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1997-1998 - The University of Scranton

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PHYS 351 Staff<br />

Mathematical Physics II 3 credits<br />

Functions <strong>of</strong> a Complex Variable. Infinite Series in<br />

the Complex Plane. <strong>The</strong>ory <strong>of</strong> Residues. Conformal<br />

Mapping. Fourier and Laplace Transforms.<br />

Advanced Partial Differential Equations. Boundary<br />

Value Problems in Physics. Green’s Functions.<br />

PHYS 352 Dr. Varonides<br />

Statistical and 3 credits<br />

Engineering <strong>The</strong>rmodynamics<br />

(Prerequisite: Phys. 270) Derivation <strong>of</strong><br />

<strong>The</strong>rmodynamics from probability theory and atomic<br />

physics; Laws <strong>of</strong> <strong>The</strong>rmodynamics; Maxwell relations;<br />

chemical potential and phase changes; refrigerators and<br />

heat pumps; theory <strong>of</strong> gasses and theory <strong>of</strong> solids.<br />

Special topics dependent upon interests <strong>of</strong> majors represented.<br />

(Also listed as Engr. 352). 3 hours lecture.<br />

PHYS 371 Staff<br />

Advanced Mechanics 3 credits<br />

(Prerequisite: Math 341) Comprehensive course in<br />

Newtonian dynamics, Variational principles,<br />

Lagrange’s and Hamilton’s equations; theory <strong>of</strong><br />

small oscillations and specialized non-linear differential<br />

equations in mechanical systems.<br />

PHYS 372 Pr<strong>of</strong>. Kalafut<br />

Atomic and LASER Physics 3 credits<br />

(Prerequisite: Physics 270 & Math 222) Intensive<br />

and quantitative treatment <strong>of</strong> modern atomic<br />

physics using the principles and techniques <strong>of</strong><br />

quantum mechanics. <strong>The</strong> study <strong>of</strong> energy levels,<br />

pumping, feedback and transition rates in lasers.<br />

Required <strong>of</strong> physics majors and highly recommended<br />

elective for Electronics Engineers. Three<br />

hours lecture with optional laboratory.<br />

PHYS 447 Dr. Varonides<br />

Electromagnetics I 3 credits<br />

(Prerequisites: Physics 270, Phys. 350) Analytic<br />

treatment <strong>of</strong> electrical and magnetic theory; vector<br />

calculus <strong>of</strong> electrostatic fields; dielectric materials;<br />

vector calculus <strong>of</strong> magnetic fields. (Also listed as<br />

EE 447). 3 hours lecture.<br />

PHYS 448 Dr. Zakzewski<br />

Electromagnetics II 3 credits<br />

(Corequisite: Phys. 447) Magnetic materials, electromagnetic<br />

induction, displacement currents,<br />

Maxwell’s equations; radiation and waves; applications<br />

include Transmission lines, wave guides and<br />

antennas. (Also listed as EE 448). 3 hours lecture.<br />

PHYS 448 L Dr. Zakzewski<br />

Electromagnetics Design Laboratory 1 credit<br />

(Corequisite: Phys. 448) Laboratory designed to<br />

emphasis and reinforce the experimental basis <strong>of</strong> elec-<br />

tromagnetism. Multi-week projects require the student<br />

to perform experiments that measure fundamental<br />

electrical constants, the electrical and magnetic properties<br />

<strong>of</strong> matter, and the properties <strong>of</strong> electromagnetic<br />

waves. (Also listed as EE 448 L). 2 hour laboratory.<br />

PHYS 406 Dr. Fahey<br />

Non-linear Systems and Chaos 3 credits<br />

This course develops the equations that describe<br />

several important non linear systems in mechanics<br />

and in electronics and then develops the solutions.<br />

Concepts such as limit cycles, chaotic attractors,<br />

hysteresis, stability and phase space will be defined<br />

and used to understand complex systems.<br />

Classically important oscillators such as the Duffing<br />

oscillator, the van der Pol oscillator and the Lorenz<br />

equations will be solved at several different levels<br />

<strong>of</strong> approximation with several ODE solvers. Chaos,<br />

bifurcations, the routes to chaos, chaotic maps and<br />

the correspondence between maps and Poincare<br />

sections <strong>of</strong> physical systems will be studied.<br />

PHYS 473 Dr. Connolly<br />

Optics 3 credits<br />

(Prerequisites: Physics 270, Math 341 or Physics<br />

350) An introduction to the principles <strong>of</strong> geometrical,<br />

physical and quantum optics. Topics to be<br />

covered include ray and wave optics, superposition,<br />

diffraction, interference, polarization, Fourier<br />

methods, and coherence theory. Practical devices<br />

such as photodetectors and light sources will also<br />

be discussed. 3 hours lecture.<br />

PHYS 474 Dr. Fahey<br />

Acoustics 3 credits<br />

(Prerequisite: Phys. 350) This course covers the<br />

fundamentals <strong>of</strong> vibration as applied to one, two<br />

and three dimensional systems with varied boundary<br />

conditions. Transmission, absorption, attenuation,<br />

and radiation are covered. Resonators and<br />

waveguides and filters are studied along with the<br />

fundamentals <strong>of</strong> transducers. Acoustical issues in<br />

hearing are covered, time pertaining.<br />

PHYS 493 - 494 Dr. Spalletta and Staff<br />

Undergraduate Physics 6 credits<br />

Research I -II<br />

(Prerequisite: Permission <strong>of</strong> the Instructor)<br />

Students choose a research project sponsored by a<br />

member <strong>of</strong> the department and approved by the<br />

instructor and Chairperson. Students gain experience<br />

with research literature, techniques, and<br />

equipment. Weekly seminars are given on<br />

Quantum Mechanics, mathematics tools, and topics<br />

related to ongoing research projects. A written<br />

report is required.<br />

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