COMPLETE GRADUATE COURSE LIST


501 Stellar Astrophysics (3)
The physics of stellar asmospheres and interiors. Mathematical treatments of radiative transfer, hydrodynamics, and stellar structure.

502 Galactic and Interstellar Astrophysics (3)
Structure and evolution of the Milky Way galaxy and the interstellar medium.

503 (Astronomy)Extragalactic Astrophysics and Cosmology (3)
Physics of galaxies and evolution of the universe.

503 (Physics)Digital Computing Methods in Physics (5)
Practical computer programming (FORTRAN, etc) with special emphasis on problems in physics.

505 Mechanics (3-5)
Prereq: degree in area outside physics, and perm. For students with grad rank, especially in multidisciplinary programs, whose preparation does not include equiv of 311.

506 Mechanics (3-5)
Prereq: degree in area outside physics, and perm. For students with grad rank, especially in multidisciplinary programs, whose preparation does not include equiv of 312.

507 Electricity and Magnetism I (3-5)
Prereq: degree in area outside physics, and perm. For students with grad rank, especially in multidciplinary programs, whose preparation does not include equiv of 427.

508 Electricity and Magnetism II (3-5)
Prereq: degree in area outside physics, and perm. For students with grad rank, especially in multidisciplinary programs, whose preparation does not include equiv of 428.

509 Electricity and Magnetism III (3-5)
Prereq: degree in area outside physics, and perm. For students with grad rank, especially in multidisciplinary programs, whose preparation does not include equiv of 429.

510 Observational Astrophysics (3)
Modern observational techniques and instrumentation.

511 Thermodynamics (4)
1st and 2nd laws of thermodynamics, phase changes, and entropy. Temperature, thermodynamic variables, equations of state, heat engines. 3 lec. 1 rec. problems.

512 Kinetic Theory and Statistical Mechanics (4)
Kinetic theory, transport phenomena, and introduction to classical and quantum statistics, 3 lec. 1 rec. problems.

514 Dynamic Meteorology I (5)
By permission only. Basic conservation laws, elementary fluid dynamics, circulation and vorticity. Mathematics related to coordinate systems related to meteorology. Thermodynamics of the atmosphere.

515 Dynamic Meteorology II (5)
Prereq: 514. Continuation of 514. Energy balance in the atmosphere, thermal physics of the atmosphere. Synoptic scale motions, atmospheric oscillations, numerical methods. Special topics in dynamical meteorology.

516 Mathematical Physics (4)
A first class in mathematical physics. Mathematical methods, such as multivariate calculus, differential equations, and Fourier analysis, will be disbussed and applied to a variety of physics problems. The emphasis in this course is on problem solving using these technique's, and on their unity across the discipline of physics.

520 Acoustics (3)
Vibration, sound radiation, sound propagation, and practical aspects of sound. (Offered odd years only.) 3 lec

523 Geometrical and Physical Optics (4)
Reflection, refraction, lenses, polarization, birefringence, interference, diffraction, coherence and selected introductory topics in modern optics. 4 lec, problems, 2 lab (optional).

529 Topics in Science for Elementary and Secondary schools (1-5)
Prereq: grad rank; perm. Selected topics related to he teaching of natural science in grades K-12. (May be repeated for credit. May not be used for credit toward a physics degree.)

531 Electronics Laboratory (3)
Experiments in electronic measurement techniques from simple a.c. and digital circuits to microprocessors and analyzers. 6 lab.

551 Quantum Physics (4)
Classical background, observables and operators, representations, symmetry and conservation laws, one and two dimensional problems, philosophical issues. 4 lec, problems.

553 Nuclear and Particle Physics (4)
Descriptive treatment of nuclear phenomena. Elementary theory of nucleon-nucleon interaction. Systematics of nuclear structure (shell model and collective model). Properties and interactions of fundamental particles. Devices and techniques of nuclear and high energy physics. 3 lec. problems.

561 Cellular and Molecular Biophysics (4)
Introduction to the physical principles that underlie phenomena in cell biology and the properties of biomolecules. Topics covered will include an introduction to molecular biology, biorheology, Brownian motion, molecular interaction in macromolecules, protein and nucleic acid structure, physics of biopolymers, chemical kinetics, mechanical and adhesive properties of biomolecules, molecular manipulation techniques, cell membrain structure, membrane channels and pumps, and molecular motors. 4 lec.

571 Solid State Physics (4)
Fundamental properties of solid state of matter. 3 lec, problems

577 Electronic Device Physics (4)
Physical principles of electronic devices. Overview of electronic transports in solids, with applications to diodes, bipolar transistors and field-effect transistors. Heterostructures and low-dimensional physics and devices. Selected condensed matter phenomena with electronic device applications: Resonant tunneling, Landauer formalism, single-electron physics, molecular electronics and spintronics.

601 Graduate Laboratory (1-4)
Selected experiments from condensed matter and surface physics requiring accurate measurements with refined apparatus.

604 Experimental Techniques (1-5)
Introduction to experimental techniques of physics including experiments of particular focus.

605 Classical Mechanics (5)
Basic analytical techniques for point mass systems and rigid bodies in traditional and contemporary perspective; mathematical complements. 3 lec, intensive problems.

606 Classical Mechanics (5)
Continuation of 605. See 605 for description. 3 lec, intensive problems.

607 Electrodynamics (5)
Deductive development from Maxwell's equations, including recent advances; special theory of relativity and applications to charged particle problems; mathematical complements. 3 lec, intensive problems.

