(4 lecture, 3 laboratory) First semester of algebra-based physics. Areas covered are classical mechanics and heat. A solid understanding of algebra, geometry and trigonometry is necessary to pass this course.
(4 lecture, 3 laboratory) Second semester of algebra-based physics. Areas covered are waves, sound, light, electricity, magnetism, and modern physics. A solid understanding of algebra, geometry and trigonometry is necessary to pass this course.
(4 lecture, 3 laboratory) First semester of calculus-based introductory physics. Areas covered are classical mechanics and heat. A solid understanding of algebra, geometry and trigonometry is necessary to pass this course.
Concurrent Prerequisite
MATH 131 with a minimum grade of D-
(4 lecture, 3 laboratory) Second semester of calculus-based introductory physics. Areas covered are waves, sound, light, electricity and magnetism. A solid understanding of algebra, geometry and trigonometry is necessary to pass this course.
Focus on current topics in physics not covered in existing departmental offerings. Oral presentation required. Class attendance mandatory.
Vector calculus, integration techniques, complex variables, ordinary differential equations, and Taylor series. Emphasis on applications to advanced physical sciences and engineering.
Relativity, atomic and nuclear physics, cosmology, and introduction to quantum mechanics.
(3 Laboratory) Lab course introducing students to error analysis techniques and experiments in modern physics, including atomic physics, radioactivity, and quantum effects.
Concurrent Prerequisite
PHYS 321 with a minimum grade of D-
Intermediate course in classical mechanics. Reference frames, Newton's Laws, work and energy, oscillatory, central force and rigid body motion, and Lagrangian and Hamiltonian dynamics.
Intermediate study of classical electromagnetism. Electrostatics, magnetostatics, electric and magnetic fields in matter, and electrodynamics.
Continued intermediate study of classical electromagnetism. Electrodynamics continued, electromagnetic waves and radiation, electrodynamics and relativity.
(2 lecture, 3 laboratory) Analysis of analog and digital circuits.
Wave functions and probability, Schrodinger equation, Dirac notation and matrix formulation of quantum mechanics.
(3 lecture, 3 laboratory) Geometrical, wave, and physical optics, lenses, mirrors, and optical instruments.
(2 lecture, 2 laboratory) Introduction to MATLAB with specific applications to physical problems, simulation of systems, and data acquisition and analysis.
(1 lecture, 3 laboratory) Advanced laboratory skills and analysis methods in physics.
Independent experimental, computational or theoretical research in physics. Conferences with research advisor and a research proposal are required. (Minimum of 37.5 clock hours per credit hour.)
Supervised introduction to college-level physics and astronomy instruction. Students will gain experience in lesson planning, assignment creation, grading, and instruction.
Special Notes
Consent of the Instructor required
Boundary value problems, partial differential equations, Laplace and Fourier transforms, special functions, and matrix algebra. Emphasis on applications to advanced physical sciences and engineering.
Individualized investigation under the direct supervision of a faculty member. (Minimum of 37.5 clock hours required per credit hour.)
Special Notes
Maximum concurrent enrollment is two times.
Kinetic theory, equations of state, laws of thermodynamics, and applications of statistical mechanics.
Perturbation theory, approximation methods, scattering, many-particle systems, and advanced topics.
Lasers and atomic theory, holography, fiber optics, and electro-optic devices.
Nuclear properties and models, radioactive decay, fusion and fission, radiation detection, and elementary particles.
Introduction to solid state physics, the largest subfield of condensed matter physics. Methods from classical, quantum, and statistical mechanics will be applied to different solid materials to understand their mechanical, electrical, magnetic, and thermal properties. Materials of engineering importance such as semiconductors, superconductors, and magnetic materials will be covered.
(1 lecture, 3 laboratory) Advanced laboratory projects.
Independent experimental, computational or theoretical research in physics. Conferences with research advisor and a paper and oral presentation are required.
Topics of special interest in areas of physics not covered by other courses.