The evolution of our technology into the 21st century has reinforced the importance of the broad technical and professional training of both the mechanical and the aerospace engineer. Each may make his or her professional contribution in many diverse industries, ranging from the automobile and aerospace industries to the manufacture of computers, biomedical devices, and the automation and control of systems. Regardless of the particular product involved, mechanical and aerospace engineers rely upon knowledge of matter and energy conversions, motions, and forces obtained from computer simulations and experimental investigations of processes and systems. Each type of engineer is able to design mechanisms, machines, and structures to serve a specific purpose, such as the manufacture of high-tech materials, including ceramics, composites and biomaterials, and high tech equipment, including spacecraft, robots, and human implants. They also are trained to determine, both experimentally and theoretically, the heat, energy, and mechanical stress that occurs within engineering devices. Examples include internal combustion engines, electronic equipment, robots, solar energy systems, artificial organs, rocket engines, steam and gas turbines, and nuclear reactors. The curriculum in mechanical and aerospace engineering provides these skills and prepares students for graduate study and research.
The undergraduate program in mechanical and aerospace engineering trains students in a technically sound, challenging, and professional manner, laying the foundation for a productive career and enabling graduates to make positive contributions to their profession and society. This is achieved with a thorough preparation in the humanities, mathematics, and basic sciences as well as up-to-date mechanical and aerospace engineering fundamentals and applications using the most advanced tools and methods available. In the senior year, the capstone design and manufacturing course allows students to solve open-ended, multicriteria engineering problems. Emphasis is placed on team work, project management, conceptualization, detailed design, computational analysis, and manufacturing. At the end of the yearlong course, students will have experienced a full product development cycle from concept to construction and testing.
