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Mechanical Engineering
Graduate
Courses (MEEN)
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5304* Advanced Engineering Analysis
The course covers selected topics of advanced
engineering mathematics and their applications to engineering. The topics include analytical and numerical solutions of
ordinary and partial differential equations, vector differential calculus and integral theorems, probability and
statistics, and optimization.
5309 Problems in Design and Finite Analysis 3:3:0
Advanced techniques and analysis involving
microcomputers, finite elements, finite differences. May be repeated for credit when the subject matter varies.
5315 Theory of Elasticity
General analysis of stress and strain, equations of
equilibrium and compatibility, stress and strain relations, two dimensional stress problems, elastic energy
principles, thermo-elastic problems. May be repeated for credit when the subject matter varies.
5335 Mechanical Vibrations 3:3:0
Topics in mechanical vibrations including an
introduction to the theory of vibrations, mechanical vibration
analysis methods using simulation based design, mechanical
vibration measurement and monitoring, interpretation of vibration measurements data and other mechanical
vibration topics as appropriate.
5356 Process Modeling with Neural Networks 3:3:0
Multivariate Statistics, Genetic Algorithm, and
empirical modeling tools such as Partial Least Squares, Monotonic/Bounded Derivative Neural Network, and Inferential
Property Estimation using state-of-the-art computer software. These modeling tools take advantage of the
large amount of process data now available in process plants for data mining.
5367* Intro to CFD 3:2:3
Introduction to basic concepts underlying
computational fluid dynamics (CFD) including derivation of governing equations, discretization methods, grid generation,
solution algorithms, numerical solution methods, error prediction, and interpretation of numerical results. A
commercial CFD software package, CFX, is use to solve practical engineering fluid flow problems.
Prerequisite: Fluid Mechanics, Heat Transfer,
Numerical Methods, MEEN 5366.
5368* Combustion Theory 3:3:0
Fundamental principals of combustion theory and
their applications in different engineering problems such as furnaces, automotive engines, gas turbines, and
rockets. Topics covered include thermo chemistry, fuels, chemical kinetics, conservation equations for reacting flows,
premixed and diffusion flames, droplet burning, and pollutant emissions, introduction to numerical modeling of
combustion and combustion measurement techniques.
Prerequisite: Fluid Mechanics, Heat Transfer, Thermodynamics.
5389 CAD 3:3:0
Introduction to ProEngineer. The analysis and the
utilization of state of the art computer hardware and software to
solve the problems associated with the utilization of computers in
both graphics and engineering design.
101, 5201, 5301 Special Topics
An investigation into specialized study in advanced areas of
engineering under guidance of a faculty member. This course may be
repeated for credit when topics of investigation differ.
5110 Seminar
Discussion of ethical, professional, and technical topics
related to the practice of civil engineering. Presentation
of oral and written reports.
5311 Heat Transfer Analysis
Fundamental principles of heat transfer by conduction,
convection and radiation. Emphasis will be given to the
analysis of problems combining the various heat transfer mechanisms.
5348 Advanced Air Pollution Control
Air pollution control and design principles; VOC incineration;
gas absorption; air pollution and atmospheric
dispersion modeling; particulate matter; cyclones, electrostatic
precipitators; fabric fi lters and scrubbers; control
of nitrogen oxides and sulfur oxides.
5390-5391 Thesis
Prerequisite: Approval of graduate advisor. Must complete both
for required 6 credits.
6110 Professional Seminar
Advanced topics suitable for research along with research
procedures will be discussed. Field study organization
and content together with doctoral research problems and progress
will be presented. Topics will vary each
semester and course may be repeated for credit. Registration and
completion for three semesters is required of all
doctoral candidates.
6310 Design Projects
May be repeated for credit when the subject matter varies.
Prerequisite: Admission to candidacy.
6320 Justification of Engineering
Projects
The preparation of proposals for advanced engineering work. The
student will be given individual assistance in
preparing a proposal for his field study.
Prerequisite: Approval of advisory committee.
6349 Engineering Applications of
AI/Expert Systems
An in-depth study of the effective utilization of Artifi cial
Intelligence/Expert Systems as applied to engineering
problems. Projects assigned will involve the design and development
of software systems to solve discipline-specific problems using
available AI languages and expert system shells.
6369 Computer Methods of Engineering Optimization
Formulation, solution and implementation of optimization models
such as linear programming, dynamic programming, integer
programming, quadratic programming, convex programming, geometric
programming and
unconstrained optimization for analyzing complex systems problems in
industry. One or more software packages
will be used to execute the algorithms presented throughout the
course.
Prerequisite: A graduate course in operations research.
6389 Computer-Aided Software Engineering
Analysis and utilization of computer software to solve
engineering design problems. Applications on the CAD/CAE and various
other systems will be emphasized.
6601 Engineering Practice
An internship period under personal supervision. Approval must be
obtained from the student’s graduate committee. Usually, a formal
proposal will be required. May be taken for either six or 12 hours
credit per semester. Must be repeated for credit until fi eld study
is completed. Total credit: six semester hours per section.
6602 Engineering Practice
An internship period under personal supervision.
Approval must be obtained from the student’s graduate committee.
Usually, a formal proposal will be required. May be taken for either
six or 12 hours credit per semester. Must be repeated for credit
until fi eld study is completed. Total credit: six semester hours
per section.
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