Master of Science in Aerospace Engineering

2 Years On Campus Masters Program

Mississippi State University

Program Overview

The Master of Science (MS) in Aerospace Engineering at Mississippi State University is designed for students who want to develop advanced engineering expertise and prepare for careers in aerospace research, design, analysis, and development. The program covers a wide range of aerospace topics, including aerodynamics, aerospace structures, computational fluid dynamics, autonomous systems, and guidance and control.

Students can choose between thesis and non-thesis options, depending on whether they prefer research-oriented study or a coursework-focused pathway. The department also offers online learning options, giving eligible students greater flexibility in pursuing graduate education.

Curriculum Structure

The program requires 30 credit hours for either degree option.

Thesis option: 9 credit hours of 8000-level coursework, 15 credit hours of additional graduate coursework, and 6 credit hours of thesis research. Students must successfully defend their thesis.
Non-thesis option: 12 credit hours of 8000-level coursework and 18 credit hours of additional graduate coursework. Students must pass a coursework-based comprehensive examination.

Students select graduate courses based on their academic interests and approved plan of study.

Year 1

Students typically begin with advanced coursework that builds their understanding of aerospace systems and engineering analysis. Depending on their interests and prerequisites, relevant courses may include Introduction to Computational Fluid Dynamics (ASE 6423), which introduces numerical techniques for solving fluid-flow problems, and Structural Dynamics (ASE 6233), which explores vibration, matrix methods, and structural stability. The precise course sequence depends on the student's approved plan of study and course availability.

Year 2

Students continue with advanced electives and either complete thesis research or prepare for the comprehensive examination required for the non-thesis option. Relevant courses may include Engineering Design Optimization (ASE 6553), which covers optimization methods and multidisciplinary design optimization, and Automatic Control of Aerospace Vehicles (ASE 6133), which examines control-system design and optimization techniques. These courses are examples of available graduate study, not a fixed second-year schedule.

Focus Areas

The department offers opportunities to develop expertise in several aerospace engineering disciplines:

Aerodynamics and Computational Fluid Dynamics: Fluid flow, advanced aerodynamics, numerical simulation, and turbulence.
Aeroelasticity and Structural Engineering: Structural dynamics, composite materials, fatigue, fracture, and fluid–structure interaction.
Guidance and Control: Aerospace vehicle control, autonomous systems, dynamic modeling, and optimal control.
Design Optimization: Engineering optimization methods and multidisciplinary design.
Autonomous Systems: Unmanned aircraft systems, autonomous operation, control, and monitoring.
Aeroacoustics: Noise generation and related aerodynamic phenomena.

These areas reflect the department's graduate study and research interests, allowing students to develop expertise in topics relevant to aircraft, spacecraft, and other aerospace systems.

Learning Outcomes

Students are expected to develop the ability to:

Apply advanced engineering principles to complex aerospace problems.
Analyze aerodynamic behavior, structural dynamics, and aerospace vehicle systems.
Use computational methods and numerical tools to evaluate engineering performance.
Apply optimization, control theory, and analytical techniques to aerospace design challenges.
Conduct independent research and defend their findings, or demonstrate advanced subject knowledge through the non-thesis comprehensive examination.
Communicate technical results and apply specialized engineering knowledge to professional practice or further academic study.

Professional Alignment and Accreditation

The MS in Aerospace Engineering provides advanced preparation for technical careers in aerospace engineering, research, and development. The thesis option supports students interested in independent research, while the non-thesis option offers a coursework-focused alternative.

Mississippi State University's admission requirements refer to EAC/ABET accreditation when evaluating applicants' undergraduate engineering backgrounds. This does not establish that the master's program itself holds ABET accreditation. Students who require confirmation of program-level accreditation should verify the current status directly with the university.

Reputation and Employability

Mississippi State University provides graduate students with access to specialized aerospace research facilities and laboratories. These include the Advanced Performance Composite Materials Laboratory, Autonomous Systems Research Lab, a low-speed wind tunnel, and research opportunities through the Raspet Flight Research Laboratory and the Advanced Composites Institute. The department also indicates that graduate research and teaching assistantships are available for highly qualified students.

