Most Affordable Masters Program in Aeronautics/Aviation Engineering

The aerospace graduate program will improve and enhance the capabilities of those students seeking careers in the aerospace field and supporting engineering work for the aerospace and aviation technology community. Those individuals with engineering (as well as physical science) interests will use the M.S.A.E. to develop careers as well as improve their skills in the aerospace and aviation industry.

For information regarding accreditation at UNLV, please head over to Academic Program Accreditations.

Demonstrate a advanced technical knowledge of state-of-the-art and evolving areas associated with the mechanical engineering field so that they can lead and direct engineering and scientific industry teams in their chosen field of study.

Graduates of the program will demonstrate a strong technical knowledge in chosen mechanical engineering field by passing a comprehensive exam or a design project in the student major area of study near the completion of the degree program.

Requires credits of approved graduate courses. At least 18 credits must be earned from 700-level courses, of which 15 credits must be in engineering. To complete the Non-Thesis option, students must also successfully complete the Design Project course (ME 796-Design Project in Mechanical Engineering) or pass a comprehensive written and oral exit exam before receiving their degree.

Demonstrate a strong technical knowledge in chosen mechanical engineering field by successfully completing course work and integrating knowledge learned in their course work into a thesis.

Graduates in Aerospace Engineering may pursue a variety of career paths in aircraft design and development, propulsion, and aerodynamics. Some work in related fields in industry and others obtain an advanced degree.

The Mechanical Engineering prepares students for the lifelong practice of mechanical engineering and related engineering disciplines. Our students to become problem solvers through applying science to deal with the relations among forces, work, or energy, and power in designing systems, which ultimately contributes to the betterment of the human environment.

The College of Engineering provides students a well-rounded foundation in several engineering disciplines for a successful career in engineering and computer science. Through the hands-on, experiential education experience we offer, students are enabled to achieve excellence in their respective fields.

USU is a national leader in aerospace engineering research and education.

All graduate programs are offered face-to-face at our USU Logan campus.

Plan coursework plus thesis. Designed for students considering a PhD or a career that requires research experience.

The PhD is a research-intensive program for students pursuing advanced leadership roles in the defense and aerospace industries or who plan to teach engineering at 4-year colleges and universities.

Graduate school has been one of the most challenging times in my life. They are approachable, willing to help, very knowledgeable and have great industry connections.

Graduate school may not be for everyone, but it has been the best for me. The process has helped me recognize my skills and strengths, as well as develop other technical abilities. Graduate school has left me with lasting connections and wonderful opportunities. It has not always been easy, but it has always been worth it.

The USU Aerospace Engineering Department has been super understanding and flexible as I've balanced pursuing my master degree and being a mom. My classes have taught both theory and application, providing me with the knowledge and skills needed to pursue a job in GN C.

Our mission is to produce innovative leaders for the aerospace industry.

This state-of the-art wind tunnel generates air flow up to 122 mph. It is used for class demonstrations and graduate research.

U.S. News World Report Best Grad Schools Engineering Badge.

Break Barriers With Aerospace Innovations That Take Off.

Aerospace engineer graduates can choose to work in a number of industries, including space, defense, air travel and sustainable energy. With a projected growth of four percent through 2028, many employers are already looking for the next generation of leaders. taking their career to the next level.

Space Systems Design and Engineering Track This track is geared toward students looking to focus their studies in the areas of controls and dynamics, space environment, instrumentation and communications, structures and materials, thermal analysis, and design.

Thermofluid Aerodynamic Systems Design and Engineering Track A track for students to specialize in areas of controls and dynamics, aerodynamics, propulsion, thermal analysis and design.

No. 1 supplier of graduates to the aerospace and defense industries, including Boeing, Lockheed Martin, Northrup Grumman, SpaceX, Blue Origin, NASA Centers and DoD DoE Research Laboratories.

27% of Lockheed Martin employees in Orlando are UCF grads.

Projected job growth for aerospace engineers is 4% through 2028.

Aerospace engineers have an annual median pay of $116K.

To solve problems in aerospace engineering.

Cover modern control theory and nonlinear systems controllability and observability. This course emphasizes linear state feedback and state estimators, and compensator design.

Using principles of engineering, science and mathematics.

Develop technologies for aerospace vehicle systems, ranging from aircraft and spacecraft to propulsion systems and satellites.

To apply, submit the general graduate admissions requirements, as well as the following items by the deadline:.

