Master's Degree in Aerospace Engineering

Missouri University of Science and Technology (Missouri S&T) offers a Master's degree in Aerospace Engineering for students who want to develop advanced technical skills and prepare for specialized careers in the aerospace sector. The program provides opportunities to work with faculty on research involving aircraft, spacecraft, and space systems, while allowing students to tailor their studies to their interests.

Students can choose a thesis or non-thesis pathway. The thesis option is particularly suitable for students interested in research and further academic study, while the non-thesis option emphasizes advanced coursework and professional skill development. Both pathways are available to distance learners.

Curriculum Structure

Both pathways require at least 30 credit hours. The thesis option combines graduate coursework with research and requires a completed thesis and oral defense. The non-thesis option requires at least 30 credit hours of lecture courses, with a minimum of 24 credit hours in the Mechanical and Aerospace Engineering department. Students work with an academic advisor to develop an approved plan of study.

Year 1

Students begin with advanced coursework in areas aligned with their academic interests, such as aerodynamics, fluid mechanics, aerospace structures, propulsion, or control systems. Potential courses include Intro to Hypersonic Flow (AERO ENG 5169) and Intro to Composite Materials & Structures (AERO ENG/MECH ENG 5282), depending on the student's chosen pathway and course availability.

Year 2

Students deepen their specialization through advanced coursework and, for thesis students, original research under faculty supervision. Relevant courses may include Flight Dynamics – Stability and Control (AERO ENG 5361), Aerospace Propulsion Systems (AERO ENG 5535), and Spaceflight Mechanics (AERO ENG 5614). Thesis students complete their research, submit a written thesis, and pass an oral examination. Actual course availability depends on the semester and the approved study plan.

Focus Areas

• Aerodynamics and Fluid Mechanics: Study airflow, aerodynamic performance, hypersonic flow, and advanced fluid behavior.

• Propulsion and Energy Systems: Explore aerospace propulsion, combustion, and energy conversion.

• Control Systems and Flight Dynamics: Examine vehicle stability, guidance, control, and dynamic behavior.

• Aerospace Structures and Composite Materials: Investigate structural performance, composite materials, and finite element analysis.

• Autonomous Systems and Small Satellites: Explore emerging technologies for aircraft, spacecraft, and space systems.

• Engineering Mechanics and Manufacturing: Develop expertise in structural mechanics, design optimization, and advanced manufacturing methods.

These areas reflect the program's course offerings and research opportunities, allowing students to tailor their studies to their interests.

Learning Outcomes

Graduates can develop the ability to:

• Apply advanced engineering principles to complex aerospace problems.

• Analyze aerodynamic performance, propulsion systems, and flight dynamics.

• Evaluate aerospace structures, composite materials, and engineering designs.

• Use computational and analytical methods to investigate technical challenges.

• Conduct independent research and communicate findings through technical reports or publications.

• Develop specialized expertise relevant to aerospace design, development, and research.

Professional Alignment and Accreditation

The program emphasizes advanced technical knowledge, research skills, and practical problem-solving relevant to aerospace engineering careers. Thesis students gain experience conducting original research, preparing a formal thesis, and defending their work before an advisory committee. The university is accredited by the Higher Learning Commission; this is institutional accreditation and should not be interpreted as specific ABET accreditation of the master's degree.

Reputation and Employability

Missouri S&T provides access to engineering laboratories and research facilities, including specialized equipment for aerodynamic testing, supersonic-flow experiments, combustion research, and composite-material testing. The university states that nearly all students who conduct research receive support for their studies, making research an important part of its graduate aerospace offering. Students should confirm the availability and eligibility requirements for specific funding opportunities.

Graduates may pursue career opportunities as aerospace engineers, spacecraft designers, propulsion engineers, aerodynamicists, structural analysis engineers, control systems engineers, and research and development specialists. The degree may also support progression toward doctoral study or careers in government laboratories, commercial aerospace companies, and higher education.