Download Course ME 32200 – Heat Transfer Laboratory Type of Course

Survey
yes no Was this document useful for you?
   Thank you for your participation!

* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project

Document related concepts

Underfloor heating wikipedia , lookup

HVAC wikipedia , lookup

Passive solar building design wikipedia , lookup

Thermal comfort wikipedia , lookup

Space Shuttle thermal protection system wikipedia , lookup

Convection wikipedia , lookup

Solar water heating wikipedia , lookup

Dynamic insulation wikipedia , lookup

Insulated glazing wikipedia , lookup

Thermoregulation wikipedia , lookup

Solar air conditioning wikipedia , lookup

Heat pipe wikipedia , lookup

Intercooler wikipedia , lookup

Thermal conductivity wikipedia , lookup

Building insulation materials wikipedia , lookup

Cogeneration wikipedia , lookup

Heat sink wikipedia , lookup

Heat exchanger wikipedia , lookup

Heat equation wikipedia , lookup

Economizer wikipedia , lookup

Copper in heat exchangers wikipedia , lookup

Heat wave wikipedia , lookup

Hyperthermia wikipedia , lookup

R-value (insulation) wikipedia , lookup

Thermal conduction wikipedia , lookup

Transcript
DEPARTMENT OF ENGINEERING
Course
ME 32200 – Heat Transfer Laboratory
Type of Course
Required for ME program
Catalog Description
Introduction to heat transfer laboratory and design of experiments.
Experiments on measurements of temperature and thermal
conductivity, transient heat conduction, convection, radiation,
boiling, and heat exchangers.
Credits
1
Contact Hours
3
Prerequisite Courses
ME 29300 and ME 32100
Corequisite Courses
ME 31900
Prerequisites by Topics
Measurement & Instrumentation Lab and Heat Transfer Course
Textbook
H. I Abu-Mulaweh, Heat Transfer Laboratory Manual, current edition.
Course Objectives
To introduce the students to heat transfer concepts in a laboratory,
to provide students the opportunity to utilize data acquisition
systems and computers, and to improve students’ written
communication, teamwork, and experimental skills.
Course Outcomes
Students who successfully complete this course will have
demonstrated an ability to:
1. Utilize data-acquisition software. (a, b)
2. Determine the thermal conductivity of a liquid or a gas and
compare that value to published data. (a, b, k)
3. Model the transient temperature response of a lumped system
and determine whether or not the model is valid. (a, b, k)
4. Predict the transient temperature response in a cylinder. (a, b,
k)
5. Apply separation of variables to two-dimensional, steady-state
heat conduction and to compare the analytical solution to finite
difference and finite element solutions. (a, e, k)
6. Design and model a heat transfer device or system to meet a
specific objective; then test and report results. (a, b, k)
7. Analyze heat exchanger performance. (a, b, k)
8. Solve a gray-surface enclosure problem. (a, k)
Department Syllabus
ME – 32200
Page | 1
9. Communicate experimental results in written reports and oral
presentation. (g)
Laboratory Topics
1.
2.
3.
4.
5.
6.
7.
8.
Introduction, report format, and uncertainty analysis
Oral reports on a heat transfer measurement device
Thermal conductivity lab
Lumped capacitance lab
Two-dimensional cylindrical, transient lab
Numerical experiment—two-dimensional heat conduction
Heat exchanger experiment
Design of heat transfer device and/or experiment including
group presentations
9. Numerical experiment—radiant exchange between surfaces
10. Lecture over labs and introduction to data acquisition system
Computer Usage
Medium
Laboratory Experience
High
Design Experience
Medium
Coordinator
Donald Mueller, Ph.D., P.E.
Date
26 March 2011
Department Syllabus
ME – 32200
Page | 2