Graduates may pursue roles in aerospace engineering, computational fluid dynamics, structural analysis, composite materials, flight controls, autonomous systems, design optimization, and engineering research and development. Potential employers include aircraft manufacturers, aerospace and defense companies, space technology organizations, and engineering consultancies. Career outcomes depend on individual qualifications, experience, specialization, and employer requirements.

Experiential Learning (Research, Projects, Internships etc.)

At Mississippi State University, the Master of Science in Aerospace Engineering program is designed to provide students with hands-on experiences that are crucial for developing practical skills in the field. Students have access to state-of-the-art facilities and cutting-edge tools that enhance their learning and prepare them for real-world challenges. The program emphasizes experiential learning through collaborative projects, research opportunities, and industry partnerships, ensuring that graduates are well-equipped for their careers.

Here are some key aspects of experiential learning in the Aerospace Engineering program:

- Advanced Laboratories: Students can work in specialized labs such as the Aerospace Engineering Laboratory and the Propulsion Laboratory, where they can conduct experiments and research on various aerospace systems.

- Research Opportunities: Engage in innovative research projects under the guidance of faculty members who are experts in their fields. This includes opportunities to work on projects funded by NASA and other aerospace organizations.

- Software Proficiency: Gain experience with industry-standard software tools such as MATLAB, ANSYS, and SolidWorks, which are essential for design, analysis, and simulation in aerospace engineering.

- Group Projects: Collaborate with peers on team-based projects that mimic real-world engineering challenges, fostering teamwork and problem-solving skills.

- Internships and Co-ops: Take advantage of internship opportunities with leading aerospace companies, providing valuable industry experience and networking connections.

- Field Trips: Participate in field trips to aerospace facilities and conferences, allowing students to see the application of their studies in real-world settings.

- Access to Libraries and Resources: Utilize the extensive resources available at the MSU Libraries, including access to aerospace engineering journals, databases, and research materials.

- Institute for Aerospace Research: Benefit from the resources and expertise of the Institute for Aerospace Research, which focuses on advancing aerospace technology and education.

These experiential learning opportunities not only enhance your academic experience but also significantly boost your employability in the aerospace sector.

Consider applying to Mississippi State University and take the next step toward an exciting career in aerospace engineering!

Progression & Future Opportunities

Pursuing a Master of Science in Aerospace Engineering at Mississippi State University opens the door to a wealth of career opportunities in a rapidly evolving field. Graduates often find themselves in roles such as aerospace engineer, systems engineer, and research scientist, contributing to innovative projects that shape the future of aviation and space exploration. The demand for skilled professionals in this sector continues to grow, making this degree a valuable asset for your career.

Here’s what you can expect in terms of progression and future opportunities:

- University Services: Mississippi State offers robust career services, including resume workshops, interview preparation, and networking events specifically tailored for engineering students. The Engineering Career Fair connects students directly with leading aerospace companies.

- Employment Stats and Salary Figures: According to recent data, graduates from the aerospace engineering program have a high employment rate, with many securing positions within six months of graduation. The average starting salary for aerospace engineers in the region is around $80,000, with potential for growth as experience increases.

- University–Industry Partnerships: Mississippi State has established partnerships with major aerospace companies such as NASA, Boeing, and Northrop Grumman. These collaborations provide students with internship opportunities and real-world project experience, enhancing their employability.

- Long-Term Accreditation Value: The aerospace engineering program is accredited by the Accreditation Board for Engineering and Technology (ABET), ensuring that your degree meets the highest educational standards and is recognized by employers worldwide.

- Graduation Outcomes: Alumni of the program have gone on to work for prestigious organizations and have made significant contributions to aerospace technology, demonstrating the program's effectiveness in preparing students for successful careers.

Further Academic Progression: After completing your Master’s degree, you may choose to pursue a Ph.D. in Aerospace Engineering or a related field, allowing you to delve deeper into research and potentially teach at the university level. This advanced study can lead to specialized roles in academia, research institutions, or high-level positions in industry, further enhancing your career prospects and expertise in the field.

With the strong foundation and opportunities provided by Mississippi State University, you’ll be well-equipped to launch a successful career in aerospace engineering.