Master of Science in Mechanical Engineering (MSME)
The Master of Science in Mechanical Engineering (MSME) program consists of 30 credit hours of graduate level coursework OR 24 credit hours plus 6 credits of Master’s Thesis. While this page is geared for those wishing to have a campus experience, be sure to also visit our online option. Students interested in our full-time campus experience are able to complete all degree requirements below, including the optional thesis, in as little as 18 to 24 months. See admission requirements and application information below.
Admitted MSME students automatically receive a Dean’s Scholarship that reduces tuition by approximately 40% from the standard University of Delaware tuition rate.
- The following four courses are required (12 credits)
- MEEG 690: Intermediate Engineering Mathematics
- Three from the following list
- MEEG 610: Intermediate Solid Mechanics
- MEEG 620: Intermediate Dynamics
- MEEG 630: Intermediate Fluid Mechanics
- MEEG 640: Intermediate Heat Transfer
- MEEG 621: Linear Systems
- MEEG 683: Orthopedic Biomechanics
- Three additional graduate level mechanical engineering electives (9 credits)If pursuing the thesis option, six (6) credits of Master’s Thesis must be completed toward requirement B, with the final three (credits) chosen from the MEEG Core excluding those already used toward requirement A or MEEG graduate electives. If not pursuing the thesis option, all nine (9) credits must be chosen from remaining MEEG Core (see above) or approved MEEG graduate electives including the Graduate Certificate in Composites Manufacturing and Engineering.
- Three additional graduate level electives (9 credits)These graduate courses must be in engineering or mathematical, science or field related to student’s academic concentration. Courses must be selected with the documented approval of the department’s Graduate Committee.
- One semester of MEEG 600 seminar (0 credits)
Requirements for Admission
- A baccalaureate degree in mechanical engineering or in a closely allied field of science or mathematics.
- An undergraduate grade point average in engineering, science and mathematics courses of at least 3.0 on a 4.0 scale.
- The Graduate Record Examination (GRE) combined Quantitative and Verbal score of 308 (1200).
- International applicants: The TOEFL with a minimum of 100 on the IBT and a speaking score of 20. IELTS with a minimum score of 6.5 with no individual sub-score below 6.0 on the IELTS alternative.
- Three letters of recommendation from former teachers or supervisors.
- Statement of Purpose
- Complete the ME graduate supplemental document
All items should uploaded into your graduate application. Admission is selective and competitive based on the number of well qualified applicants and the research opportunities available with the faculty. Meeting the stated minimum academic requirements does not guarantee admission. The acceptance of applicants who have already received a Master’s degree in engineering will be based on the above minimum criteria and the results of their graduate work.
Tuition & Deadlines
MSME Fall admission:
January 31: Priority consideration for admission
July 31: Final deadline to apply
MSME Spring admission:
October 31: Priority consideration for admission
December 31: Final deadline to apply
Research at UD’s Mechanical Engineering
Be a leader in solving biomechanical problems. The human body is a mechanical system that contains fluid flow, structural mechanics and evolving components—all central concepts in mechanical engineering.
Develop new, clean and sustainable energy sources through novel energy conversion techniques, alternative energy storage methods and fuel-efficient vehicles, among other traditional methods of energy conversion.
Understand how materials respond, then use this information to optimally design everything from airplanes to artificial joint replacements using composite and advanced materials, nanotechnology and creative ingenuity.
The emergence of nanotechnology, which deals with the manipulation of materials at the atomic and molecular scales, has enabled the development of new materials and devices that exhibit novel properties.
Construct sophisticated robotic devices that, via advanced control systems, help humans in a multitude of situations, such as manufacturing plants, rescue squads, military operations and rehabilitation devices.