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2008-2009 Catalog - United States Air Force Academy

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Suggested Course Sequence<br />

3rd-Class Year 2nd-Class Year 1st-Class Year<br />

Chem 200 Aero Engr 315 <strong>Academy</strong>/Mech Engr Opt 2<br />

Econ 201 Beh Sci 310 Astro Engr 410<br />

El Engr 231 Biology 315 English 411<br />

English 211 Engr Mech 305 Engr Mech 460<br />

Engr Mech 220 Engr Mech 320 Mech Engr 325<br />

Engr Mech 330 Engr Mech 350 Mech Engr 441<br />

Law 220 History 302 Mech Engr 491<br />

Math 243 Math 346 Mech Engr 492<br />

Math 245 Math 356 Mech Engr Analysis Opt<br />

MSS 200 Mech Engr 341 Mech Engr Opt 1<br />

Physics 215 Mech Engr 370 MSS 400<br />

Pol Sci 211 Philos 310 Soc Sci 412<br />

Sys Opt Mech Engr 312<br />

Mechanical Engineering (Mech Engr)<br />

Offered by the Department of Mechanical Engineering.<br />

Mech Engr 312. Thermal Fluids Systems Engineering I. First and second laws of thermodynamics applied to closed<br />

systems; basic modes of heat and work processes, with concentration on conduction. Mass and momentum conservation,<br />

entropy balance. Cycle concepts as applied to Carnot cycle. Properties of thermodynamic substances, including phase<br />

diagrams, ideal gases, and pure substances. Fundamental aspects of fluid statics. Bernoulli and mechanical energy equations.<br />

Laboratory methods and applications. Emphasis on developing problem solving methods applied to thermal-fluids systems,<br />

and on communication skills.<br />

Mech Engr 325. Engineering System Dynamics. Modeling, analysis, and design of multi-domain engineering systems<br />

including mechanical, electrical, hydraulic, instrumentation, and control elements. Models are developed based on tracking<br />

power interactions between system components. Mathematical models are developed in state space form and are investigated<br />

both analytically and numerically. System response to initial conditions and forcing functions is examined. Tools are introduced<br />

to predict system stability, behavior and response to parameter variation. Non-linear models and elementary control systems<br />

are introduced.<br />

Mech Engr 341. Thermal Fluids Systems Engineering II. Continuation of Mech Engr 312. First and second laws of<br />

thermodynamics applied to open systems. Basic engineering plant component analysis, to include isentropic efficiencies.<br />

Navier-Stokes equations and applications. Fluid flow and heat transfer boundary layer applications. Convection heat<br />

transfer, with a concentration on heat exchangers. Dimensional analysis, modeling, and similitude. Laboratory methods and<br />

applications. Emphasis on developing problem solving methods applied to thermal-fluids systems, and on communications<br />

skills.<br />

Mech Engr 370. Introduction to Machine Design. Introduction to static failure theories and fatigue. Analysis and design of<br />

machine components including shafts, hydrodynamic and rolling element bearings, spur gears, clutches, brakes, and springs.<br />

Design of joints using screws, bolts, and welds. Emphasis on stress analysis and design trade-offs.<br />

Mech Engr 396. Mechatronics. Integration of mechanical and electrical design, applying the design process to develop<br />

an integrated electromechanical system autonomously controlled by a microprocessor. Electrical system development topics<br />

include digital logic, actuator control, sensor integration, and signal conditioning. Group design projects throughout the<br />

semester leading to the integrated final project. Open only to Mechanical Engineering majors with departmental permission.<br />

Mech Engr 441. Thermal Fluids Systems Engineering III. Radiation heat transfer. Numerical methods applied to selected<br />

problems in heat transfer and fluid mechanics. Introduction to basic power cycles (Rankine, Otto, Diesel, Brayton, etc.).<br />

Psychometric processes. 1-D compressible flow with application to turbomachinery and varying area channels, to include<br />

normal shocks. Analysis of turbomachinery. Laboratory methods and applications. Emphasis on developing problem solving<br />

methods applied to thermal fluids systems, and on communications skills.<br />

Mech Engr 467. Energy Conversion. Applications of the first and second laws of thermodynamics to the major energy<br />

converters including steam plants, internal combustion engines, and turbojet engines. Additional topics may include<br />

combustion analysis, energy storage, refrigeration, and alternate energy sources.<br />

126 <strong>United</strong> <strong>States</strong> <strong>Air</strong> <strong>Force</strong> <strong>Academy</strong> <strong>Catalog</strong>

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