CE 665 Finite Element Method
Spring 2006
Instructor:
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Erik Thompson
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Office:
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A221
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Telephone:
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491 6060
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email:
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thompson@engr.colostate.edu
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PREREQUISITES:
Some course in which you have gained experience with
partial differential equations, e.g. fluid mechanics
or heat transfer.
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OBJECTIVES:
Provide basic theory behind the finite element method,
programming techniques, and experience in using the
method to solve non-trivial problems in engineering
analysis.
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TEXTBOOK:
"Introduction to the Finite Element Method",
Erik Thompson
John Wiley & Sons, Inc.
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ASSIGNED WORK:
Three types of problems will be assigned throughout
the semester:
- Study problems
- Numerical experiments and code development
- Projects
All problems will be marked as either u=unsatisfactory,
or S=satisfactory. A "u" grade on a problem requires
that the problem be reworked and handed in again for
grading. Students are expected to end the semester with
all problems satisfactorly completed.
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EXAMINATIONS:
There are two examinations - one at mid-term, and
another at the end of the semester. The second
exam (given during the scheduled final exam time)
will be over only the material covered after the
mid-term exam.
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GRADING
Your grade is very dependent on the satisfactory
completion of all assignments. If so, and if you show
understanding of the material on both exams (this
usually means with a numerical grade of above 80%)
then you will receive a course grade of "A". This
is the grade I expect to give to all students.
Failure to satisfactorly complete all homework
problems or an excessive number of "u" grades,
and/or failure to show understanding of the material
on the two examinations will reduce your grade. You
may discuss your standing with me anytime during the
semester.
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COURSE CONTENT
Introduction to approximate solution methods.
Calculus of variations.
An elementary finite element program.
Linear second-order ordinary differential equations.
A finite element approximation for two dimensions.
FEM for Poisson's equation.
Applications.
Higer-order elements (isoparametric elements).
General two dimensional boundary value problems.
Analysis of transient behavior.
Elasticity.
Higher-order equations.
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