Mechancial Engineering
Mechanical Engineering Course Descriptions


MECE 240	MANUFACTURING PROCESSES (2-3)3
Engineering materials; casting processes; hot and cold forming processes; machine processes; 
welding; numerical control; field trips, films, demonstrations, and student-performed experiences.
MECE 301	APPLIED MICROCOMPUTER GRAPHICS (2-3)3
(CSCI 111, GPHS 120, Junior Status Required)
DOS fundamentals, microcomputer graphics capabilities utilizing industrial software.  Examples  
of industrial graphic software may include AutoCAD, CadKey, EasyCad depending on the 
available system.  Emphasis is on graphic applications to mechanical engineering problems.  
Laboratory will be hands-on and devoted to extensive practice with one of the softwares listed 
above.
MECE 304	KINEMATICS AND DYNAMICS OF MACHINERY (3-3)4
(GENE 122)
Relative motions, analysis, and design of gears, trains, cams, and linkages; simultaneous graphical 
and analytical analysis of velocity, acceleration, static and inertial force, and balancing.
MECE 332	THERMODYNAMICS I (3-0)3
(MATH 247)
Fundamental concepts of energy analysis along with models for material properties necessary for 
problem solving including use of computer-aided thermodynamic property tables; First Law, 
introduction to Second Law, pressure, temperature, volume, enthalpy, and entropy.
MECE 333	MECHANICAL MEASUREMENTS (0-3)1
(MECE 332, MATH 448)
Use of transducers Statistical analysis for the measurement of dimension and speed.  Measurement 
of fluid flow, pressure, power, strain, velocity, viscosity, statistical analysis.


MECE 334 	THERMODYNAMICS II (3-0)3
(MECE 332)(Continuation of Thermo I)
Irreversibility and availability; power and refrigeration cycles, thermodynamic relations; mixtures 
and solutions; chemical reaction; phase and chemical equilibrium; flow through nozzles and blade 
passages.
MECE 335	EXPERIMENTAL METHODS (0-3)
(§MECE 334, MATH 448)
Methodology of experimental investigation; common properties of electrical, mechanical, thermal, 
and fluid systems, statistical analysis of data.
MECE 336	HEAT AND MASS TRANSFER (3-3)4
(CHEE 202 or MECE 332)
Steady-state and transient conduction; one, two-and three-dimensional conduction; free and 
forced convection; radiation; heat exchangers; heat and mass transfer by analytical, numerical, 
analogical, and experimental methods.
MECE 340	VIBRATIONS (3-0)3
(MATH 344, GENE 122)
Systems of one degree of freedom, undamped and damped; free and forced vibrations; transient 
and nonlinear vibrations; multi-degree of freedom systems with simulations by analog or digital 
computer.
MECE 404	DESIGN OF MACHINE ELEMENTS (2-3)3
(GENE 213, §MECE 304)
Working stresses, design of machine elements such as shafting, screws, springs, belts, clutches, 
brakes, gears, bearings and miscellaneous machine elements.
MECE 405	SENIOR MECHANICAL ENGINEERING LAB (0-3)1
(MECE 335, 336, MATH-448; Senior Status)
Analysis and testing of selected thermal or mechanical systems, such as, turbines, fans, pumps, air 
conditioning, vibration, and internal combustion engines, statistical analysis.
MECE 406	THERMAL ENERGY CONVERSION (3-0)3
(MECE 334)
Thermodynamics applied to energy conversion devices; internal combustion and jet engines, 
rockets, steam power plants, fuel cells, thermoelectric generators.

MECE 407	POWER PLANT ENGINEERING (3-0)3
(MECE 334; MECE 336 or consent of instructor)
Fuels and combustion, steam generators, superheaters, reheaters; condensers, economizers; 
feedwater heaters; air preheaters, draft systems; introduction to nuclear power plant systems; 
aspects of environmental pollution, alternative energy systems including hydroelectric plants, field 
trips.
MECE 408	REFRIGERATION AND AIR CONDITIONING (3-0)3
(MECE 334, MECE 336 or consent of instructor)
Air and humidity relations; comfort and indoor air quality; building heat transfer; design heating 
and cooling loads; air distribution; refrigeration; systems and equipment; system energy analysis; 
control systems.
MECE 410	MATERIALS ENGINEERING (2-3)3
(CHEM 116; GENE 213)
Metals, microstructure, chemical composition, heat treatment, plastic deformation, fracture, 
fatigue, creep, and wear; introduce preparation and microscopic examination of specimens; 
advanced materials testing.
MECE 425	POSITIVE DISPLACEMENT MACHINERY (3-0)3
(MECE 334)
Characteristics and classifications; induction process; effects of clearance; expansion and 
compression processes; adiabatic power producing machines; power absorbing machines; multi-
state compressors.
MECE 434	AERODYNAMICS (3-0)3
(GENE 315; MECE 334)
Bernoulli’s equation; dimensional analysis; potential flow analysis; lift analysis; compressible flow 
through nozzles; shock wave analysis; boundary layer effects; experimental testing in subsonic and 
supersonic flows.
MECE 435	THEORY OF TURBOMACHINES (3-0)3
(MECE 334, GENE 315)
Dimensional analysis; energy transfer between a fluid and a rotor; thermodynamics of gas flow; 
flow of fluids in turbomachines; centrifugal pumps and compressors; radial flow turbines; axial 
flow turbines; performance of compressors and pumps and comparison of types.

