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Graduate Degree Programs in Materials Science
The Master of Science Degree typically requires two years of full-time
study to complete. Two plans of study leading to this degree are available.
Full-time students usually select Plan A, the M.S. degree with thesis.
Requirements for this option include completion of six graduate courses (grade
point average of at least 2.75/4.0); a written thesis of original research;
and an oral thesis defense. The Plan B option is designed to accommodate part-
time students, who generally have extensive lab experience but may need
additional academic work. Plan B does not require a thesis. It does, however,
require two additional classes and completion of a special project with a
written project report.
Graduate students in pursuit of a Ph.D. must fulfill additional research
and classroom responsibilities. A student becomes a candidate for the Ph.D.
degree by successfully completing a written Qualifying Exam and by defending a
proposed thesis project. Completing the requirements for the Ph.D. degree
typically requires three years beyond the M.S. The requirements for the Ph.D.
degree are:
- Six graduate courses in addition to those of the M.S. program
(graduate course work must include two courses in basic sciences, and
fulfillment of depth and breadth guidelines, intended to ensure exposure to
the many areas of Materials Science and Engineering)
- Completion of an original research project, culminating in
submission of a written dissertation and an oral defense
- Cumulative grade point average of at least 3.0/4.0
- On-campus residency of at least one year
Both Masters and Ph.D. students typically take two courses each semester
in addition to working on their thesis research.
Graduate Courses
The following list summarizes many departmental courses that may be
taken by graduate students. A maximum of two undergraduate 300-level classes
may be used towards the Masters degree course requirement. An additional 300-
level course may be applied to the Ph.D. degree requirements.
- EMSE 301 Fundamentals of Materials Processing
- EMSE 303 Mechanical Behavior of Materials
- EMSE 307 Foundry Metallurgy
- EMSE 312 Applications of Diffraction Principles
- EMSE 313 Engineering Applications of Materials
- EMSE 314 Electrical, Magnetic, and Optical Properties of Materials
- EMSE 316 Applications of Ceramic Materials
- EMSE 401 Transformations in Materials
- EMSE 402 Glassy State
- EMSE 403 Modern Ceramic Processing
- EMSE 404 Diffusion Processes in Solids and Melts
- EMSE 405 Dielectrical, Optical, and Magnetic Properties of Materials
- EMSE 407 Solidification of Metals
- EMSE 409 Thermal-Mechanical Processing of Metals
- EMSE 411 Environmental Effects of Materials Behavior
- EMSE 413 Fundamentals of Materials Science and Engineering
- EMSE 414 Thermal Properties and Point Defects
- EMSE 417 Properties of Materials at High Temperatures
- EMSE 418 Oxidation of Materials
- EMSE 419 Phase Equilibria and Microstructure of Materials
- EMSE 420 Powder Processing
- EMSE 421 Fracture of Materials
- EMSE 423 Theory of Glass Processing
- EMSE 424 Properties of Metallic Ceramics
- EMSE 426 Semiconductor Technology
- EMSE 427 Dislocations in Solids
- EMSE 428 Materials Science in Archaeology and Art
- EMSE 429 Crystallography and Crystal Chemistry
- EMSE 430 Grain Boundaries, Interfaces, and Surfaces
- EMSE 501 Advanced Diffraction Principles
- EMSE 502 Mechanical Properties of Materials
- EMSE 504 Thermodynamics of Solids
- EMSE 511 Failure Analysis
- EMSE 512 Advanced Techniques in Electron Microscopy
- EMSE 514 Defects in Semiconductors
- EMSE 515 Analytical Methods in Materials Science
- EMSE 516 Analytical Methods in Materials Science (lab)