Master of Science in Aerospace Engineering (MSAE) News.

Aviation Week Network magazine released its annual 20 Twenties Award Class listing, which identifies students with the potential to change the aerospace industry.

UCF Continues Streak as Top Workforce Supplier to Aerospace, Defense Industries.

Across the state, UCF graduates go on to work for industry partners such as Lockheed Martin, Siemens and NASA.

Degree Search College of Engineering and Computer Science programs Masters Aerospace Engineering (MSAE).

The Master of Science in Aerospace Engineering (MSAE) is designed to prepare students for careers as engineers in aerospace.

Total Credit Hours Required: 30 Credit Hours Minimum beyond the Bachelor Degree.

Aeronautics Aviation Engineering has potential ties to professional licensure or certification in the field.

Please note:Aerospace Engineering (MSAE) may be completed fully online, although not all elective options or program prerequisites may be offered online. Newly admitted students choosing to complete this program exclusively via UCF online classes may enroll with a reduction in campus-based fees.

International students (F or J visa) are required to enroll in a full-time course load of 9 credit hours during the fall and spring semesters. Only 3 of the 9 credit hours may be taken in a completely online format.

UCF is not authorized to provide online courses or instruction to students in some states. Refer to State Restrictions for current information.

Students in the M.S. degree program in Aerospace Engineering can specialize in either Aerodynamics Astronautics or Structural Mechanics. Students concentrate their coursework and research on their chosen specialty. The curriculum also requires students to take courses outside of their specialty to ensure that they can work in multi-disciplinary aerospace environments. The curriculum has been meticulously crafted to give students a solid foundation in the analytical and design areas of aerospace engineering.

Through involvement in course projects, thesis research supported industrial initiatives, and various internship possibilities at local aerospace companies such as Northrup Grumann, General Atomics, and Goodrich Aerostructures, students have enough chance to develop practical skills. The SDSU aeronautical engineering department also participates in a number of national design-build-test competitions and technical paper challenges.

The SDSU Aerospace Graduate Program is ranked No. 37 nationwide and No. 27 among public universities by US News & World Report for 2017. 

Dual M.S. Degree in Aerospace Engineering and Space Architecture.

Graduate students interested in the related fields of Aerospace Engineering and Space Architecture can combine their studies in a Dual Aerospace Engineering Space Architecture Master of Science degree program. The dual degree allows students to obtain a M.S. degree in Aerospace Engineering and a M.S. degree in Space Architecture by completing 46 credit hours of relevant graduate coursework. Hence, with the appropriate selection of graduate courses within the Aerospace Engineering and the Space Architecture programs students can be awarded both degrees. Hence, the dual degree plan significantly reduces the total number of credit hours needed if the two degrees were pursued separately.

New students should apply to Mechanical Engineering graduate program for admission and indicate their interest to pursue the dual Aerospace Engineering Space Architecture M.S. degree.

To be unconditionally admitted to the Dual MS degree program, an applicant should have:.

A Bachelor degree in Mechanical Engineering, Aerospace Engineering or a related field, preferably from an accredited engineering program.

A grade point average of at least 3.00 out of 4.00 on the last 60 semester credit hours attempted exclusive of grades received for activities such as seminars, physical education, industrial internships, etc.

An adequate score on the Graduate Record Examination (GRE). Texas law prohibits the definition of minimum acceptable scores on the GRE. However, 160 to 163 is a typical average score on the Quantitative section across all degree programs for an admission class.

Three letters of recommendation attesting to the student capacity to perform in the classroom and (for applicants to the thesis program) in a research capacity.

A statement of purpose that is consistent with the areas of instruction and (for applicants to the thesis program) the current research areas within the Department.

Acceptance to the program is based on a competitive combination of academic background, GRE scores, recommendation letters and the statement of purpose. Nonimmigrant visa holders may not be admitted conditionally.

Students may begin their graduate studies in one program and apply for admission to the dual degree program at a later date. However, the decision by a student to pursue the dual degree should be made prior to the completion of 18 hours of coursework.

Within the 46 completed credit hours, students must fulfill the program requirements for each separate degree. Hence, the course selections should simultaneously comply with the course requirements of the Aerospace Engineering M.S. program and the core area course requirements of the Space Architecture M.S program.

Completion of the program with a Thesis option is possible and in this case the corresponding degree will be an M.S. with Thesis degree.

Program of Study for the Dual M.S. Program without Thesis.

