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AMM Option

The EAS-PhD option in Applied Mechanics and Materials (AMM) is designed to train students for industrial and academic jobs through the study and application of the principles of physical, mechanical and materials sciences to analyze, evaluate and solve theoretical and technological problems.  Applied mechanics examines the response of bodies (solids and fluids) or systems of bodies to external forces.  It is a broad interdisciplinary field with many applications in modern engineering.  Within the theoretical sciences, applied mechanics is useful in formulating new ideas and theories, discovering and interpreting phenomena, and developing experimental and computational tools.  Materials science investigates the relationship between the structure of materials at atomic or molecular scales and their macroscopic properties. Within the materials, applied physics and chemistry is employed to fabricate and to conduct multi-scale computational modeling of new materials. Research opportunities are diverse and current in such areas as fluid/solid mechanics, acoustics/vibrations/dynamics, mechanics of materials, bio/geo-mechanics, and micro/nano-mechanics.

Core course requirements

Following are the required core courses of Applied Mechanics & Materials option:

  • Advanced Mathematical Methods (EAS 501, MNE 501 or PHY 622)
  • Computational Methods (EAS 502, MNE 502 or PHY 521)
  • Continuum Mechanics (MNE 503) or Advanced Materials (MTX - XXX)

The core courses form the foundation of the program and are taken early in the program.

Specialization major course requirements

Specialization courses (15 credits) help the student attain depth in focused areas.  The Applied Mechanics & Materials option organizes specialization opportunities under the following categories:

  • Solid Mechanics: Analytical, Experimental and Numerical Solid Mechanics
  • Fluid Mechanics & Thermal Sciences: Analytical, Experimental and Computational Fluid Dynamics, Heat Transfer, Energy (Renewable and Conventional)
  • Nonlinear Dynamics: Advanced Dynamics, Nonlinear Vibrations, Dynamics and Stability of Engieering Systems, Chaos
  • Computational Materials Science: Multi-scale Simulations, Multi-phase Flow with Phase Change
  • Composites: Biomaterials, Biological Materials, Nano-structured Materials, Heterogeneous Materials, Mechanics of Composites, MEMS & Thin Films, Multi-functional Materials, Multi-scale Materials, Pavement Materials
  • Polymer Engineering: Fiber Engineering, Rheology, Thermodynamics, Kinetics of Polymers, Soft Materials, Ploymer Chemistry, Biomimicking

Specialization minor course requirements

Two graduate courses (6 credits) help the students to acquire interdisciplinary knowledge.  The courses can be chosen from the specialization list for other options in the EAS PhD program.

A typical curriculum plan for the AMM option is shown below.

Graduate Program Curriculum Outline

Applied Mechanics and Materials Option

Major Required (Core) Courses (Total # of courses required = 6 )
Course Number Course Title Credit Hours
EAS 501 Advanced Mathematical Methods 3
EAS 502 Computational Methods 3
MNE 503 Continuum Mechanics or Advanced Materials 3
EAS 600 Dissertation Proposal Preparation 3
EAS 601/701 Doctoral Dissertation Research 30
EAS 602 Research Ethics 1
EAS 700 Doctoral Seminar 2
  Subtotal # Core Credits Required 45
Elective Course Choices (Total courses required = 7) (attach list of choices if needed)
CEN/MNE 500-600 5 Graduate Electives selected from List 15
COE/MTH 500-600 2 Graduate Electives (Minor) 6
  Subtotal # Elective Credits Required 21
     
Curriculum summary
Total number of courses required for the degree 12
Total credit house required for degree 66

Prerequisite, Concentration or Other Requirements: PhD Qualifying Examination (QE) and Comprehensive Exam: Each student must pass a qualifying exam and a comprehensive exam on research preparedness prior to becoming a doctoral candidate.

Elective Courses for Applied Mechanics and Materials Option
MNE 504 Advanced Mechanics of Fluids 3
MNE 511 Theory of Elasticity 3
MNE 515 Finite Element Analysis 3
CEN 512 Advanced Structural Analysis 3
CEN 516 Advanced Analysis and Design of Reinforced Concrete 3
MNE 534 Advanced Vibration 3
MNE 514 Fracture Mechanics 3
MNE 542 Convective Heat Transfer 3
MNE 552 Computational Fluid Mechanics 3
MNE 560 Methods of Experimental Research 3
MNE 531 Advanced Dynamics 3
MNE 525 Bioengineering Fundamentals 3
MNE 536 Advanced Control Theory 3
MNE 522 Statistical Thermodynamics 3
CEN 517 Prestressed Concrete Analysis and Design 3
CEN 520 Advanced Steel Design 3
CEN 521 Matrix Methods of Structural Analysis 3
CEN 522 Design of Structural Systems 3
CEN 538 Structural Dynamics 3
CEN 552 Advanced Soil Mechanics 3
CEN 554 Surface Water Hydrology 3
CEN 558 Open Channel Flow Hydraulics 3
CEN 572 Advanced Processes in Environmental Engineering 3
CEN 580 GeoEnvironmental Engineering 3
CEN 582 Pavement Design 3
CEN 584 Pavement Materials 3
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