophysics
Physics 5 or 25.
Course varies from year to year according to the currents of the times.
(Spring) (4 credits)
PHYS 160K:
Consent of instructor.
Provides experience in communicating science and technology to
nonspecialists. The major components of the course are field work in
mentoring, a biweekly seminar, presentations to precollege students
and to adult nonscientists, and end-of-term research papers. May be repeated for credit to a maximum of 12 units, but only 4 units
may be applied to the major. Same course as Engineering 160.
Open to graduate students in science and engineering disciplines and to
undergraduate science and engineering majors.
(Fall,Winter,Spring) (4 credits)
PHYS 194: Group Studies for Advanced Students
Prerequisites: upper-division standing; consent of instructor. Only fourunits may apply to the major.
Themes will vary according to instructor.
(Spring) (4 credits)
PHYS 198: Directed Reading
Prerequisites: consent of instructor. Students must have attained upper-division standing; have a minimum 3.0 grade-point average for the preceding three quarters; have completed at least two upper-division courses in physics.
Students are limited to 5 units per quarter and 30 units total in all
198/199/199RA courses combined. No more than 12 units may be earned in all
Physics 198/199/199RA courses combined. Each staff member has their own
directed reading course identified by a
number code listed in the Schedule
of Classes .
(Fall,Winter,Spring) (4 credits)
PHYS 199: Independent Studies in Physics
Prerequisites: consent of instructor. Students must: 1) have attainedupper-division standing; 2) have a minimum 3.0 grade-point average forthe preceding three quarters; 3) have completed at least twoupper-division courses in physics. Students are limited to 5 units perquarter and 30 units total in all 198/199/199RA courses combined. Nomore than 12 units may be earned in all Physics 198/199/199RA coursescombined.
Directed individual study open to qualified seniors in the
department.
Each staff member has their own independent studies course
identified by
a number code listed in the Schedule of Classes .
(Fall,Winter,Spring) (5 credits)
PHYS 199RA: Independent Research Assistance
Prerequisites: consent of instructor. Students must: have attained upper-division standing; have a minimum 3.0 grade-point average for the preceding three quarters; have completed at least two upper-division courses in physics.
Undergraduate research for qualified seniors to gain valuable experience
in research methodology.
(Fall,Winter,Spring) (5 credits)
PHYS 200A: Mathematical Methods of Physics
Mathematical techniques useful in physics, including the theory of
functions of a complex variable, differential equations, special functions,
and the Sturm-Liouville problem.
(Fall) (4 credits)
PHYS 200B: Mathematical Methods of Physics
Mathematical techniques useful in physics, including the theory
of functions of a complex variable, linear algebra. Fourier
transforms, differential equations, special functions. Cartesian
tensors, calculus of variations, and numerical methods.
() (4 credits)
PHYS 202: Group Theory
Theory of groups and their representations. Applications to
solid state, atomic, molecular, and elementary particle physics.
() (4 credits)
PHYS 205: Classical Mechanics
Review of Lagrangian mechanics. Variational principles.
Hamilton's equations. Canonical transformations. Hamilton
Jacobi Theory. Action angle variables. Time dependent and
canonical perturbation theory. Motivation of quantum
mechanical formalism. Central forces and scattering. Small
vibrations. Rigid body motion. Introduction to Hamiltonian
chaos.
(Fall) (4 credits)
PHYS 209: COSMOLOGY
COSMOLOGY. AN INTRODUCTION TO COSMOLOGY, INCLUDING: FRIEDMANN MODELS. HUBBLE
CONSTANT AND OTHER COSMOLOGICAL PARAMETERS. OBSERVED LARGE SCALE STRUCTURE AND
MODELS OF GALAXY FORMATION. THERMAL EVOLUTION OF THE UNIVERSE, NUCLEOSYNTHESIS
AND BARYOGENESIS. DARK MATTER. VERY EARLY UNIVERSE AND INFLATION. COSMIC BACK-
GROUND RADIATION.
(Spring) (4 credits)
PHYS 210A: Electromagnetic Theory
Electrostatics, magnetostatics, boundary value problems, time
varying fields, Maxwell's equations, radiation, multipole fields,
scattering, relativistic particle dynamics.
(Winter) (4 credits)
PHYS 210B: Electromagnetic Theory
Electrostatics, magnetostatics, boundary value problems, time
varying
fields, Maxwell's equations, radiation, multipole fields,
scattering,
relativistic particle dynamics.
