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College of Engineering and Applied Science

College of Engineering and Applied Sciences at UC Denver
 

Mechanical Engineering

Master of Science


The master of science (MS) program builds on the fundamentals of mechanical engineering typically learned in an undergraduate degree program. Our program is comprised of three tracks that allow the students to obtain background in manufacturing processes, fluid mechanics, solid mechanics, bioengineering, energy thermodynamics, composite materials and sports engineering.

The three tracks are:

    • Thermal Sciences
    • Mechanics
    • General Mechanical Engineering

Students may choose between two plans with each plan totaling 30 semester hours. Students following Plan I (thesis option) take 24 semester hours of formal course work plus 6 semester hours of thesis work. Students following Plan II (project option) take 27 semester hours of formal course work plus a 3 semester hour final project requiring a report.

The Graduate School Rules apply to this program.

Students must meet the university admission requirements detailed in the Information for Graduate Students section of the catalog.

Students not holding BS in mechanical engineering degrees are required to complete all mathematics, chemistry and physics courses required for the bachelor’s degree before taking graduate courses.  In addition, before taking graduate courses students must complete the following undergraduate mechanical engineering courses depending on the track they plan to follow:

General Track

ENGR 3012 (Thermodynamics)
MECH 2033 (Dynamics)
MECH 3010 (Intro to Numerical Methods)
MECH 3023 (System Dynamics I: Vibrations)
MECH 3042 (Heat Transfer) or MECH 3021 (Fluid Mechanics)
MECH 3043 (Strength of materials)

Mechanics Track

ENGR 3012 (Thermodynamics)
MECH 2033 (Dynamics)
MECH 3010 (Intro to Numerical Methods)
MECH 3023 (System Dynamics I: Vibrations)
MECH 3035 (Design of Mechanical Elements)
MECH 3043 (Strength of materials)

Thermal Sciences Track

ENGR 3012 (Thermodynamics)
MECH 2033 (Dynamics)
MECH 3010 (Intro to Numerical Methods)
MECH 3021 (Introduction to Fluid Mechanics)
MECH 3042 (Heat Transfer)
MECH 3043 (Strength of materials)

Students following the thesis plan or the project plan must submit a proposal to their examination committee prior to the semester in which they register for their thesis or project semester hours, and the examination committee must approve the proposal for the thesis or project.

Students in either plan may choose one of three tracks. In the first two tracks, the student may choose to specialize in either thermal science or mechanics. The third track is the general mechanical engineering option.

The thermal science option requires 12 semester hours of course work in analytical methods, numerical methods, fluid mechanics and thermodynamics. The student then selects 9 semester hours of course work in approved electives from a selection of thermal science electives.

The required courses for the thermal science track are

  • MECH 5110 (Numerical Methods for Engineers)
  • MECH 5120 (Analytical Methods for Engineers)
  • MECH 5122 (Macroscopic Thermodynamics)     
  • MECH 5141 (Viscous Flow)

The mechanics option requires 12 semester hours of course work in analytical methods, numerical methods, elasticity and dynamics. The student then selects 9 semester hours of course work in approved electives from a selection of mechanics electives. For students following Plan I, both the thermal science and mechanics options allow the student to pick one approved 3-semester-hour elective not necessarily in the chosen specialty. For students following Plan II, both the thermal science and mechanics options allow the student to pick two approved 3-semester hour electives not necessarily in the chosen specialty.

The required courses for the mechanics track are

  • MECH 5175 (Finite Element Analysis)
  • MECH 5120 (Analytical Methods for Engineers)
  • MECH 5163 (Dynamics)
  • MECH 5143 (Theory of Elasticity)

The general mechanical engineering option requires the student to take 18 semester hours of required course work in analytical methods, numerical methods, fluid mechanics, thermodynamics, elasticity and dynamics. For students following Plan I, the general mechanical engineering option allows the student to pick two approved 3-semester hour electives. For students following Plan II, the general mechanical engineering option allows the student to pick three approved 3-semester hour electives.

The required courses for the general track are

  • MECH 5120 (Analytical Methods for Engineers)
  • MECH 5163 (Dynamics)     
  • MECH 5143 (Theory of Elasticity)
  • MECH 5110 (Numerical Methods for Engineers)
  • MECH 5122 (Macroscopic Thermodynamics)     
  • MECH 5141 (Viscous Flow)

All courses are 3 semester credit hours and the student must complete a total of 30 semester credit hours including thesis or project hours.  In addition the student must present the required thesis or project to his/her graduate committee and the committee must approve the thesis or project for satisfaction of the student’s graduation requirement.

Mechanical Engineering Program Educational Objectives

The program offered by the Department of Mechanical Engineering of the University of Colorado Denver can be completed in the afternoon and evening hours to accommodate both working and traditional students. The department seeks to graduate a diverse population of students with a bachelor’s and master’s degrees enabling them to

  • be employed by a diverse group of industries, research laboratories and educational institutions,
  • pursue careers in traditional engineering, interdisciplinary areas, research and education, and
  • pursue post-graduate education and advanced degrees.

MSME and MEng Program Educational Outcomes

  • an ability to apply knowledge of mathematics, science, and engineering
  • an ability to design and conduct experiments, as well as to analyze and interpret data
  • an ability to design a system component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability
  • an ability to identify, formulate, and solve engineering problems
  • an ability to communicate effectively
  • an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice