Untitled - University of New Orleans
Untitled - University of New Orleans
Untitled - University of New Orleans
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PHYS 6205 Digital Filtering Image Proc<br />
3 cr.<br />
Prerequisite: PHYS 4205 or consent <strong>of</strong> department. The discrete Fourier<br />
transform and the fast Fourier transform in physical applications;<br />
noise characteristics and techniques <strong>of</strong> noise removal; onedimensional<br />
image enhancement and restoration; two-dimensional<br />
image processing; and applications to seismic data, pictures, and<br />
other physical data.<br />
PHYS 6206 Image Restoration & Enhancemnt<br />
3 cr.<br />
Prerequisite: PHYS 6205 or consent <strong>of</strong> department. Restoration and<br />
enhancement <strong>of</strong> one- and two-dimensional physical data by noise<br />
removal, deconvolution, and other techniques <strong>of</strong> digital filtering;<br />
the Wiener filter, maximum entropy, and maximum likelihood;<br />
iterative techniques; spectral windows; and filters for seismic data<br />
and images.<br />
PHYS 6207 Digtl Filt & Spect Analysis I<br />
3 cr.<br />
Prerequisites: PHYS 6206 and a background in matrix algebra (such<br />
as MATH 2511 or PHYS 4201) or consent <strong>of</strong> department. Brief review<br />
<strong>of</strong> transform and random process theory, review <strong>of</strong> matrix algebra,<br />
classical spectral estimation, parametric models for random processes,<br />
autoregressive spectrum properties and estimation ARMA<br />
spectral estimation, Prony method, minimum variance spectral<br />
estimation, eigenvector approaches, multichannel and two-dimensional<br />
spectral estimation.<br />
PHYS 6208 Dig Filt & Spect Analysis II<br />
3 cr.<br />
Prerequisites: PHYS 6206 and a background in matrix algebra (such<br />
as MATH 2511 or PHYS 4201) or consent <strong>of</strong> department. Brief review<br />
<strong>of</strong> transform and random process theory, review <strong>of</strong> matrix algebra,<br />
classical spectral estimation, parametric models for random processes,<br />
autoregressive spectrum properties and estimation, ARMA<br />
spectral estimation, Prony method, minimum variance spectral<br />
estimation, eigenvector approaches, multichannel and two-dimensional<br />
spectral estimation.<br />
PHYS 6301 Classical Mechanics<br />
3 cr.<br />
Prerequisite: Physics 3301 or consent <strong>of</strong> department. Variational formulation<br />
<strong>of</strong> mechanics due to Lagrange and Hamilton. Kinematics<br />
and dynamics <strong>of</strong> particles and rigid bodies, classical fields, and<br />
selected topics.<br />
PHYS 6302 Wave Propagation<br />
3 cr.<br />
Prerequisites: PHYS 4322 and 4201 or consent <strong>of</strong> department. Wave<br />
propagation in continuous media with emphasis on geophysical<br />
applications, normal mode theory, reflection and refraction, diffraction,<br />
dispersion.<br />
PHYS 6321 Acoustics I<br />
3 cr.<br />
Prerequisites: PHYS 4201 and 4322 or consent <strong>of</strong> department. Wave<br />
theory <strong>of</strong> sound: reflection, transmission, and excitation <strong>of</strong> plane<br />
waves; sources <strong>of</strong> acoustic radiation, geometrical acoustics, and ray<br />
theory; scattering and diffraction; acoustic waveguides and normal<br />
mode propagation; computational techniques; dissipative processes<br />
and nonlinear effects; selected topics <strong>of</strong> interest as time permits.<br />
PHYS 6322 Acoustics II<br />
3 cr.<br />
Prerequisites: Physics 4201 and 4322 or consent <strong>of</strong> department. Wave<br />
theory <strong>of</strong> sound: reflection, transmission, and excitation <strong>of</strong> plane<br />
waves; sources <strong>of</strong> acoustic radiation, geometrical acoustics, and ray<br />
theory; scattering and diffraction; acoustic waveguides and normal<br />
mode propagation; computational techniques; dissipative processes<br />
and nonlinear effects; selected topics <strong>of</strong> interest as time permits.<br />
PHYS 6325 Underwater Acous Syst Analysis<br />
3 cr.<br />
Prerequisites: Physics 4322 and Physics 4205 or consent <strong>of</strong> department.<br />
Underwater acoustics, Fourier methods, noise, beamforming,<br />
target characteristics, statistical basis for performance analysis,<br />
