Course Descriptions

The Course Descriptions catalog describes all undergraduate and graduate courses offered by Michigan State University. The searches below only return course versions Fall 2000 and forward. Please refer to the Archived Course Descriptions for versions prior to Fall 2000.

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Course Descriptions: Search Results

MTH 942  Foundations of Applied Mathematics I

Semester:
Fall of every year
Credits:
Total Credits: 3   Lecture/Recitation/Discussion Hours: 3
Recommended Background:
MTH 848 and MTH 849
Description:
Modeling in classical applied mathematics. Newtonian and continuum mechanics. Special mathematical techniques.
Effective Dates:
FS95 - US16


MTH 942  Regularity for Second Order Elliptic Equations

Semester:
Fall of even years
Credits:
Total Credits: 3   Lecture/Recitation/Discussion Hours: 3
Recommended Background:
MTH 848 and MTH 849
Restrictions:
Open to doctoral students in the College of Natural Science or approval of department.
Description:
Review of classical regularity results, such as Schauder theory and L-p theory. Elliptic equations with coefficients of low regularity (bounded and measurable) and nonlinear elliptic equations. The Harnack inequality and Holder regularity in the context of both weak solutions of divergence form equations and viscosity solutions of equations in non-divergence form. Higher regularity and applications to minimization problems.
Effective Dates:
FS16 - Open


MTH 942  Regularity for Second Order Elliptic Equations (Interim Change)

Semester:
Fall of even years
Credits:
Total Credits: 3   Lecture/Recitation/Discussion Hours: 3
Recommended Background:
MTH 848 and MTH 849
Restrictions:
Open to doctoral students or graduate students or master's students in the College of Natural Science or in the Applied Mathematics Major or in the Industrial Mathematics Major or in the Mathematics Major or approval of department.
Description:
Review of classical regularity results, such as Schauder theory and L-p theory. Elliptic equations with coefficients of low regularity (bounded and measurable) and nonlinear elliptic equations. The Harnack inequality and Holder regularity in the context of both weak solutions of divergence form equations and viscosity solutions of equations in non-divergence form. Higher regularity and applications to minimization problems.
Effective Dates:
FS24 - Open