(Spring) (4 credits)
PHYS 215A: Quantum Mechanics
Fundamental principles; Schroedinger equation; angular
momentum; perturbation theory; scattering theory, emission, and
absorption of radiation; Dirac equation.
(Fall) (4 credits)
PHYS 215B: Quantum Mechanics
Fundamental principles; Schroedinger equation; angular
momentum;
perturbation theory; scattering theory, emission, and
absorption of
radiation; Dirac equation.
(Winter) (4 credits)
PHYS 215C: Quantum Mechanics
Fundamental principles; Schroedinger equation; angular
momentum;
perturbation theory; scattering theory, emission, and
absorption of
radiation; Dirac equation.
(Spring) (4 credits)
PHYS 217A: The Many Body Problem in Condensed Matter Physics
Prerequisite: Physics 215C.
Field theoretic methods as applied to (non-relativistic) condensed matter
systems. Green's functions and diagrammatic techniques applied to various
examples of interacting many body systems, including fermions, bosons, and
spins. Relationship of theoretical quantities to physical measurements.
(Winter) (4 credits)
PHYS 217B: The Many Body Problem in Condensed Matter Physics
Prerequisite: Physics 215C.
Field theoretic methods as applied to (non-relativistic) condensed matter systems. Green's functions and diagrammatic techniques applied to various examples of interacting many body systems, including fermions, bosons, and spins. Relationship of theoretical quantities to physical measurements.
(Spring) (4 credits)
PHYS 219: Statistical Mechanics
Prerequisites: Physics 205, 215A, and 119 or equivalent taken at another institution, or consent of instructor.
Fundamental principles of classical and quantum statistics. Non-interacting
Boltzmann, Bose, and Fermi systems. Virial expansion and other approaches
to interacting systems. Phase transitions.
(Fall,Winter,Spring,Summer) (4 credits)
PHYS 220: ADVANCED STAT MECH
PHYSICS 219 OR EQUIVALENT
ADVANCED TOPICS IN STATISTICAL MECHANICS. COURSE WILL COVER SOME OF THE FOL-
LOWING TOPICS: A) CRITICAL PHENOMENA-PHASE DIAGRAMS, FIRST AND SECOND ORDER
PHASE TRANSITIONS, SCALING THEORY, HIGH-TEMPERATURE EXPANSIONS, RENORMALIZA-
TION GROUP; B) NONEQUILIBRIUM STATISTICAL MECHANICS-STOCHASTIC PROCESSES.
LANGEVIN EQUATIONS, FLUCTUATION-DISSIPATION THEOREM, MASTER EQUATIONS, FLUID
DYNAMICS.
(Spring) (4 credits)
PHYS 221A: Relativistic Quantum Field Theory
Prerequisite: Physics 215C.
Introduction to the theory of Lorentz covariant quantized fields.
Global and local symmetries and conservation laws. Path
integral formulation. Applications to quantum electrodynamics.
(Fall) (4 credits)
PHYS 221B: Relativistic Quantum Field Theory
Prerequisite: Physics 215C.
Introduction to the theory of Lorentz covariant quantized fields.
Global
and local symmetries and conservation laws. Path
integral formulation.
Applications to quantum electrodynamics.
(Winter) (4 credits)
PHYS 221C: Advanced Quantum Field Theory
Prerequisite: Physics 221B.
Topics covered will vary; may be repeated with the consent of the instructor.
Possible topics include the SU(2)x U(1)theory of electroweak
interactions, quantum chromodynamics, grand unification, the
renormalization group, anomalies, current algebra,
supersymmetry, lattice gauge theory.
(Spring) (4 credits)
PHYS 223A: Concepts and Phenomena of Condensed Matter Physics
Prerequisites: Physics 219, 215C. Same course as Materials 224A-B
Lattice and electron dynamics, transport phenomena, and other
major topics such as: optics, superconductivity, cooperative
magnetism, electron-phonon interactions, defects, disorder.
(Fall) (4 credits)
PHYS 223B: Concepts and Phenomena of Condensed Matter Physics
Prerequisites: Physics 219, 215C. Same course as Materials 224A-B
Lattice and electron dynamics, transport phenomena, and other
major topics
such as: optics, superconductivity, cooperative
magnetism, electron-phonon
interactions, defects, disorder.
