ISU’s aerospace engineering graduate program offers research opportunities that go beyond traditional aircraft and spacecraft. Turbulence research, icing physics, aviation electronics, tornado simulation, and UAS formation flight control are only a few of the fields you can explore. You’ll collaborate with our faculty on challenging problems that are important to economic, societal, and defense needs, such as renewable energy, complex system design, and nondestructive evaluation. Working in our exceptional facilities-like our tornado microburst simulators and revolutionary icing wind tunnel-will give you the chance to test and experiment. Explore new ideas while making advancements to research advancements that makes a difference. Our faculty and their students conduct cutting-edge research in nondestructive evaluation, computational fluid dynamics, wind engineering and experimental aerodynamics, guidance and control, rotorcraft/UAS/MAV, turbine science and technology, and micro/nano mechanics of materials.
Research spans experimental and theoretical turbulence, fluid dynamics and combustion. Key areas of interest include analytical models, theory, and simulations of complex flows; advanced flow diagnostics; bio-inspired aerodynamics; aircraft icing physics and anti-icing technology; aerodynamics of helicopters and wind turbines; wind tunnel simulations of unconventional winds (e.g. Microburst, tornado, etc.); aero-acoustics; microfluidics for heat and mass transport; and detonations, detonation initiation, and shock wave interactions with dense particle clouds. Read more
The Asteroid Deflection Center was created in 2008 with Vance Coffman Endowed Professor of Aerospace Engineering Bong Wie as its founding director. The internationally recognized center performs research in the groundbreaking arena of asteroid deflection.
The increasing complexity of engineered systems, particularly in the aerospace field, requires new methods, tools, and processes. In the complex systems and optimization group, research focuses on: the development of optimization methods for large-scale complex systems, such as are found in MDO applications; rapid CAD-centric vehicle design; networked systems guidance, navigation and control algorithms for cooperative robotics; development of cyberinfrastructure technologies to provide decision support for complex design; and value driven approaches for design under uncertainty. Read more
The goal of engineering education research is to continuously improve the engineering education experience (both inside and outside the classroom) for aerospace engineering students so that they will be prepared and successful in their engineering careers. Applying both quantitative and qualitative research methods, the engineering education research group conducts research including, but not limited to, student-centered pedagogy and technology usage in engineering classrooms, engineering workforce development, engineering students’ professional skill development and assessment, and mentors’ roles in making engineering accessible to diverse groups of students. Read more.
Research areas in dynamics, stability, guidance, control, navigation, optimization, electronics, avionics, and information processing related to aeronautical, astronautical, and marine systems. Which demonstrate the application of recent research to practical engineering problems. Describing the aspects of the dynamics and control of significant recent developments, such as a new or different aircraft or spacecraft, also are desired. Read more
Nondestructive testing and evaluation utilizes a number of techniques to determine the health of an engineering component or structure without affecting its usefulness. Engineers use these and other techniques to decide if material properties are within an acceptable range, if a component was well manufactured, or if damage has occurred in service that would warrant retirement. Read more