MECE 439	INDUSTRIAL HYDRAULICS: COMPONENTS AND CIRCUITS DESIGN (2-3)3
(GENE 213, GENE 315 or consent of instructor)
Basic laws of fluid power.  Fluids and auxiliaries.  Energy input, energy control and energy output 
devices.  Hydraulic circuits, symbology, operation, analysis and design practices.  Component 
selection and performance analysis.
MECE 440	AUTOMATIC CONTROL SYSTEMS (3-0)3
(§ELCE 384; MATH 344)
Analysis and design for controlling solid body, fluid, pneumatic, and electromechanical 
components; on-off, proportional, floating and rate response in control systems including 
industrial instrumentation.
MECE 445	COMPUTERS IN ENGINEERING (3-0)3
(CSCI 111, MATH 344, Senior status or instructor consent)
Introduce personal computer (PC) concepts-terms and uses as an engineering tool.  Study PC 
architecture and disk operating system (DOS).  Describe types of PC application software and its 
use for engineering analysis.  Stress engineering computer applications.  Applications will parallel 
courses taken in engineering.
MECE 456	FINITE ELEMENTS METHOD (2-3)3
(§MECE 336, MATH 344, MECE 404)
Finite element formulation of boundary value problems in engineering.  Design and application of 
one - and two - dimensional elements.  Both the direct method and method of weighted residuals 
will be emphasized.  Modern FEM software will be utilized for the solution of representative 
problems.
MECE 463	ADVANCED FLUID MECHANICS (3-0)3
(GENE 315)
Singularities in two-dimensional flows: potentials by analytic solutions, conformal transformations 
and mapping; cavitation, viscous flow; boundary layer and control; turbulent flow; 
magnetohydrodynamics.
MECE 465	ADVANCED MACHINE DESIGN (3-0)3
(MECE 404, MATH 448)
Theory of failure in 2-D and 3-D stress systems.  Fatigue failure modes and their analysis.  Fatigue 
life estimation techniques.  Plasticity of metals and applications.  Creep behavior of engineering 
materials.  Shock, wear, corrosion, and other modes of failure.  Thermal stresses.
MECE 467	SYSTEMS ANALYSIS (3-0)3
(ELCE 384, MECE 334)
Analysis and design of transient and Steady state of behavior of thermal, mechanical, and fluid 
systems, dynamic system elements; generalizations; modeling physical systems; equation 
formulation and solution; applications.
MECE 470	MECHANICAL ENGINEERING PROJECTS 1 to 4
(Junior or senior status)
An investigation of analytical or experimental nature; design, construction and testing of an 
experimental apparatus.
MECE 471	TOPICS IN CONVECTION AND RADIATION (3-0)3
(MECE 336)
Study of fundamental laws of conduction and radiation in depth and detail; study of analytical 
methods and their limitations; study of fundamental principles required for application to specific 
situations.
MECE 474	APPLIED HEAT TRANSFER (3-0)3
(MECE 336)
Recent developments in engineering and scientific applications of heat transfer, including: 
Techniques to augment heat transfer; mass transfer cooling; heat exchangers and heat pipes; heat 
transfer in fluidized and fixed beds; thermal energy storage; cooling Techniques for electronic 
equipment; cooling towers.
MECE 475	ADVANCED AUTOMATIC CONTROLS (3-0)3
(MECE 440)
Expansion of the fundamental concepts of Automatic Controls with wider applications; nyquist 
criterion; frequency-domain, time-domain; bode diagrams; transform; digital computer 
applications including CSMP.
MECE 476	ADVANCED VIBRATIONS (3-0)3
(MECE 340)
Expansion of fundamental concepts of vibration with wider applications; multi-degree of freedom 
systems; continuous systems; matrix and digital computations.

MECE 480	SPECIAL TOPICS IN MECHANICAL ENGINEERING 1 TO 3 
MECE 490	MECHANICAL ENGINEERING SYSTEMS DESIGN I (3-0)3
(MECE 404 one semester before graduation)
Systems design applied to an energy audit project; lectures cover morphology of design, the 
design processes, decision and optimization techniques, and computer aided design.
MECE 491	MECHANICAL ENGINEERING SYSTEMS DESIGN II (3-0)3
(MECE 490)
A semester-long design project in which students normally work in teams.  Formal report required 
at the end of the semester.

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