Master of Science in Aerospace Engineering

2 Years On Campus Masters Program

Wichita State University

Program Overview

The Master of Science (MS) in Aerospace Engineering at Wichita State University is designed for students who want to advance their technical expertise and prepare for careers in aerospace engineering, research, or doctoral study. Located in Wichita, widely known as the “Air Capital of the World,” the university offers opportunities to learn from faculty, use specialized aerospace facilities, and engage with the surrounding aviation and aerospace industry.

The program offers four areas of specialization: aerodynamics and fluid mechanics, structures and solid mechanics, flight dynamics and control, and multidisciplinary analysis and design. Students can tailor their studies to their interests through a thesis, directed project, or coursework-based option.

Curriculum Structure

The program requires 30–33 credit hours, depending on the degree option selected:

Thesis option: At least 24 credit hours of graduate coursework and 6 credit hours of thesis research.
Directed project option: At least 30 credit hours of coursework and 3 credit hours of directed project work.
Non-thesis option: 33 credit hours of graduate coursework, plus an applied learning activity.

Students develop an approved plan of study with their academic advisor. The curriculum includes specialized aerospace engineering courses and at least 3 credit hours in advanced mathematics or statistics.

Year 1

Students typically establish their advanced engineering foundation through courses aligned with their chosen specialization. For example, Intermediate Aerodynamics (AE 711) and Compressible Fluid Flow (AE 716) are relevant to students focusing on aerodynamics and fluid mechanics, while Finite Element Analysis of Structures I (AE 722) supports students interested in structural analysis. The exact course sequence depends on the approved study plan and prerequisites.

Year 2

Students deepen their specialization through advanced electives and complete the requirements associated with their selected degree option. Courses such as Modern Flight Control System Design I (AE 707) and Advanced Flight Dynamics I (AE 714) are relevant to flight dynamics and control. Thesis students conduct research, while directed-project students complete a supervised engineering project; coursework-only students fulfill the additional applied learning requirement. These are examples of available courses, not a fixed year-by-year schedule.

Focus Areas

Students can specialize in four major areas of aerospace engineering:

Aerodynamics and Fluid Mechanics: Study airflow, aerodynamic performance, compressible flow, viscous flows, and computational fluid dynamics.
Structures and Solid Mechanics: Explore structural analysis, elasticity, vibration, composite materials, and the mechanical behavior of aerospace structures.
Flight Dynamics and Control: Develop knowledge of aircraft motion, stability, flight control systems, and dynamic modeling.
Multidisciplinary Analysis and Design: Integrate engineering disciplines to evaluate, design, and optimize complex aerospace systems.

These specializations are supported by the department’s research activities and laboratory facilities, including wind tunnels, flight simulation, structural testing, propulsion, and controls laboratories.

Learning Outcomes

Students are expected to develop the ability to:

Apply advanced engineering principles to complex aerospace problems.
Analyze aerodynamic flows, structural behavior, and aircraft dynamics using mathematical and computational methods.
Evaluate aerospace systems and apply design and optimization techniques.
Conduct independent research or complete supervised engineering projects.
Communicate technical findings and apply advanced engineering knowledge to professional practice or further academic study.

The specific skills developed depend on the student's chosen specialization and degree option.

Professional Alignment and Accreditation

The MS in Aerospace Engineering prepares students for advanced technical work in aerospace engineering and related industries. Its thesis and directed-project options provide opportunities to investigate engineering challenges, while the coursework option combines graduate-level study with an applied learning activity.

The program information reviewed does not establish a specific ABET accreditation status for this master's degree. Students who require program-level accreditation for professional or academic purposes should confirm the current status with Wichita State University.

Reputation and Employability

Wichita State University has a long history in aerospace engineering and maintains close connections with Wichita's aviation industry. The university highlights its National Institute for Aviation Research (NIAR), specialized engineering laboratories, and opportunities for students to gain applied experience through research and industry connections. Its aerospace program identifies employers and organizations such as Boeing, Textron Aviation, Spirit AeroSystems, NASA, and SpaceX as potential career destinations.

Graduates may pursue roles in aerodynamics, aerospace structures, flight control systems, aircraft design, computational analysis, engineering research, and product development. The degree can also provide preparation for doctoral study. Career opportunities depend on individual qualifications, experience, specialization, and industry demand.

Experiential Learning (Research, Projects, Internships etc.)

At Wichita 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 aerospace 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, internships, and research opportunities, ensuring that graduates are well-equipped to excel in their careers.

Here are some key aspects of experiential learning in the Aerospace Engineering program at Wichita State University:

- Advanced Laboratories: Students can work in specialized labs such as the Aerospace Engineering Lab, which features equipment for testing and prototyping aerospace systems.
- Research Opportunities: Engage in innovative research projects through the National Institute for Aviation Research (NIAR), where students can collaborate with industry professionals on real-world problems.
- Software Proficiency: Gain experience with industry-standard software tools like CATIA, ANSYS, and MATLAB, which are essential for design and analysis in aerospace engineering.
- Group Projects: Participate in team-based projects that simulate real-world engineering challenges, fostering collaboration and problem-solving skills.
- Internships: Take advantage of internship opportunities with leading aerospace companies, providing valuable industry experience and networking connections.
- Field Trips: Experience the aerospace industry firsthand through organized field trips to local aerospace companies and facilities.
- Digital Tools: Utilize advanced digital tools and simulations to enhance design and analysis capabilities, preparing students for modern engineering practices.
- Access to Libraries: Benefit from extensive resources at the university libraries, including access to aerospace engineering journals, databases, and research materials.

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

Consider applying to the Master of Science in Aerospace Engineering at Wichita State University to take advantage of these incredible opportunities!

Progression & Future Opportunities

Pursuing a Master of Science in Aerospace Engineering at Wichita 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: Wichita State offers robust career services, including resume workshops, interview preparation, and networking events specifically tailored for engineering students. The Engineering Career Development Center connects students with industry leaders and potential employers.

- 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 experienced professionals earning significantly more.

- University–Industry Partnerships: Wichita State has established partnerships with leading aerospace companies such as Spirit AeroSystems and Textron Aviation. These collaborations provide students with internship opportunities, hands-on projects, and direct pathways to employment.

- 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: Graduates of the program have gone on to work for prestigious organizations like NASA, Boeing, and Lockheed Martin, contributing to groundbreaking projects and advancements in aerospace technology.

Further Academic Progression: After completing your Master’s degree, you may choose to pursue a Ph.D. in Aerospace Engineering or a related field, which can lead to advanced research positions or academic roles in universities. Additionally, you could explore certifications in specialized areas such as systems engineering or project management, further enhancing your expertise and career prospects.

Choosing Wichita State University for your Master of Science in Aerospace Engineering is not just about earning a degree; it’s about launching a successful career in a field that is at the forefront of innovation.