The research mission of the Sibley School of Mechanical & Aerospace Engineering is produce disseminate knowledge in mechanical sciences and engineering for the benefit of our students, professions and the common good. The research by the faculty in the School is creative, diverse, collaborative, interdisciplinary and impactful.
The Sibley School has six strategic research directions:
Biomedical Technology: Technology research translated to biomedical applications, such as early cancer detection, immunology treatments, and global and mobile health.
Energy and Environment: Modeling and simulation of fuels (combustion), turbulence, and air pollution and emissions; wind energy, thermal energy, geoengineering, and energy/sustainable systems engineering. Strong ties to Cornell’s Energy Systems Institute and Atkinson Center for a Sustainable Future.
Materials Design: Modeling, simulation, experimental characterization and synthesis to advance the state-of-the-art in materials design and discovery for engineering applications. Research ranges across length scales from nano to macroscopic and material classes that include metals, semiconductors, and polymers as well as biomaterials and biological tissues. Strong ties to Cornell High Energy Synchrotron Source (CHESS), the Cornell Center for Materials Research (CCMR) and Cornell NanoScale Science & Technology Facility (CNF).
Space Technology: Technology to enable space missions, from Earth observing, to deep space, to exoplanet exploration; directions include novel spacecraft designs, mission design and operations, autonomy, and propulsion.
Our research is built on the foundations of the Disciplines of Mechanical & Aerospace Engineering: Fluids and Thermal Sciences, Solid Mechanics and Materials, Dynamics and Control, and Design and Manufacturing. Much of our basic research is applicable to many applications, not just the five above.
The Sibley School also has research themes that cut across multiple strategic directions: Micro and Nano-scale Science, including micro/nano device fabrication via Cornell Nanoscale Science and Technology Facility (CNF) and crystalline scale modeling and measurements via x-rays at CHESS. Systems Engineering, including developing and validating tools for products and systems, such as systems architecture and optimization of large scale systems, human centered design, and sustainable design. Applied Mathematics, including strong ties to the Center of Applied Mathmatics.
- With some of the most expert faculty in mechanical and aerospace engineering and theoretical and applied mechanics
- Across disciplines in Cornell’s uniquely interdisciplinary infrastructure
- With researchers from across nations who work in academia, industry, and government
- With some of the world’s most elite students
- Pioneering advancements in aerodynamics, fluid dynamics, aerospace systems, and control
- Groundbreaking developments in biomedical mechanics, engineering materials, fluid dynamics, and nanotechnology
- Nationally recognized research initiatives such as the Cornell University Satellite Project
- Top-notch research facilities including the Nanobiotechnology Center and the Cornell Center for Materials Research
- Finding real-world solutions to today’s most urgent problems
- With a multidisciplinary approach to mechanical and aerospace engineering
- As an innovative thinker and academic leader
- With the Cornell name, network, and reputation