Eighteen hours of coursework from the approved Aerospace Engineering courses in the core areas of a) Aerodynamics Heat Transfer, b) Structural Mechanics and Materials, and c) Controls and Dynamics. Students can select a core area of concentration where they take the majority of their core courses. However, as a breadth requirement, students should take at least six semester hours of core course work outside their core area of concentration.

Sixteen hours of coursework from Space Architecture core courses, exclusive of Special Problems Independent Study (SPAC 6298 and SPAC 6398) and Master Project (SPAC 7410).

Program of Study for the Dual M.S. Program with Thesis.

Nine hours of thesis or Master project credits. For MS in AE nine hours of thesis credits (the first three for MECE 6399, the remaining for MECE 7399) are required. For MS in SPAC nine hours of thesis credits (the first four for SPAC 7410, the remaining for SPAC6298 and SPAC6398).

Eighteen hours from the approved Aerospace Engineering courses in the core areas of a) Aerodynamics Heat Transfer, b) Structural Mechanics and Materials, and c) Controls and Dynamics. As in the non-thesis option at least six semester hours of core course work should be completed outside a core area of concentration.

Sixteen hours of Space Architecture courses, exclusive of Special Problems Independent Study (SPAC 6298 and SPAC 6398) and Master Project (SPAC 7410).

Approval must be received prior to enrollment in the course. Non-thesis students should not enroll in research or thesis courses (MECE 6x98, MECE 6399, MECE 7399 or SPAC 7410).

Appendix: Comparison of individual and dual degree plans.

Space Architecture: 30 credit hours of coursework with.

A minimum of 16 from Space Architecture core courses and.

The remaining from Special Problems Independent Study {SPAC 6298 and SPAC 6398) and other approved graduate electives.

Dual Degree: 46 credit hours of coursework with.

18 in the core Aerospace Engineering areas of a) Aerodynamics Heat Transfer, b) Structural Mechanics and Materials, and c) Controls and Dynamics.

The remaining from Special Problems Independent Study (SPAC 6298 and SPAC 6398) and other approved graduate electives.

A minimum of 16 in core Space Architecture courses and.

Dual M.S. Degree in Mechanical and Aerospace Engineering.

Dual M.S. Degree in Mechanical and Subsea Engineering.

Master of Science in Engineering with a concentration in aerospace engineering.

This growing field has employment opportunities covering a wide range of engineering disciplines from material science to mechanical design, sensor development and . The VCU College of Engineering is among the best graduate programs in the nation as ranked by U.S. News and World Report. Combined with our industry connections and access to Richmond-area businesses, VCU Engineering is a solid choice for your continuing education.

Our 30-credit program can be completed in two years by full time students. You will learn to work in cross-disciplinary teams focused on the design, development and testing of vehicles like aircraft, spacecraft, satellites and missiles.

Apply your engineering, science and mathematical knowledge to formulate solutions to new and existing problems while communicating your findings to colleagues, industry and community stakeholders.You will develop expertise in areas like:.

Close to the aerospace industry hubs of Washington D.C. and Norfolk, Virginia, the VCU College of Engineering gives you access to both regions with a lower cost of living.

Etched into the landscape of Richmond, the college gives students access to a culturally vibrant and diverse city full of potential. We focus on developing close partnerships with public institutions and private businesses in order to give you unique learning and job opportunities. Many of our courses are taught by industry professionals actively engaged in the practice of aerospace engineering.

Learn from industry professionals with classes taught by practicing aerospace engineers.

Access to aerospace technology hubs in Washington D.C. and Norfolk while enjoying the lower cost of living in Richmond.

Learn when and where you want with a combination of in-person and online classes designed to work with your schedule in mind.

Dedicated Career Services department that provides internship and employment opportunities.

Interdisciplinary education to teach collaboration with engineering practitioners outside your field of study.

Reference the VCU Bulletin for a full list of mechanical and nuclear engineering classes.

Advanced Turbomachinery Systems (EGMN 662): Learn the principles used in analyzing and designing compressors and turbines. Upon completion of the course, students will be able to understand the design systems and techniques used in the aeropropulsion and gas turbine industries.

Advanced Modeling and Simulations (EGMN 625): Use the finite element method to solve applied engineering problems at an advanced level. Special focus will be largely on solid mechanics and thermal problems. Commercially available finite element method software ANSYS will be utilized and you will learn to use it at an advanced level through utilizing commands and basic programming features.

A graduate degree in mechanical and nuclear engineering can facilitate career advancement in a number of aerospace specializations like:.

