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Look at 2002 - 2004 or 2004 - 2006 UA Course Catalog!
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EngineeringSpring 2005January 5 - May 6
AEM 250, Mechanics of Materials lThree hours. Concepts of stress and strain; analysis of stresses and deformation in bodies loaded by axial, torsional, and bending loads; combined loads analysis; statically indeterminate members; thermal stresses; columns; and thin-walled pressure vessels. Prerequisite: AEM 201 Corequisites: MATH 227 Faculty: Staff
AEM 264, DynamicsThree hours. Kinematics of particles and rigid bodies, Newton 's laws of motion, and principles of work-energy and impulse-momentum for particles and rigid bodies. Prerequisite: AEM 201 Corequisite: MATH 227 Faculty: J. Parker AEM 311, Fluid MechanicsThree hours. Fluid statics, application of conservation laws to simple systems, dimensional analysis and similitude, and flow in open and closed conduits. Corequisites: MATH 238, and AEM 202 or AEM 264. Faculty: M. Sharif AEM 528, Space PropulsionThree hours. Descriptions and analyses of space and launch vehicle propulsion. Topics covered include advanced schemes such as nuclear, solar, and laser propulsion; power cycles; and tether systems. Prerequisite: AEM 408/ME 308 Instructor expects students to have a solid understanding of Compressible Flow, Thermodynamics and Heat Transfer, and basic understanding of air-breathing engines, in order to get the most benefit from the class. Faculty: S. Olcmen Textbooks: 1) Mechanics and Thermodynamics of Propulsion , by Hill and Peterson, and 2) Space Propulsion Analysis and Design , by Humble, Henry and Larson. Students are expected to buy both books, but if QUEST students would like to buy only one book, they should prefer Humble's book.
AEM 621, Boundary Layer Theory lThree hours. Same as ME 621. Development of basic boundary layer equations and concepts. Classical incompressible solutions for laminar boundary layer, approximate solutions, and concepts of turbulence. Faculty: M. Sharif
AEM 635, Finite Element MethodsThree hours. Finite-element formulations in the areas of solid mechanics, fluid mechanics, and heat conduction; isoparametric elements; assembly process; solution of stiffness equations; and convergence of results. Prerequisites: MATH 238 and AEM 250, or permission of the instructor. Faculty: J. Jackson
AEM 668, Advanced Dynamics of FlightThree hours. Analysis of the rigid body dynamic motions of an aircraft; response of an airplane to actuation of controls; introduction to automatic control and stability; introduction to vehicle simulation by digital computer. Faculty: I. Tuzcu
ECE 407, Communications lThree hours. Introduction to baseband and passband digital communication systems. Students develop the skills necessary to analyze system performance in the presence of noise and learn to determine methods for improving system performance. Prerequisite: ECE 370 Corequiste: MATH 355 Faculty: H. Stern
ECE 493/593, Electromagnetic CompabilityThree hours. This course introduces general EMC design principles with emphasis on, and application to high-speed digital design on multi-layer printed circuit boards. An EMI problem is comprised of a noise source, an EMI antenna, and a parasitic coupling path from the noise source to the antenna. The parasitic coupling path results from layout and design features. Avoiding potential EMI traps at the layout stage requires an understanding of basic EMC design principles. Fundamental EMC principles are presented, and EMC design for high-speed PCB applications is discussed through numerous examples. Prerequisites: Undergraduate EE or physics courses in (a) circuit theory, and (b) electromagnetics. Faculty: Perry Wheless Textbook: Noise Reduction Techniques in Electronic Systems , 2 nd Edition, by Henry W. Ott.
GES 400/500, Engineering StatisticsThree hours. Not open to students with credit for GES 255. Not available for M.S.l.E. degree credit. Probability and basic statistical concepts. Discrete and continuous distributions; the central limit theorem; sampling distributions; point and interval estimation; hypothesis testing; regression and correlation analysis; analysis of variance. Prerequisite: MATH 126 Faculty: T. Merritt
GES 554, Partial Differential EquationsThree hours. (Aerospace engineering/mechanics.) This course examines the solution of partial differential equations by focusing on three specific equations: (1) the heat equation, (2) the wave equation, and (3) LaPlace 's equation. Topics covered include: Fouriere transforms, Sturm-Louisville problems, classification of partial differential equations, Bessel functions, and numerical methods for solving partial differential equations. Faculty: S. Jones
GES 658, Applied Numerical MethodsThree hours. (Aerospace engineering/mechanics.) Condensed coverage of numerical methods essential in engineering: interpolation, integration, root calculation, matrix algebra, eigenvalue problems, matrix differential equations, two-point boundary value problems, least square approximation, Fast Fourier Transforms, and optimization methods. Emphasis is on applications with extensive FORTRAN programming. Prerequisites: GES 451 and MATH 238 Faculty: R. Scharstein
IE 526, Design & Analysis of ExperimentsThree hours. Design of experiments and application of analysis of variance, regression analysis, and related statistical methods. Prerequisite: GES 257, GES 400, or GES 500. Not open to students who have earned credit for IE 426. Faculty: Matthew Elam
IE 554, Safety EngineeringThree hours. An introduction to safety engineering and accident prevention, including related state and federal laws. Topics include impact of accidents on industry, state and federal regulatory laws, hazard identification, analysis, control techniques, accident investigation, and environmental and human factors. Prerequisite: GES 255 or equivalent. Not open to students who have earned credit for IE 454, IE 502, or equivalent.
ME 349, Engineering AnalysisThree hours. Elements of statistics, matrix algebra, numerical analysis, and partial differential equations applied to engineering problems; includes extensive computer applications. Prerequisites: AEM 250, AEM 251, and DR 133 or DR 125 Faculty: K. Woodbury
ME 350, Static Machine ComponentsThree hours. The analysis of stresses of machine elements and the topics of fatigue strength, wear, and failure criteria. Also includes the design of fasteners covering both bolted and welded joints. Prerequisites: ME 309 and AEM 311 Faculty: Y. Chou
ME 415, Energy Systems DesignTwo hours. Techniques of analysis and design of energy systems, including piping networks, heat exchangers, and prime movers. Emphasis is on modeling and computational solutions. Prerequisites: ME 309 and AEM 311 Faculty: B. Taylor
ME 490, Mechanical Engineering Design IIThree hours. In this semester-long internship experience, three-student teams serve as consultants to an industrial client. Emphasis is on conducting a professional design study and preparing written and oral presentations of the project. Prerequisite: ME 489 Faculty: B. Todd
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Spring 2005
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