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Professors M.K. Myers (Chair), R.E. Kaufman, C.A. Garris, J.D.-Y. Lee, T. Tong, P.A. Cooper (Research), Y.-L. Shen, A.D. Cutler, R. Mittal, S.M. Hsu (Research) Associate Professor R.R. Vallance
Assistant Professors D.F. Chichka, M. Keidar
Adjunct Professors B.W. Hannah, P. Matic, B. Whang
Adjunct Associate Professor C. Mavriplis
Professorial Lecturers J.A. Sprague, C.R. Hauer, S.M. Joshi, G.C. Everstine, A.R. Johnson, E.L. Marsh, R.C. Blanchard, S.S. Dodbele, A. Rao, M.K. King, E. McCafferty
Associate Professorial Lecturers A. Auslander, J.K. Soldner, J.H. Milgram
Assistant Professorial Lecturers M.A. Busby, G. Bae
See the School of Engineering and Applied Science for the programs of study leading to the Bachelor of Science with a major in mechanical engineering.
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| 1–2 |
Introduction to Mechanical and Aerospace Engineering (1–1) |
Staff |
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Careers in mechanical and aerospace engineering and the necessary academic program. Teamworking and problem-solving skills for solution of design problems. Analytical and design problems and correlations between academic skills and the mechanical and aerospace engineering professions. Basic aspects of engineering ethics. (Academic year) |
| 4 |
Engineering Drawing and Computer Graphics (3) |
Shen |
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Introduction to technical drawing, including use of instruments, lettering, geometric construction, sketching, orthographic projection, section and auxiliary views, dimensioning, pictorial drawing, and intersections and developments. Introduction to computer graphics, including topics covered in manual drawing, and computer-aided drafting. (Fall and spring) |
| 117 |
Engineering Computations (3) |
Staff |
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Numerical methods for engineering applications. Methods for solving systems of linear equations, root finding, curve fitting, and data approximation. Numerical differentiation and integration and numerical solution of differential equations. Computer applications. Prerequisite: CSci 49, 50. (Spring) |
| 120 |
Methods of Engineering Experimentation (2) |
Staff |
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Acquisition and analysis of experimental data. Laws of modeling and simulation. Report formulation and presentation. Basic principles of measuring instruments and sensors. Fundamentals of digital data acquisition and use of computer-based data systems. Strain gages, oscilloscopes, transducers, and computerized data systems. Prerequisite: MAE 117. (Spring) |
| 126 |
Fluid Mechanics (3) |
Garris, Shames |
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Fluid properties, fluid statics, integral and differential formulations of conservation of mass, momentum, and energy. Bernoulli's equation. Dimensional analysis and similitude. Inviscid flow. Viscous flow. Experimental and computational methods in fluid mechanics. Prerequisite: ApSc 58. (Fall) |
| 128 |
Biomechanics I (3) |
Staff |
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Mechanical analysis of biological systems. Characterization of living tissue. Applications of statics, solid mechanics, kinematics, and elementary dynamics to the human musculoskeletal system. May be taken for graduate credit with approval of department. Prerequisite: ApSc 57, CE 120. (Spring) |
| 129 |
Biomechanics II (3) |
Staff |
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Mechanical analysis of physiological fluid dynamics. Application of fluid flow analysis techniques to cardiovascular, pulmonary, respiratory, and phonatory flows. Introduction to biomedical devices that manipulate physiological flows. May be taken for graduate credit with approval of department. Prerequisite: MAE 128. (Spring) |
| 131 |
Thermodynamics (3) |
Staff |
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Fundamentals of equilibrium thermodynamics; Zeroth, First, and Second Laws. Work, heat, internal energy, enthalpy, thermodynamic potential functions; heat transfer mechanisms, phase diagrams, equations of state and property tables, power systems, refrigeration, heat pump systems. Reversible and irreversible processes, Carnot cycle, entropy, exergy. Prerequisite: Phys 21. (Spring) |
| 134 |
Introduction to Vibration Analysis (3) |
Garris, Lee |
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Natural frequencies, free vibration, forced vibration. Unbalance, whirling, vibration isolation. Measuring techniques and application of computers in vibration analysis. Multiple degrees of freedom. Dynamic vibration absorbers. Shock and transient vibration. Prerequisite: ApSc 58. (Spring) |