608 Electrodynamics (5)
Continuation of 607. See 607 for description. 3 lec, intensive problems.

609 Electrodynamics (5)
Continuation of 607-608. Radiation, wave guides, classical sources of radiation. 3 lec, intensive problems. ^M

611 Quantum Mechanics (5)
Brief review of Schrodinger equation; elements of scattering theory, phase shift analysis, and Born approximation; operators, matrices, angular momentum and spin; basic semi-classical, perturbation, and variational techniques; exchange and symmetry effects; atomic spectra and electromagnetic transitions; diverse applications; introduction to second quantization; mathematical complements. 3 lec, intensive problems.

612 Quantum Mechanics (5)
Continuation of 611. See 611 for description. 3 lec, intensive problems.

613 Mathematical Physics Practicum (2)
Selected mathematical techniques important to physicists.

615 Mathematical Methods in Physics (5)
Contemporary and classical mathematics to complement basic graduate courses, particularly series, series solutions of differential equations, Fourier series and integral transformations, complex variables, and special functions.

616 Mathematical Methods in Physics (5)
Continuation of 615. See 615 for description. 3 lec, intensive problems.

617 Methods of Theoretical Physics (5)
Selected advanced mathematical and computational methods employed in theoretical physics. 4 lec problems

623 Statistical Mechanics (5)
Review of ensembles, non-interacting classical, Fermi, and Bose systems, theory of phase transitions and introduction to renormalization group methods, Monte Carlo techniques, classical theory of fluids and a brief introduction to non-equilibrium statistical mechanics. 4 lec, intensive problems.

650 General Relativity (5)
Introduction to general relativity, Einstein's field equations, gravitational waves, singular waves, singular solutions, elements of relativistic cosmology, 4 lec.

695 Thesis (as recommended by dept)

696 Special Study (1-15)
Supervised individual study at beginning grad level. Can be used for writing M.S. or M.A. Paper

721 Physical Acoustics (4)
General principles of interactions of sound with matter, thermoacoustics. 3 lec problems

726 Particles and Nuclei (4)
Experimental and basic theoretical aspects of elementary particles and nuclei and their interactions. Elements of nuclear strucure and nuclear reactions, 3 lec, problems.

727 Particles and Nuclei (4)
Continuation of 726. See 726 for description, 3 lec, problems.

728 Particles and Nuclei (4)
Properties and interactions of subnuclear particles. The static quark model. Experimetnal basis of the Standard Model of particles and their interactions including electroweak and quantum chromodynamics. 3 lec, problems.

731 Condensed Matter Physics (4)
Structure, dynamics, electronic, thermal, transport and materials properties, and collective phenomena (magnetism, superconductivity, superfluidity, patterning) in bulk and surface condensed matter systems. 3 lec, problems.

732 Condensed Matter Physics (4)
Continuation of 731. See 731 for description, 3 lec, problems.

733 Condensed Matter Physics (4)
Continuation of 731-732. See 731 for description, 3 lec, problems.

735 Relativistic Quantum Theory (4)
Relativistic quantum mechanics; Dirac and Klein-Gordon equations; Hilbert spaces; propagator and diagram techniques; many-body theory; applications. 3 lec, problems.

736 Quantum Many- Body Theory (4)
Basic techniques of quantum many-body theory, applications 3 lec, problems.

737 Quantum Field Theory (3)
Basic quantum field theory: quantum electrodynamics, introduction to gauge fields. 3 lec.

741 Statistical Mechanics and Thermodynamics (2-4)
Selected topics.

742 Statistical Mechanics and Thermodynamics (2-4)
Continuation of 741. See 741 for description.

744 Methods in Condensed Matter Theory (3)
Selected topics in modern quantum methods applied to condensed matter systems. Examples: density functional, ab initio molecular dynamics, thermal Green functions, Monte Carlo, with applications to superconductivity, liquids, glasses, surface phenomena, etc. 3 lec.

751 Particle Theory (3)
Theoretical formulations and current questions regarding nature of, and interactions between, subnuclear particles, 3 lec.

755 Nuclear Theory (3)
Theory of nuclear reactions and nuclear models, 3 lec.

871 Advanced Quantum Theory (3)
Selected topics, 3 lec.

875 Advanced Nuclear Theory (3)
Selected topics of current interest, 3 lec.

877 Advanced Condensed Matter Theory (3)
Selected topics of current interest, 3 lec.

891 Colloquium (1)
Selected topics of current interest. Required of all grad. Students.

893 Seminar (1-4)
Thorough study of important area. Experimental techniques, classic experiments, and statistical methods discussed.

894 Special Topics (1-4)
Lectures on special topics such as optical physics, continuum mechanics, advanced quantum theory, or other subjects not specified under regular course headings.

895 Doctoral Research and Dissertation (as recommended by dept)

896 Special Study (1-15)
Supervised individual study in preparation for research.

897 Research Seminar (1-4)
Intensive study of selected subjects by special groups. (A) nuclei and particles; (B) high energy; C) acoustics; (D) condensed matter and surface science; (E) theoretical; (F) astrophysics.

899 Problems in College Teaching (1-3)
For all grad students assigned to teaching duties.


Last modified on 06/19/2006

 


Dept. of Physics & Astronomy, Clippinger Lab 251B, Athens, OH 45701
Tel: 740-593-1718 Fax: 740-593-0433 Email:physics@ohio.edu