Stress Manager: Apply mechanical engineering expertise to the structural analysis of aircraft, missiles or spacecraft. Lead and coordinate teams of engineers to facilitate the development or refinement of aviation structures.

Aerospace Quality Manager: Develops, administers and maintains quality assurance procedures and activities required to ensure that the company products are following quality standards. Will also lead coach process improvement teams across functions.

With the help of our Career Services team, VCU College of Engineering graduates have many opportunities to network with alumni and industry professionals. Our students work at companies like:.

VCU offers an online self-managed application process. This information outlines items needed to apply for a graduate program with the VCU College of Engineering.

The Aerospace Engineering offers a non-thesis Master of Engineering (MENG) degree. Geared toward industry or to support a second, non-engineering degree, students in this degree program complete a minimum 30 credit hour degree plan. There is no defense of a final project required. All coursework will be in AERO or MEMA (Mechanics Materials), but students may take up to three courses (9-10 credits maximum) from external departments if desired (e.g., other engineering disciplines, math, statistics, business, geoscience, etc.). Up to two credit hours of AERO 681 Seminar is allowed, but the same seminar topic cannot be repeated for credit. The department offers two AERO 681 Seminar topics each fall and spring semester (Communication and Professional Development). No AERO 691 Research hours are permitted in the MENG degree plan. Students admitted to this program must have a bachelor degree in aerospace engineering or an equivalent field. If the degree is not a closely related engineering field, leveling courses may be required.

Aerospace Engineering at a graduate level is offered by this department with two traditional study paths; Master of Science (MSAE) and Doctor of Philosophy (PhDAE). But, there are also two other unique programs available: Master of Engineering (MEAE) and Doctor of Engineering (DEAE), which emphasizes system design and management. These courses provide promising opportunity in terms industry, private and government laboratories, while doctoral programs prepare students for an academic career in teaching as well as research.

Faculty members have extensive experience in graduate education along with knowledge gained from working in different industries and government laboratories. Funding to their research projects come from NASA, DOD, DOE, NSF, FAA and Aerospace-related organizations.

The California Polytechnic State University, Aerospace Engineering Department offers the following degree programs:

• Bachelor of Science degree in Aerospace Engineering
• Blended BS + MS in Aerospace Engineering
• Graduate program in Aerospace Engineering

Aerospace Engineering Department offers an advanced graduate program that introduces students to a highly specialized realm of expertise. In particular, it provides a Master of Science degree in Aerospace Engineering with a concentration on Research. This means students will be engaging in thesis research and coursework that helps them develop applicable technical abilities for their selected profession.

In order to gain a thorough comprehension of aerospace engineering, gaining 45 credits via an M.S. in Aerospace Engineering is essential. With this program, individuals build off of mathematics and science fundamentals while honing their technical skills, all with an appreciation for ethical considerations, public welfare, and technological innovation. After completing this coursework, students will have knowledge applicable to all aspects of aerospace from aircraft and spacecraft development to operations and research.

Objectives of the Master of Science degree in Aerospace Engineering program are:

• excellent scientific, mathematical, and engineering knowledge proficiency. 
• the capacity to use knowledge of aerospace engineering, advanced mathematics, and science in an independent project. 
• contribute specifically to a field that affects aerospace workers. 
• ability to effectively communicate engineering concepts and findings in both speech and written form. 
• being aware of one's obligations under the law and morality. 
• understanding of modern, international problems affecting both society at large and aerospace engineering.
• knowledge of the latest technology's quick advancement and capacity for lifelong learning. 

The Master of Science and Doctor of Philosophy degrees are earned after completing graduate work in aerospace engineering. Graduate studies prepare students for positions in academia, government laboratories, and the aerospace industry. 

Either a thesis or a non-thesis can be used to obtain a master of science. For both options, a minimum of 21-semester graduate credits must be in aeronautical engineering or the AERO category, and a total of 30 semester graduate credits in 6000–7000 level courses are required. A plan of study will be managed by the graduate committee for students seeking a master of science degree without a thesis. There are no residency, research, or final oral examination requirements for the master of science degree option that does not require a thesis.

A minimum of 60 more credits beyond the bachelor's degree are required for the doctor of philosophy degree. Students can choose to specialize in the general fields of aerodynamics, computational fluid dynamics, control theory, flight dynamics, orbital mechanics, propulsion, structures, or structural dynamics while creating their own study plan.