| 145 |
Orbital Mechanics and Spacecraft Dynamics (3) |
Chichka |
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Coordinate systems and transformations, rocket equation, two-body problem, orbit transfers, orbit perturbations, attitude dynamics and stability of symmetric spacecraft, environmental and control torques. (Fall) |
| 149 |
Thermal Systems Design (3) |
Staff |
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Completion of a thermal systems design project that requires integration of engineering science, economics, reliability, safety, ethics, professional responsibility, and social considerations. Development and use of design methodology, optimization, feasibility considerations, detailed system descriptions, and presentation of results. Prerequisite: MAE 187. (Fall) |
| 152 |
Mechanical Engineering Laboratory (2) |
Garris and Staff |
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Project-oriented course. Simulates working environment of professional engineers. Projects are assigned in student's areas of interest; student is expected to design and assemble own experiments. Extensive use of instrumentation and computing facilities. Project proposal, progress reports, final report, and periodic oral presentations required. Prerequisite: MAE 120. (Spring) |
| 155 |
Aerodynamics (3) |
Myers, Garris |
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Subsonic and supersonic aerodynamics: potential flow, lift and form drag, viscous effects, compressible flow. Prerequisite: MAE 126. (Spring) |
| 157 |
Aerodynamics Laboratory (1) |
Staff |
| |
Subsonic and supersonic wind tunnel experiments and simulations. (Fall) |
| 162 |
Aerospace Structures (3) |
Staff |
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Basic structural theory of lightweight aerospace structures. Development of shear and bending moment diagrams and stresses. Analysis of typical monocoque structures. External airloads and their distribution. Mechanical properties of metal and advanced composite structures. Design of members in tension, bending or torsion, and design of webs in shear. (Spring) |
| 163 |
Airplane Performance (3) |
Staff |
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Lift and drag estimation methods. Airplane performance measures, such as range and endurance, turning flight, specific excess power and acceleration, takeoff and landing performance. Longitudinal and lateral-direction static and dynamic stability. Control surface effectiveness. (Fall) |
| 166 |
Materials Engineering (2) |
Vallance |
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Mechanical properties, plastic deformation dislocation theory, yielding, strengthening mechanisms, microstructure and properties, heat treatment of steel, composites, amorphous materials, viscoelastic deformation, creep, fracture, fatigue, fatigue crack propagation. Prerequisite or concurrent registration: ApSc 130. Same as CE 166. (Fall) |
| 167 |
Mechanics of Materials Laboratory (1) |
Vallance |
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Measurement of strains and study of failure resulting from applied forces in ductile, brittle, anisotropic, elastomeric, plastic, and composite materials. Study of tension, compression, bending, impact, and shear failures. Prerequisite or concurrent registration: MAE 166. Same as CE 167. (Fall) |
| 170 |
History and Impact of the U.S. Patent System (3) |
Garris |
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Economic systems and emergence of the free market; role of the patent system in the industrial development of the United States; constitutional foundations; evolution of the U.S. patent system; landmark litigation; impact on future innovation; international aspects; the likely future of the patent system. (Spring) |
| 171 |
Patent Law for Engineers (3) |
Staff |
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Types of patents; international patents; inventorship; prosecution process; basic references for patents; detailed structure of a patent; patentability requirements; reexamination and reissue; litigation; infringement and invalidity; copyrights, trademarks, and trade dress. May be taken for graduate credit with approval of department. (Fall) |
| 172 |
Engineering Design and the Patent System (3) |
Staff |
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Design experience in group projects involving following precisely the teachings of a licensed patent; or avoiding infringement of a provided patent while offering a competitive alternative; or evaluating a provided patent in light of prior art or by attempting to design a competitive product. May be taken for graduate credit with approval of department. Prerequisite: MAE 171 and senior status. (Fall) |