examples <strong>of</strong> acoustic system analysis. Three hours <strong>of</strong> lecture per<br />
week.<br />
PHYS 6331 Principles <strong>of</strong> Ocean Physics I<br />
3 cr.<br />
Prerequisites: PHYS 4501 and PHYS 3301 or Mechanical Engineering<br />
2750 or consent <strong>of</strong> department. First Semester: an introduction to<br />
physical oceanography, including forces, hydrodynamics, thermodynamics,<br />
geophysical fluid dynamics, waves, tides, and currents.<br />
Second Semester: a study <strong>of</strong> the physics <strong>of</strong> the ocean, emphasizing<br />
underwater acoustics, electromagnetics in the ocean, and optics <strong>of</strong><br />
the sea.<br />
PHYS 6332 Principles <strong>of</strong> Ocean Physics II<br />
3 cr.<br />
Prerequisites: PHYS 4501 and PHYS 3301 or Mechanical Engineering<br />
2750 or consent <strong>of</strong> department. First Semester: an introduction to<br />
physical oceanography, including forces, hydrodynamics, thermodynamics,<br />
geophysical fluid dynamics, waves, tides, and currents.<br />
Second Semester: a study <strong>of</strong> the physics <strong>of</strong> the ocean, emphasizing<br />
underwater acoustics, electromagnetics in the ocean, and optics <strong>of</strong><br />
the sea.<br />
PHYS 6381 Advanced Seismic Techniques<br />
3 cr.<br />
Prerequisites: Physics/Geophysics 4381 or consent <strong>of</strong> department.<br />
Velocity analysis, deconvolution and filtering, tau-p slant stacking,<br />
velocity filters, 3-D techniques, vertical seismic pr<strong>of</strong>iles, migration,<br />
forward modeling and synthetics, inverse theories and modeling,<br />
interpretation, use and development <strong>of</strong> seismic data processing<br />
computer programs, including graphics and displays. Two hours <strong>of</strong><br />
lecture and two hours <strong>of</strong> computer laboratory per week.<br />
PHYS 6401 Quantum Mechanics I<br />
3 cr.<br />
Prerequisites: advanced calculus and consent <strong>of</strong> department. The<br />
conceptual basis <strong>of</strong> quantum mechanics and its relation to classical<br />
mechanics. Quantum states and energies are determined for simple<br />
systems with emphasis on the use <strong>of</strong> symmetries and other general<br />
features <strong>of</strong> the systems.<br />
PHYS 6402 Quantum Mechanics II<br />
3 cr.<br />
Prerequisite: PHYS 6401. Application <strong>of</strong> the quantum mechanics to<br />
problems in atomic, solid state, and nuclear physics, with an introduction<br />
to approximation methods.<br />
PHYS 6501 Electromagnetic Theory I<br />
3 cr.<br />
Prerequisite: PHYS4201 and 6301 or consent <strong>of</strong> department. Electrostatics,<br />
magnetostatics, and Maxwell’s equations.<br />
PHYS 6502 Electromagnetic Theory II<br />
3 cr.<br />
Prerequisite: PHYS 6501 or consent <strong>of</strong> department. Electromagnetic<br />
radiation, special relativity, and diffraction theory.<br />
PHYS 6621 Statistical Mechanics<br />
3 cr.<br />
Offered as needed. A survey <strong>of</strong> the principles <strong>of</strong> classical and quantum<br />
statistics with application to special problems.<br />
PHYS 6701 Atomic Theory<br />
3 cr.<br />
Prerequisite: PHYS 6401 or consent <strong>of</strong> department. Quantum theory<br />
<strong>of</strong> atomic structure and spectra, theory <strong>of</strong> radiation, selection rules<br />
and quantum theory <strong>of</strong> elastic and inelastic atomic collisions.<br />
PHYS 6721 Molecular Structure<br />
3 cr.<br />
Prerequisite: PHYS 6401 or consent <strong>of</strong> department. Classification<br />
<strong>of</strong> molecular spectra, rotation, and vibration <strong>of</strong> the diatomic molecule,<br />
finer details <strong>of</strong> infrared and Raman spectra. Rotation and<br />
vibration <strong>of</strong> polyatomic molecules and electronic states.<br />
PHYS 6901 Condensed Matter & Matrls Phys<br />
3 cr.<br />
Prerequisites: PHYS 4901 and 6401 or consent <strong>of</strong> department. A<br />
detailed discussion <strong>of</strong> quantum theory and experiments in condensed<br />
matter and materials physics with emphasis on current<br />
research problems.<br />
<strong>University</strong> <strong>of</strong> <strong>New</strong> <strong>Orleans</strong>/340