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Students in Mechanical Engineering obtain an education that includes the principles of thermodynamics,
heat transfer, and fluid mechanics.
These disciplines and their associated conservation laws are the foundation of all energy systems analyses.
In the undergraduate curriculum, however, there is little opportunity to integrate these topics and others such as optimization and economics together so that they can be effectively used in applied studies of energy systems.
Achieving improvements in energy systems technology will require engineers with advanced studies and experiences that
extend beyond what can be provided within an undergraduate
Mechanical Engineering
curriculum.
This is provided by the Masters of Engineering program in Energy Systems.
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Since the degree program is administered by
Mechanical Engineering,
the candidate must first be admitted to graduate studies through the
Mechanical Engineering
Department.
Applicants should clearly indicate "Master of Engineering Energy Systems"
on their statement of "Reasons for Graduate Study" submitted in conjunction with the
instructions for Section 17 of the Application for Admission to Graduate School.
The correct Major Code is G643.
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- The degree program is administered by the department of
Mechanical Engineering.
The candidate must be admitted into graduate studies in
Mechanical Engineering
in order to enroll in this program.
- Twenty-six (26) credits of approved engineering courses are required beyond the B.S. degree.
Approved courses include all formal graduate-level courses in the Engineering College that are documented in the Graduate School Catalog.
Students must meet with an advisor or with the Director of the
M.E.
program to select their courses.
- At least eighteen (18) credits must be formal lecture or laboratory courses.
- At least twelve (12) credits must be from the list of Approved Courses.
- At least three (3) and no more than six (6) credits of independent study courses (e.g., ME 491 and ME 699)
must be credited to meet the requirements of the degree.
However, credits for
ME 790,
ME 890,
and
ME 990
will not be credited to the
M.E.
degree.
- Exactly two (2) credits of graduate seminar courses, e.g.,
ME 903,
must be credited to the degree requirements.
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- 26 credits (2 semesters)
- 18 formal lecture or laboratory courses
- 12 credits from approved course list
- M.S. thesis credits are not counted
- non-thesis degree, but independent study required (3-6 credits)
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Mechanical Engineering:
ME 461: Thermal Systems Modeling
ME 466: Air Pollution Effects, Measurement and Control
ME 467: Refrigeration
ME 468: Building Energy Management and Space Conditioning
ME 469: Internal Combustion Engines
ME 470: Optical Applications in Mechanical Engineering
ME 471: Gas Turbines and Jet Propulsion
ME 477: Energy Utilization Technology
ME 520: Two-phase Flow and Heat Transfer
ME 561: Intermediate Thermodynamics
ME 563: Intermediate Fluid Dynamics
ME 564: Heat Transfer
ME 565: Power Plant Technology
ME 566: Cryogenics
ME 567: Solar Energy Technology
ME 569: Applied Combustion
ME 572: Intermediate Gas Dynamics
ME 573: Computational Fluid Dynamics
ME 761: Topics in Thermodynamics
ME 764: Advanced Heat Transfer I-Conduction
ME 765: Advanced Heat Transfer II-Convection
ME 766: Advanced Heat Transfer III-Radiation
ME 769: Combustion Processes
ME 773: Boundary Layer Theory
ME 774: Chem Kinetics of Combust Systems
ME 775: Turbulent Heat and Momentum Transfer
Chemical and Biological Engineering:
CBE 320: Introductory Transport Phenomena
CBE 430: Chemical Kinetics and Reactor Design
CBE 567: Solar Energy Technology
CBE 620: Intermediate Transport Phenomena
Civil and Environmental Engineering:
CEE 423: Air Pollution Effects, Measurement and Control
Nuclear Engineering and Engineering Physics:
NE (NEEP) 405: Nuclear Reactor Theory
NE (NEEP) 411: Nuclear Reactor Engineering
NE (NEEP) 412: Nuclear Reactor Design
NE (NEEP) 520: Two-Phase Flow and Heat Transfer
NE (NEEP) 550: Advanced Nuclear Power Engineering
NE (NEEP) 565: Power Plant Technology
NE (NEEP) 566: Cryogenics
NE (NEEP) 571: Economic and Environmental Aspects of Nuclear Energy
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