| 182 |
Electromechanical Control System Design (3) |
Lee |
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Application of control theory to the design of electromechanical systems. Transducers, valves, and other control components. Mathematical models of open- and closed-loop electromechanical systems. Root locus and frequency response methods; application to the synthesis of feedback systems by both manual and computer-aided techniques. Prerequisite: MAE 117, 134. (Fall) |
| 187 |
Heat Transfer (3) |
Staff |
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Steady- and unsteady-state heat conduction problems. Analytical and numerical solution methods. Convective heat transfer, boundary-layer approach, analogy between heat and momentum transfer. Thermal radiation; fundamental concepts and laws. Heat-exchanger design. Prerequisite: MAE 126, 131. (Spring) |
| 190 |
Analysis and Synthesis of Mechanisms (3) |
Kaufman and Staff |
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Kinematics and dynamics of mechanisms. Displacements, velocities, and accelerations in linkage, cam, and gear systems by analytical, graphical, and computer methods. Synthesis of linkages to meet prescribed performance requirements. Prerequisite: ApSc 58. (Fall) |
| 191 |
Mechanical Design (3) |
Kaufman and Staff |
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Integration of knowledge of strength of materials in a design context. Stresses and deflections in engineering structures. Theories of failure. Introduction to the design of mechanical components, such as fasteners, shafts, springs. Introduction to the use of computers in mechanical engineering design. Prerequisite: CE 120, MAE 117. (Spring) |
| 192 |
Manufacturing Processes and Systems (3) |
Shen and Staff |
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Introduction to manufacturing techniques for metals, polymers, ceramics, and composites. Relationships between properties of materials and techniques for processing them. Process selection, design, control, and integration. Computer-integrated manufacturing, robotics and assembly automation. Prerequisite: junior status or permission of instructor. (Fall) |
| 193 |
Engineering Systems Design (3) |
Kaufman and Staff |
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Creative engineering design, problem definition, and concept generation. Design of journal and roller element bearings, fasteners and permanent joints, and springs. Design project incorporating design selection, and optimization. Project presentation using graphical and computer resources. Prerequisite: MAE 191. (Fall) |
| 195 |
Computer-Aided Engineering of Mechanical Systems (3) |
Staff |
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Presentation of the major elements of computer-aided engineering systems: interactive computer graphics, finite element analysis, and design optimization. Consideration of economics, safety, and reliability factors. Prerequisite: MAE 193; concurrent registration: MAE 196. (Spring) |
| 196 |
Computer-Aided Engineering Laboratory (1) |
Staff |
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Instruction and hands-on applications of computer-aided engineering systems to the design, analysis, and optimization of mechanical engineering components and systems. Concurrent registration: MAE 195. (Spring) |
| 197 |
Robotic Systems Design and Applications (3) |
Staff |
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Modeling and analysis of robot designs. Kinematics, statics, and dynamics of linkages. Design and selection of mechanical structures, actuators, transmissions, and sensors. Design of robotic control systems. Relevant computer hardware and software. Industrial applications and limitations of robot systems. Lab experiments. Same as ECE 192. Prerequisite: MAE 182. (Spring) |
| 198 |
Research (1 to 3) |
Staff |
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Applied research and experimentation projects, as arranged. Prerequisite: junior or senior status. (Fall and spring) |
| 199 |
Student Design Project (1 to 3) |
Staff |
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Special student projects involving extensive design of various mechanical engineering systems. Examples include the solar car, mini-Baja, or other design competitions that typically are national in scope. May be taken for graduate credit by graduate students. (As arranged) |
