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| Name | Grades | Rating | |||
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Not teaching in Spring 2026 | |||||
MECH 6351 Dong Qian | |||||
A | |||||
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| Name | Grades | Rating | |||
|---|---|---|---|---|---|
Not teaching in Spring 2026 | |||||
MECH 6351 Dong Qian | |||||
A | |||||
Grades: 524
Median GPA: A-
Mean GPA: 3.502
4.4
Professor rating
3.1
Difficulty
9
Ratings given
100%
Would take again
Finite Element Techniques I
MECH 6351
Erik Jonsson School of Engineering and Computer Science
This course will provide an overview on the basic theory of the finite element methods (FEM) and application of FEM analysis in solid mechanics. Course topics include 1D elements and computational procedures, variational principles and Rayleigh-Ritz method, Galerkin finite element method, numerical discretization, imposition of constraints, 2D elements and basic programing steps, finite element solution techniques, application of FEM for vibration analysis, and use of commercial FEM codes. 3 credit hours.
Prerequisite: MECH 2320 or equivalent.
Offering Frequency: Each year
Grades: 184
Median GPA: A
Mean GPA: 3.664
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Grades: 524
Median GPA: A-
Mean GPA: 3.502
4.4
Professor rating
3.1
Difficulty
9
Ratings given
100%
Would take again
Finite Element Techniques I
MECH 6351
Erik Jonsson School of Engineering and Computer Science
This course will provide an overview on the basic theory of the finite element methods (FEM) and application of FEM analysis in solid mechanics. Course topics include 1D elements and computational procedures, variational principles and Rayleigh-Ritz method, Galerkin finite element method, numerical discretization, imposition of constraints, 2D elements and basic programing steps, finite element solution techniques, application of FEM for vibration analysis, and use of commercial FEM codes. 3 credit hours.
Prerequisite: MECH 2320 or equivalent.
Offering Frequency: Each year
Grades: 184
Median GPA: A
Mean GPA: 3.664
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