(Winter) (4 credits)
PHYS 223C: CONCEPT COND MATTER
PHYSICS 219 AND 215C. SAME COURSE AS MATERIALS 224C.
CONCEPTS AND PHENOMENA OF CONDENSED MATTER PHYSICS. LATTICE AND ELECTRON
DYNAMICS. ELEMENTARY EXCITATIONS AND COLLECTIVE PHENOMENA. TRANSPORT PROPER-
TIES. DISORDER AND LOCALIZATION. LONG-RANGE ORDER AND BROKEN SYMMETRIES. MAG-
NETISM, SUPERCONDUCTIVITY AND LIQUID CRYSTALS. PROPERTIES AND STRUCTURES OF
POLYMERS, MEMBRANES, AND SELF-ASSEMBLING SYSTEMS.
(Spring) (4 credits)
PHYS 225A: Elementary Particle Physics
Prerequisite: Physics 125, 215C, or equivalent or consent of
instructor.
The phenomenology of the standard model of particle physics.
QED and QC process.
(Fall) (4 credits)
PHYS 225B: Elementary Particle Physics
Prerequisite: Physics 225A or consent of instructor.
Weak interactions; neutrino physics; C, P, and CP violation;
electroweak gauge theory and symmetry breaking. Design of
detectors and experiments; searches for new phenomena.
(Winter) (4 credits)
PHYS 229A: Gauge Theories
Physics 221ABC
Gauge Theories of elementary particles. Quantum theory of non-abelian gauge fields. Local, global, and spontaneous symmetry breaking. Collective phenomena; solitons, instantons, and magnetic monopoles. Effective field theories. Lattice Gauge theory. Applications to the standard model of elementary particles.
(Winter) (4 credits)
PHYS 229B: Gauge Theories of Elementary Particles
PHYSICS 221A-B-C.
GAUGE THEORIES OF ELEMENTARY PARTICLES. QUANTUM THEORY OF NON-ABELIAN GAUGE
FIELDS. LOCAL, GLOBAL, AND SPONTANEOUS SYMMETRY BREAKING. COLLECTIVE
PHENOM- ENA; SOLUTIONS, INSTANTONS, AND MAGNETIC MONOPOLES. EFFECTIVE FIELD
THEORIES. LATTICE GAUGE THEORY. APPLICATIONS TO THE STANDARD MODEL OF
ELEMENTARY PART- ICLES.
(Spring) (4 credits)
PHYS 230A: String Theory
Physics 221B and 231B.
Introduction to string theory. Bosonic and super string theories and their
spectra. String perturbation theory and conformal field theory. Nonlinear
sigma models and spacetime structure. String compactifications and
unification of forces. Non-perturbative results and methods; dualities and
branes.
(Winter) (4 credits)
PHYS 230B: String Theory
Physics 221B and 231B.
Introduction to string theory. Bosonic and super string theories and their
spectra. String perturbation theory and conformal field theory. Nonlinear
sigma models and spacetime structure. String compactifications and
unification of forces. Non-perturbative results and methods; dualities
and branes.
(Spring) (4 credits)
PHYS 231A: General Relativity and Relativistic Astrophysics
Prerequisites: Physics 210A-B.
The principle of equivalence, gravity as geometry, the
differential geometry of curved space time, Einstein's equations,
the relativistic stars, gravitational collapse, black holes,
observational and theoretical cosmology, gravitational radiation.
(Fall) (4 credits)
PHYS 231B: General Relativity and Relativistic Astrophysics
Prerequisites: Physics 210A-B.
The principle of equivalence, gravity as geometry, the
differential
geometry of curved space time, Einstein's equations,
the relativistic
stars, gravitational collapse, black holes,
observational and theoretical
cosmology, gravitational radiation.
(Winter) (4 credits)
PHYS 231C: Advanced Topics in General Relativity
Prerequisite: Physics 231B.
Topics covered will vary; may be repeated with the consent of the instructor.
This course may cover in different years such subjects as: the
astrophysics of compact objects, gravitational waves, the global
properties of spacetime, black holes, cosmology, and quantum
gravity.
(Spring) (4 credits)
PHYS 232: STLR STRCTR & EVOL
No prerequisite
Physics of stellar structure, equations of state and heat transport. Birth
of stars and physics of brown dwarfs. Thermonuclear burning and main
sequence stellar structure. Evolution of stars and mass loss. Origin,
physical structure, and cooling of compact objects.
