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        The field of aeronautical and astronautical engineering includes the challenging problems encountered in the design and operation of many types of aircraft, missiles, and space vehicles and puts a constant demand on research and development groups for an even better understanding of basic physical phenomena.
        The Aeronautical and Astronautical Engineering curriculum concentrates on the fundamental subject areas necessary to the research, development, design, and operation of the aerospace industry. The curriculum is designed to emphasize the disciplines of aerodynamics, propulsion, structures, dynamics, and control, and further provides design courses to integrate these disciplines into the design of flight vehicles that will perform the required mission. A strong background in mathematics and physics is required to pursue these disciplines, and extensive use of computers and programming skills is a necessity.

 

Course structure from UIUC:
A A E 199. Undergraduate Open Seminar 
A A E 201. Principles of Aerospace Systems 
A A E 204. Introduction to Aerospace Dynamic Systems 
A A E 206. Flight Mechanics 
A A E 210. Aerodynamics I, Compressible Flow 
A A E 211. Aerodynamics II, Incompressible Flow 
A A E 220. Aerospace Structures, I 
A A E 221. Aerospace Structures, II 
A A E 233. Aerospace Propulsion 
A A E 240. Aerospace Systems Design, I 
A A E 241. Aerospace Systems Design, II 
A A E 250. Aerospace Dynamic Systems, I 
A A E 251. Aerospace Dynamic Systems, II 
A A E 260. Aerospace Laboratory, I 
A A E 261. Aerospace Laboratory, II 
A A E 292. Seminar 
A A E 296. Honors Project 
A A E 297. Honors Seminar 
A A E 303. The Effect of Space Environment on Satellite Motion 
A A E 306. Orbital Mechanics 
A A E 310. Computational Aerodynamics 
A A E 311. Aerodynamics of Compressible Fluids 
A A E 313. Aerodynamics of Incompressible Fluids 
A A E 314. Aerodynamic Heat Transfer 
A A E 316. Applied Aerodynamics 
A A E 319. Aircraft Flight Mechanics 
A A E 320. Finite Element Methods in Aerospace Structures 
A A E 327. Deformation and Fracture of Polymeric Materials 
A A E 328. Composite Materials 
A A E 333. Electric Propulsion 
A A E 334. Rocket Propulsion and Rocketry 
A A E 351. Aeroelasticity and Aeroinelasticity 
A A E 381. Wind Power Technology 
A A E 391. Special Problems 
A A E 404. Optimization of Aerospace Systems 
A A E 406. Advanced Orbital Mechanics 
A A E 408. Optimal Spacecraft Trajectories 
A A E 411. Transonic Aerodynamics 
A A E 414. Boundary Layer Theory 
A A E 415. Wing Theory 
A A E 417. Fundamentals of Gas Kinetics 
A A E 418. Theory of Rarefied Gas Flows 
A A E 425. Advanced Composite Material Structures 
A A E 428. Theory of Large Deformations in Nonlinear Continuous Media 
A A E 429. Theory of Linear and Nonlinear Viscoelasticity 
A A E 438. Fundamentals of Combustion 
A A E 452. Stochastic Structural Dynamics 
A A E 454. Dynamical Systems and Bifurcation Theory 
A A E 490. Seminar 
A A E 493. Special Problems 
A A E 499. Thesis Research 

        More than likely your initial employment following graduation will be in the aerospace industry. Students can join a large aerospace company, a general aviation manufacturer, an airline, or a government aerospace laboratory or research center. In a large aerospace company, the initial assignment will probably be with a large design team. The assignment will probably be a technical one dealing with a problem related to an aiplane, missile, or spacecraft being designed. As experience is gained, more complex problems and responsibilities will be assigned. Depending on interests and competence, graduates can progress through the technical part of the company or through management. Students will also gain the same type of experience if they join a general aviation company. However, the design team will not be as large and assignments will cover broader problems associated with the design of aircraft.
        Students who choose to join an airline company as an engineer may work on technical problems associated with the operation and maintenance of a fleet of aircraft. In addition, graduates can participate in evaluating the needs of the airline for new airplanes as well as the different types of airplanes available that could meet these requirements.
        Students who choose to join a government aerospace laboratory or research center may be assigned to a laboratory and be involved in basic research in a technical area. As graduates progress, they can become more involved in research or progress through the government and monitor technical programs that have been funded to the private sector of the aerospace industry.

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Dennis Yap Tsong Hsih


Copyright © 1998 Dennis Yap Tsong Hsih

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