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Courses
Descriptions
Foundations
of Physics
Physics 103
Studies
Newton's description of motion in cases which can be handled
by algebra. Topics include dimensional analysis, conservation
laws, and elasticity theory, with applications across the
sciences. |
Force,
Motion, and Energy
Physics
115
Studies
the mechanics of material objects. Topics include Newton's
laws, projectile motion, circular motion, momentum, kinetic
and potential energy, angular momentum, gravitation, and
oscillations. Calculus is used at the level of Calculus
I. |
Introduction
to Robotics
Physics 125 (Computer Science 125)
This
course will provide the student with a hands-on introduction
to robotics. Via an intensive lab component, the course
will introduce and apply concepts in programming, electronics,
and mechanical design. Much of the course will focus on
a final design project wherein students will be challenged
to design, prototype, and build a functional robot whose
application is directed at assisting a disabled person.
Lectures will introduce lab material, as well as topics
in applied robotics, biomechanics, and issues of machine-human
interaction.



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Waves
and Electromagnetism
Physics 216
Topics
include: electromagnetism, emphasizing fields and energy;
electrostatics; electric circuits; magnetism; induction;
and electromagnetic radiation. Introduces both mechanical
and electromagnetic wave phenomena. Additional topics chosen
according to the interests of the class and instructor.
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Waves
and Particles
Physics 301
A comprehensive
treatment of wave phenomena, particularly light, leading
to an introductory study of quantum mechanics. Topics include
wave propagation, polarization, interference and interferometry,
diffraction, X-ray and electron diffraction, the wave nature
of particles, the uncertainty principle, and Schroedinger's
equation in one dimension. |
Quantum
Mechanical Phenomena
Physics 302
The
application of quantum mechanics to selected systems. The
hydrogen atom and multi-electron atoms are studied in depth,
with emphasis on angular momentum, electron spin, and the
Pauli exclusion principle. Principles developed are then
applied to other systems, such as molecules, Bose and Fermi
gases, condensed matter, nuclei and elementary particles,
chosen according to the interests of the class and the instructor. |
Introduction
to Mathematical Methods for Scientists
Physics 303
Topics
include infinite series, complex numbers, partial differentiation,
multiple integration, selected topics in linear algebra
and vector analysis, ordinary differential equations, and
Fourier series.
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Electronics
Physics 308
This
course is a study of electrical circuits and components
with emphasis on the underlying physical principles; solid-state
active devices with applications to simple systems such
as linear amplifiers; feedback-controlled instrumentation;
and analog and digital computing devices. |
Analytical
Mechanics
Physics 315
Newton's
great innovation was the description of the world by differential
equations, the beginning of physics as we know it. This
course studies Newtonian mechanics for a point particle
in 1, 2, and 3 dimensions, systems of particles, rigid bodies,
and the Lagrangian and Hamiltonian formulations.
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Methods
of Applied Mathematics
Physics 324 (Mathematics 324)
This
course is an introduction to theories and techniques important
to applied mathematics, such as special functions, calculus
of variations, theory of functions of a complex variable,
the algebra of vector spaces, solution of partial differential
equations, Green's functions, integral transform methods,
and probability and statistics. Topics selected according
to class interests. |
Electromagnetic
Theory
Physics 325
This
course presents the development of mathematical descriptions
of electric and magnetic fields; study of interactions of
fields with matter in static and dynamic situations; mathematical
description of waves; and development of Maxwell's equations
with a few applications to the reflection and refraction
of light and microwave cavities. |
Statistical
Physics and Condensed Matter
Physics 326
Topics
include: the development of the general problem of many-particle
systems and the laws of thermodynamics from fundamental
quantum and probability concepts; applications to ideal
gases, paramagnetism, and black-body radiation; and an introduction
to the physics of the solid state, including crystal structure,
free electron and band theory of metals, lattice vibrations,
and specific heats of solids. |
Quantum
Mechanics
Physics 336
This
course is an introduction to formal quantum theory: the
wave function and its interpretation, observables and linear
operators, matrix mechanics and the uncertainty principle;
solutions of one-dimensional problems; solutions of three-dimensional
problems and angular momentum; physics and perturbative
methods. |
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