(Winter) (4 credits)
PHYS 232: Stellar Structure and Evolution
Physics of stellar structure, equations of state and heat transport. Birth
of stars and physics of brown dwarfs. Thermonuclear burning and main
sequence stellar structure. Evolution of stars and mass loss. Origin,
physical structure, and cooling of compact objects.
(Spring) (4 credits)
PHYS 233: The Interstellar Medium
Theory and observations of interstellar space, and the physical process
that form and shape them. Atomic, molecular, and ionized gas; dust; heating
and cooling; shocks; generation and evolution of cosmic rays; formation of
stars.
(Winter) (4 credits)
PHYS 233A: Astrophysics
Prerequisite: consent of instructor.
Survey of modern astrophysics emphasizing phenomenology and current
research. Substantial student participation expected. Topics include the
solar system, stars, nebulae, galaxies, quasars, dark matter, large-scale
structure of the universe and cosmology.
(Winter) (4 credits)
PHYS 233B: Astrophysics
Prerequisite: consent of instructor.
Survey of modern astrophysics emphasizing phenomenology and
current
research. Substantial student participation expected.
Topics include the
solar system, stars, nebulae, galaxies,
quasars, dark matter, large-scale
structure of the universe and
cosmology.
(Spring) (4 credits)
PHYS 234: High Energy Astrophysics
Accretion power in a range of astrophysical contexts, from quasars to
galactic black holes. Rapid release of thermonuclear energy, Type I X-ray
bursts, classical novae, Type Ia supernovae. Relativistic jets from black
holes, non-thermal radiation processes, physics of gamma-ray bursts.
(Spring) (4 credits)
PHYS 235: Extragalactic Astrophysics
Nebular astrophysics, active galactic nuclei,
supermassive black holes, stellar dynamics,
galaxies, clusters, dark matter, gravitational
lensing, the intergalactic medium and galaxy
formation.
(Fall) (0 credits)
PHYS 236: Cosmology
Galaxy surveys, the cosmic distance ladder, redshift and expansion,
Friedmann models, classical tests, the cosmic microwave background, big
bang nucleosynthesis, structure formation.
(Fall,Winter) (4 credits)
PHYS 236: Cosmology
Galaxy surveys, the cosmic distance ladder, redshift and expansion,
Friedmann models, classical tests, the cosmic microwave background, big
bang nucleosynthesis, structure formation.
(Winter) (4 credits)
PHYS 250: Special Topics in Astrophysics
The course will vary from year to year according to the currents
of the times. Course may be repeated with a different topic.
() (4 credits)
PHYS 251: Special Topics in High Energy Physics
The course will vary from year to year according to the currents
of the
times. Course may be repeated with a different topic.
() (4 credits)
PHYS 252: Special Topics in Condensed Matter Physics
The course will vary from year to year according to the currents
of the
times. Course may be repeated with a different topic.
() (4 credits)
PHYS 253: Special Topics in Optics and Spectroscopy
The course will vary from year to year according to the currents
of the
times. Course may be repeated with a different topic.
() (4 credits)
PHYS 254: Special Topic in Experimental Physics
Special Topics in Experimental Physics. Topics include experimental techniques, the physics of experimental apparatus, and methods of analyzing experimental data. The content of the course will vary from year to year.
(Fall) (3 credits)
PHYS 255: Special Topics in Theoretical Physics
The course will vary from year to year according to the currents
of the
times. Course may be repeated with a different topic.
() (4 credits)
PHYS 257:
Course varies from year to year according to the currents of the times.
This course may be repeated provided topics vary. Same course as BMSE 257.
(Spring) (0 credits)
PHYS 257: Special Topics in Biophysics
Course varies from year to year according to the currents of the times.
This course may be repeated provided topics vary.
Same course as BMSE 257.
(Spring) (0 credits)
PHYS 260A: Colloquium
(Fall,Winter,Spring) (1 credit)
PHYS 260B: Seminar in Macromolecular Physics and Organic Solids
(Winter,Spring) (1 credit)
PHYS 260C: Seminar in General Relativity
Talks on topics in gravity and general relativity pertinent to
current doctoral research in the field.
(Fall,Winter,Spring) (1 credit)
PHYS 260D: Seminar in Theoretical Physics
(Fall,Winter,Spring) (1 credit)
PHYS 260E: Condensed Matter Seminar
(Fall,Winter,Spring) (1 credit)
PHYS 260F: Seminar in High Energy Physics
(Spring) (1 credit)
PHYS 260G: Graduate Seminar
Weekly seminar on topics of research currently being pursued in
the Department of Physics.
