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Mechanical Engineering Facilities
Heat Transmission Laboratory (ANDR 142)
Finite Element Analysis Computer Laboratory (ANDR 143)
Materials Heat
Treatment Laboratory (ANDR 144)
Engineering Metrology Laboratory (ANDR 145)
Materials Polishing Laboratory (ANDR 146)
Scanning Electron X-ray Diffraction Laboratory (ANDR 147)
Materials Characterization Laboratory (ANDR 149)
Nanotechnology Research Laboratory (ANDR 150)
Fluids Mechanics & Computational Fluids Analysis Laboratories (ANDR
152)
Fatigue Dynamics Research Laboratory (ANDR 164)
Manufacturing and Robotics Laboratory (ANDR 245)
Mechanical Engineering Experimentation Laboratory (ANDR 246)
Mechatronics Laboratory (POTT 113)
Heat Transmission Laboratory (ANDR 142)

The Heat Transfer
Laboratory serves to provide hands-on experience with various heat
transfer phenomena encountered in real life applications and
correlates theory with engineering applications. The laboratory
introduces the students to fundamental modes of heat transfer. The
experiments allow students to investigate and understand the physics
of different heat transfer mechanisms and to verify the fundamental
laws governing the transport of heat. Measurements using state of
the art data acquisition equipment allow the students to identify
the important parameters affecting the heat transfer phenomena and
correlate them using the governing equations. The experiments
involve the study of heat transfer by conduction, convection,
radiation, film condensation and boiling, as well as the study and
analysis of heat exchangers.
(Heat transmission
laboratory with measurements of temperature and flows. Experiments
include temperature profiles in solids, thermal conductivity,
radiation, and the determination of various heat and mass transfer
coefficients.)
M E 417, Senior
Design, Undergraduate Research, Graduate Research
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Finite Element Analysis Computer Laboratory (ANDR 143)
This teaching
laboratory contains 12 individual computing stations for instruction
of finite element analysis (FEA), computer numerical control (CNC) G
and H codes, Stereo lithographic (STL) files, rapid prototyping, and
computer aided design (CAD) as they apply to machine design.
Additionally, the study of fracture mechanics, crack propagation,
fatigue, and lifetime calculations by software modeling are compared
to results received from information developed in the Fatigue
Laboratory and Testing Equipment Laboratory.
M E 461, 466,
Senior Design, Undergraduate Research, Graduate Research
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Materials Heat
Treatment Laboratory (ANDR 144)
Mainly upper level
mechanical engineering students who either are taking a materials
engineering course or are working on their senior project use the
Heat Treating Laboratory. This laboratory contains the
heat-treating furnaces that are used to process a variety of
metallic materials. Students then look at the physical properties
and microstructures of the materials after treatment. Thus, the processing -- structure ?
properties, interactions are discovered. The laboratory
contains a variety of furnaces with the highest temperature
attainable being 1500o C. Freshman engineering students
and junior high/high school age students also conduct an experiment
in this room to introduce them to materials science.
Materials Science
Laboratory containing various ovens, furnaces, baths, and quenching
equipment used for heat treatment of metals and other materials.
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Engineering Metrology Laboratory (ANDR 145)
M E 461, 466
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Materials Polishing Laboratory (ANDR 146)
Polishing equipment
is available in this room to enable the proper preparation of
samples for microscopic examination. This room is used for a
variety of upper undergraduate and graduate courses.
MSE 344
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Scanning Electron X-ray Diffraction Laboratory (ANDR 147)
Microscopic
analysis performed in this room. Samples are imaged by optical and
scanning electron microscopy (SEM). An energy dispersive system
(EDS) is available which can pinpoint the locations of specific
elements. The room also houses an x-ray diffraction unit.
MSE
344
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Materials Characterization Laboratory (ANDR 149)
The testing
equipment room contains mainly mechanical testers and nondestructive
testing equipment. Tensile, creep and impact test machines are
maintained here. Nondestructive testers include dye penetrant,
magnetic particle, eddy current, and ultrasonics. Such equipment
has use in a variety of courses.
MSE 344
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Nanotechnology Research Laboratory (ANDR 150)
Additionally, the corrosion laboratory is housed here.
M E 4XX, Senior Design, Undergraduate Research, Graduate
Research
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Fluids Mechanics & Computational Fluids Analysis Laboratories (ANDR
152)
The Fluid Engineering Laboratory serves to provide the tools
needed to analyze and solve fluid flow problems in different
engineering applications and to provide the link between theory with
real life applications. The laboratory introduces the students to
the fundamentals of laminar and turbulent flow as well as state of
the art flow measurement techniques and equipment. The laboratory
also includes state of the art computational fluid dynamics (CFD)
software as an important and effective tool in studying complex flow
problems encountered in most industrial applications. The
experiments involve the study of viscous flow applications, boundary
layers, and lift and drag on immersed bodies.
(Introduction to fluid mechanics laboratory, experiments on flow
patters, velocity profile in an air pipe, wind tunnel calibration,
draining of a tank, pipe friction, boundary layer studies, falling
ball experiments, and viscosity measurements.)
M E 313
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Fatigue Dynamics Research Laboratory (ANDR 164)
The Fatigue Testing Laboratory includes rotating beam machines
and hydraulically operated MTS fatigue machine with an environmental
chamber. Additional equipment would include a cross-cylinder wear
tester and optical capture and analysis systems.
The rotating beam machines are used in machine design and
material science courses for the conventional and accelerated
fatigue tests of specimens from different materials. From the
statistical treatment of test results, the students are able to
determine endurance limits for different life spans and verify
reliability of the accelerated testing.
The MTS machine is used for testing actual parts in conventional,
accelerated and programmed fatigue testing in different
environmental conditions. The machine is also used in fracture
mechanics laboratory experiments to observe crack propagation and
determination of stress intensity factors and J-integrals. From the
results of the experiments, the students are asked to determine
parameters for Paris formulation and develop the expression for the
prediction of life after crack initiation.
M E 461, 466
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Manufacturing and Robotics Laboratory (ANDR 245)
The Manufacturing/Robotics Laboratory is designed to provide
higher level students hands-on experience with modern manufacturing
equipment and methods. The laboratory includes an industrial robot,
two educational robots, a manufacturing cell consisting of several
cutting machines, conveyer belts, a vision system, a rapid
prototyping machine, and a coordinate-measuring machine. The
laboratory introduces students to programming languages for robots,
CNC machines, and automated manufacturing systems.
M E 486
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Mechanical Engineering Experimentation Laboratory (ANDR 246)
The Mechanical Engineering Experimentation Laboratory includes
the use of precision measurement equipment such as use gage blocks,
micrometers, vernier calipers, adjustable parallels, and sine bars.
It also includes measurements of strains encountered by bending of
beams, which the students use to calculate Poisson's Ratio,
principal stresses, and stress concentration factors around holes.
The laboratory also teaches students how to apply strain gages on
aluminum beams and test those beams. Students also conduct
experiments involving torsion of bars, and study the effect of
combined bending and torsion. The laboratory also includes the
determination of time constant of a thermometer, pressure
calibration techniques using a dead-weight pressure tester, and
analysis of the natural frequencies of beams subjected to
vibrations. The students are also exposed to photo-elastic methods.
M E 345
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Mechatronics Laboratory (POTT 113)

M E 485
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