Structure and properties of matter, kinematics, dynamics, statics, and conservation of energy and momentum. Lecture and lab.
Corequisite: Ma 103.
Rotation, wave motion, fluids, heat, thermodynamics, electricity, magnetism and optics. Lecture and lab.
Prerequisite: Phy 101.
An introduction to physics as an academic subject, career possibilities and basic laboratory experience in physics experiments.
Corequisite: Phy 101.
Corequisite: Phy 102.
Mechanics (including force, kinematics, dynamics, rotational motion, fluids and wave motion) and thermodynamics. Lecture and lab.
Prerequisite: Ma 200.
Corequisite: Ma 201.
Electricity and magnetism including capacitance, resistance, DC circuits, Magnetic fields, magnetic induction, AC circuits, Maxwell's equations, electromagnetic waves, properties of light, optical images, interference and diffraction. Lecture and lab.
Prerequisites: Phy 201, Ma 201.
Corequisite: Phy 201.
Corequisite: Phy 202.
An advanced lab course involving an in-depth research project or advanced physics experiments. Special focus on numerical methods of data analysis.
Prerequisite: Phy 202.
Electrostatic and magnetostatic applications of divergence, gradient, and curl, dielectrics and dielectric media, field boundary value problems, with applications to engineering.
Prerequisites: Phy 202, Ma 302.
Magnetostatics, magnetic properties, induction, Maxwell's equations and propagation of electromagnetic radiation.
Prerequisites: Eng 308 or Phy 308 Prerequisite.
Matrix and vector analysis, Newtonian mechanics, relativistic mechanics, gravitational attraction and potentials, oscillatory motion and nonlinear oscillations.
Prerequisites: Phy 202, Ma 301.
Calculus of variations, Lagrangian mechanics, Hamiltonian mechanics, celestial mechanics, central force motion, multi-particle systems, non-inertial reference frames, rigid body motion, mechanical wave motion and Fourier analysis.
Prerequisite: Phy 356.
Collisional and transport properties of gases; conservation of energy; ideal gas energetics; enthalpy, entropy, and free energy calculations; statistical mechanics; heat engines; engineering applications of thermodynamics.
Prerequisites: Phy 202, Ma 301.
Geometrical and physical optics for understanding theoretical and practical aspects of modern optical technology. Studies include laser fundamentals, holography, photonics, image processing and optical test devices. Lecture and lab.
Prerequisite: Phy 202.
Historical development of Modern Physics beginning with special relativity, including important topics from quantum physics, atomic structure and models, the hydrogen atom, molecules, solids, nuclear physics, lasers, elementary particles, statistical mechanics, astrophysics, cosmology, etc. Lecture and lab.
Prerequisite: Phy 202.
Corequisite: Ma 301.
Review of the history of Quantum Theory. The uncertainty principle, the Schrodinger equation, the free particle, square well potentials, harmonic oscillator, the hydrogen atom, angular momentum and other selected wave mechanics problems.
Prerequisites: Phy 408, Ma 302.
Review of barrier problems, the harmonic oscillator, and angular momentum using matrix methods. Problems involving perturbation theory, one-electron atoms, magnetic moments, spin, the helium atom and scattering theory.
Prerequisite: Phy 409.
Corequisite: Phy 408.
Research project in physics under faculty supervision.
Corequisite: Phy 403.
Student collaboration in ongoing research with a faculty member in his research area with a goal of publication and presentation of results at an undergraduate or professional conference.
Student collaboration in ongoing research with a faculty member in his research area with a goal of publication and presentation of results at an undergraduate or professional conference.
Student collaboration in ongoing research with a faculty member in his research area with a goal of publication and presentation of results at an undergraduate or professional conference.