(Fall,Winter,Spring) (1 credit)
PHYS 260H: Seminar in Astrophysics and Cosmology
Talks on topics in astrophysics and cosmology pertinent to
current doctoral research in the field.
(Fall,Winter,Spring) (1 credit)
PHYS 260I: Seminar on Applied Physics
Seminar on Applied Physics. Discussions of topics in materials physics and condensed matter physics pertinent to current doctoral research.
(Fall,Winter,Spring) (1 credit)
PHYS 260J: Physics Outreach
Active participation in an outreach program that presents physics
demonstrations and experiments on the road to local schools in order to
provide a valuable learning experience for K-12 students
(Fall,Winter,Spring) (1 credit)
PHYS 260K: Science for the Public
Consent of instructor; open to graduate students in science and engineering disciplines and to undergraduate science and engineering majors.
Provides experience in communicating science and technology to
nonspecialists. The major components of the course are field work in
mentoring, a biweekly seminar, presentations to precollege students
and to adult nonscientists, and end-of-term research papers.
(Fall,Winter,Spring) (4 credits)
PHYS 500: Teaching Assistant Seminar
No unit credit allowed toward advanced degree. Required
course for all teaching assistants.
Covers development of teaching techniques especially oriented to
lower-division physics laboratory instruction. Theoretical
aspects covered at beginning of each quarter. Practical
techniques discussed including weekly meeting with class
instructor, formal evaluation, and videotaping analysis.
(Fall) (2 credits)
PHYS 503: Research Assistant Seminar
No unit credit allowed toward advanced degrees.
Research assistants must give one or more lectures in the subject
of their research in the Department of Physics. (Normally
combined with Physics 260G.)
() (2 credits)
PHYS 594: Special Topics
Prerequisite: consent of instructor.
Special seminar on research subjects of current interest. Each
staff member has a seminar identified by a number code listed in
the Schedule of Classes.
(Fall,Winter,Spring) (4 credits)
PHYS 595: Group Studies
Prerequisite: consent of instructor. May be repeated for credit
to a maximum of 12 units.
Each staff member has a group studies course identified by a
number code listed in the Schedule of Classes.
(Fall,Winter,Spring) (6 credits)
PHYS 596: Directed Reading and Research
Prerequisite: consent of instructor.
Individual tutorial. Reading and research in special topics
including work done as the basis for the dissertation. Each staff
member has a directed reading and research course identified by
a number code listed in the Schedule of Classes.
(Fall,Winter,Spring) (12 credits)
PHYS 599: Dissertation Preparation
Prerequisite: consent of instructor. May be repeated for credit
up to 24 units.
This course is reserved for writing the dissertation. Each staff
member has a research course identified by a number code listed
in the Schedule of Classes.
(Fall,Winter,Spring) (12 credits)
PHYS 951: None
None
None
(Winter) (4 credits)
PHYS CS 6: QUANTUM PHYSICS
Consent of Instructor.
QUANTUM PHYSICS. WAVE-PARTICLE DUALITY. PHOTONS. MATTER WAVES. THE UNCER-
TAINTY PRINCIPLE. THE SCHRODINGER EQUATION. POTENTIAL WELLS AND BARRIERS. THE
QUANTIZED SIMPLE HARMONIC OSCILLATOR. THE HYDROGEN ATOM.
(Spring) (4 credits)
PHYS CS 31: Newtonian Mechanics
(Fall) (5 credits)
PHYS CS 33: Waves, Kinetic Theory, and Relativity
Consent of Instructor
Sound waves. Fluid dynamics. Kinetic theory of matter. The
Maxwell-Boltzmann distribution. Specific heat. Entropy. The special theory
of relativity.
(Spring) (0 credits)
PHYS CS 35CS: Electromag & Optics
Consent of instructor.
Magnetic materials. AC circuits. Maxwell's equations. Electromagnetic
waves. Ray optics. Wave optics. Kirchhoff Diffraction Theory.
() (4 credits)
PHYS CS 36: Quantum Physics
Consent of instructor.
Wave-particle duality. Photons. Matter waves. The Uncertainty Principle.
The Schrodinger Equation. Potential wells and barriers. The quantized
simple harmonic oscillator. The hydrogen atom.
(Spring) (0 credits)
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