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1997-1998 - The University of Scranton

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ENGR. 250 Staff<br />

Engineering Mechanics-Statics 3 credits<br />

(Prerequisite: Physics 140; Pre or corequisite:<br />

Math 221) Various types <strong>of</strong> force systems; resultants<br />

and conditions <strong>of</strong> translational and rotational<br />

equilibrium; stress analysis <strong>of</strong> the parts <strong>of</strong> different<br />

types <strong>of</strong> structures by graphical, algebraic and vector<br />

methods; frictional forces; centroids and second<br />

moments <strong>of</strong> areas <strong>of</strong> solids. 3 hours lecture.<br />

ENGR. 251 Staff<br />

Engineering Mechanics-Dynamics 3 credits<br />

(Prerequisite: Engr. 250; Pre- or corequisite: Math<br />

222) Kinematics <strong>of</strong> particles and rigid bodies<br />

which include linear, curvilinear, angular and relative<br />

motions; inertia forces, impulse, momentum,<br />

work, energy and power; mechanical vibrations. 3<br />

hours lecture.<br />

ENGR. 252 Dr. Varonides, Pr<strong>of</strong>. Kalafut<br />

Solid State Materials Science 3 credits<br />

(Prerequisites: Physics 270, Math 222) <strong>The</strong> crystalline<br />

state <strong>of</strong> matter; multielectron atoms and the<br />

band theory <strong>of</strong> solids; quantum statistics; applications<br />

to p-n junction diodes including photodetectors,<br />

LEDs and photovoltaics; biopolar and field<br />

effect transistors; transistor modeling. 3 hours lecture.<br />

ENGR. 253 Dr. Connolly<br />

An Introduction to 1 credit<br />

Computer Aided Design<br />

(Prerequisites: Math 114, Cmps. 134) This course<br />

is an introduction to the methods <strong>of</strong> drafting and<br />

design using computer aided techniques. Topics to<br />

be covered include plane geometry construction,<br />

projection theory, sectional views, dimensioning,<br />

tolerancing and the development <strong>of</strong> working drawings.<br />

Extensive use will be made <strong>of</strong> commercially<br />

available CAD s<strong>of</strong>tware packages. 2 hours laboratory.<br />

ENGR. 254 Dr. Connolly<br />

3D Computer Aided Design 1 credit<br />

(Prerequisite: Engr. 253) This course is an<br />

advanced computer aided design lab with emphasis<br />

on three-dimensional techniques. Topics to be<br />

covered include wireframe and solid modeling,<br />

rendering and boolean operations. A number <strong>of</strong><br />

classes will be devoted to the use <strong>of</strong> a finite element<br />

program for mechanical analysis <strong>of</strong> CAD<br />

designs. Extensive use will be made <strong>of</strong> commercially<br />

available s<strong>of</strong>tware packages. 2 hours laboratory.<br />

ENGR. 350 Dr. Fahey<br />

Applied and Engineering 3 credits<br />

Mathematics<br />

(Prerequisite: Math. 222, Physics 141) First and<br />

second order differential equations with constant<br />

coefficients; Fourier series and Fourier<br />

Transforms; partial differential equations and<br />

boundary value problems; special functions, e.g.<br />

Bessel functions and Legendre polynomials; elementary<br />

probability theory. (Also listed as Phys.<br />

350.) 3 hours lecture.<br />

88<br />

ENGR. 352 Dr. Varonides<br />

Statistical and 3 credits<br />

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

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

from probability theory and atomic<br />

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

chemical potential and phase changes; refrigerators<br />

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

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

majors represented. (Also listed as Physics 352.) 3<br />

hours lecture.<br />

EE 240 Dr. Berger<br />

Introduction to Digital Circuits 3 credits<br />

Introduction to combinational and sequential digital<br />

logic circuits. Analysis and design techniques<br />

including Boolean Algebra and Karnaugh mapping.<br />

Use <strong>of</strong> the computer to simulate digital circuits.<br />

3 hours lecture.<br />

EE 241 Staff<br />

Circuit Analysis 4 credits<br />

(Prerequisite: Physics 141, Pre- or corequisite:<br />

Math 222) Intermediate course treating<br />

Kirchh<strong>of</strong>f’s Laws, resistive networks, systematic<br />

methods, network theorems, first and second order<br />

transients, and sinusoidal steady-state. Introduction<br />

to SPICE. 3 hours lecture and 2 hours laboratory.<br />

EE 243L Dr. DiStefano<br />

Digital System Design 2 credits<br />

Laboratory<br />

(Formerly EE 345L) Introduction to the design,<br />

construction and testing <strong>of</strong> digital logic circuits.<br />

Most <strong>of</strong> the major components <strong>of</strong> a computer will<br />

be investigated. Use <strong>of</strong> computer program to draw<br />

circuits and designs. 3 hours laboratory.<br />

EE 343 Dr. Varonides<br />

Electronic Circuits I 3 credits<br />

(Prerequisites: EE 241, Engr. 252) Analysis and<br />

design <strong>of</strong> analog electronic circuits using diodes,<br />

BJTs, and FETs. Emphasis is placed on amplifier<br />

circuits and their frequency dependence. 3 hours<br />

lecture.<br />

EE 343L Dr. Zakzewski<br />

Electronic Circuits I Lab 2 credits<br />

(Corequisite: EE 343) Experiments with diodes,<br />

BJTs, JFETs, and MOSFETs. Some <strong>of</strong> the experiments<br />

are short projects to introduce the student to<br />

the application <strong>of</strong> design principles. 3 hours laboratory.<br />

EE 344 Dr. Zakzewski<br />

Electronic Circuits II 3 credits<br />

(Prerequisite: EE 343, EE 343L) Laboratory oriented<br />

course designed to acquaint students with<br />

the operation and design <strong>of</strong> electronic instrumentation.<br />

Analysis <strong>of</strong> electronic instruments used in<br />

various applications and the design <strong>of</strong> special purpose<br />

instrumentation. Emphasis on use <strong>of</strong> operational<br />

amplifiers in design situations. 1 hour lecture<br />

and 3 hours laboratory.

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