Program Description
Mechanical engineers create the physical systems and devices that define modern society — everything from automobiles to air conditioning, robots to power plants, people movers to artificial limbs, and rocket engines to satellites. At the School of Engineering, we groom our students to become the inventors and innovators of tomorrow, to jumpstart the next generation of entrepreneurial ventures. In short, we help them transform our philosophy of invention, innovation, and entrepreneurship — or i2e — into action.
The MS in Mechanical Engineering program is flexible enough for our students to pursue it as a terminal degree or as a stepping stone towards a Ph.D. degree. Many enter such fields as computer engineering, nanotechnology, software development, and financial engineering. They also occupy positions in bioengineering, manufacturing, astronautics, systems engineering, and corporate management and law. Others become leading stewards of the natural environment by advancing resource conservation, more efficient energy consuming devices, and new energy sources.
Admissions
Admission to graduate programs in the Tandon School of Engineering requires the following minimum components:
- Résumé/CV
- Statement of Purpose
- Letters of Recommendation
- Transcripts
- Proficiency in English
The NYU Tandon Graduate Admissions website has additional information on school-wide admission.
Some programs may require additional components for admissions.
See the program's How to Apply for department-specific admission requirements and instructions.
Requirements
A bachelor’s degree and a good academic record in mechanical engineering from a reputable college or university are generally required for admission to this program. Applicants with degrees from fields other than mechanical engineering may be admitted but may have to complete additional studies to achieve a comparable background. Courses required to achieve this status are specified as part of the admission evaluation. Undergraduate courses specified for this purpose cannot count toward credits for the graduate degree. Graduate programs are subject to prior approval of a graduate adviser designated by the department.
Program Requirements
The program requires the completion of 30 credits, and students choose one of the following specialties:
Controls and Dynamic Systems
Course List
Course |
Title |
Credits |
ME-GY 6003 | Applied Mathematics in Mechanical Engineering | 3 |
ME-GY 6043 | Thermal Engineering Fundamentals | 3 |
ME-GY 6213 | Introduction to Solid Mechanics | 3 |
ME-GY 6703 | LINEAR CONTROL THEORY AND DESIGN I | 3 |
| 6 |
| Advanced Dynamics | |
| LINEAR CONTROL THEORY AND DESIGN II | |
| NON-LINEAR SYSTEMS: ANALYSIS & CONTROL | |
| CO-OPERATIVE CONTROL | |
| OPTIMAL ROBUST CONTROL | |
| Mechatronics | |
| ROBOT PERCEPTION | |
| 6 |
| 6 |
Total Credits | 30 |
Fluids and Energy Engineering
Course List
Course |
Title |
Credits |
ME-GY 6003 | Applied Mathematics in Mechanical Engineering | 3 |
ME-GY 6043 | Thermal Engineering Fundamentals | 3 |
ME-GY 6213 | Introduction to Solid Mechanics | 3 |
ME-GY 6703 | LINEAR CONTROL THEORY AND DESIGN I | 3 |
| 6 |
| THERMODYNAMICS OF HVAC SYSTEMS | |
| FLUID MECHANICS FOR HVAC SYSTEMS | |
| HEAT TRANSFER FOR HVAC SYSTEMS | |
| DESIGN OF HVAC SYSTEMS | |
| Energy Conversion Systems | |
| Energy Policy, Regulations, and Incentives | |
| Energy Project Financing | |
| Convective Heat Transfer | |
| Conductive Heat Transfer | |
| Radiative Heat Transfer | |
| Viscous Flow and Boundary Layers | |
| Compressible Flow | |
| COMPUTATIONAL FLUID MECHANICS AND HEAT TRANSFER | |
| 6 |
| 6 |
Total Credits | 30 |
Mechanics and Structural Systems
Course List
Course |
Title |
Credits |
ME-GY 6003 | Applied Mathematics in Mechanical Engineering | 3 |
ME-GY 6043 | Thermal Engineering Fundamentals | 3 |
ME-GY 6213 | Introduction to Solid Mechanics | 3 |
ME-GY 6703 | LINEAR CONTROL THEORY AND DESIGN I | 3 |
| 6 |
| COMPOSITE MATERIALS | |
| Vibrations | |
| Advanced Mechanics of Materials | |
| Additive Manufacturing Fundamentals | |
| Additive Manufacturing of Metallic Materials | |
| Advanced Dynamics | |
| Advanced Composite Materials | |
| FAILURE MECHANCIS | |
| NON-DESTRUCTIVE EVALUATION | |
| Advanced Vibrations | |
| ELASTICITY II | |
| 6 |
| 6 |
Total Credits | 30 |
Note for all Specialties
If students decide to do a ME-GY 997X MS THESIS IN MECHANICAL ENGINEERING as part of their work for the degree, these 9 credits will be counted against 3 credits out of the 6 credits in ME electives, 3 credits out of the 6 credits in ME Required for the Specialty Area credits and 3 credits out of the 6 credits of Free Electives. Students are not allowed to count more than three 5000-level courses (9 credits) toward M.S. degree requirements. Departmental electives include courses with a mechanical (ME) or robotics (ROB) prefix, plus departmental thesis or project credits. All courses and program details are subject to advisor approval.
Learning Outcomes
Upon successful completion of the program, graduates will:
- Understand basic principles and solve vector algebra problems.
- Understand matrix theory, eigenvalues and eigenvectors.
- Learn basic methods for solving ODE's.
- Apply Laplace and Fourier transforms to mathematical problems.
- Learn basic methods for solving PDE's.
- Be able to formulate and solve problems related to the thermodynamics of energy systems and components.
- Be able to formulate and solve problems fundamental problems in fluid mechanics both in differential and control volume formulations.
- Be able to formulate and solve problems fundamental problems in heat transfer both in differential and control volume formulations.
- Learn the concept of stress and strain in three-dimensional continua.
- Learn the use of energy methods to compute displacements in structures.
- Understand the phenomenon of buckling and learn design elements of slender columns.
- Understand the phenomena of beams on elastic foundations.
- Understand the phenomena of curved beams and effect of curvature on load bearing ability.
- Learn to model mechanical systems in space-state.
- Learn to descript and analyze of linear mechanical systems.
- Learn about application of transform and transition matrix methods.
- Understand and investigated systems’ structural properties: stability, controllability, observability.
Policies
NYU Policies
University-wide policies can be found on the New York University Policy pages.
Tandon Policies
Additional academic policies can be found on the Tandon academic policy page.