Mechanical Engineering 

|
Mechanical Engineering (Me En)
Undergraduate Courses
172. Engineering Graphics—Principles and Applications. (3:3:0)
F, W, Sp Prerequisite: engineering and technology major status.
Comprehensive applications of CAD-based national (ANSI) and
international (ISO) graphics standards, including coordinate and
geometric dimensioning and tolerancing practices, manufacturing,
and product verification procedures.
191. New Student Seminar. (.5:1:0) F, W
Topics of special interest to new mechanical engineering majors.
Required of all first-semester freshman and transfer students.
199R. Academic Internship. (1–3:Arr.:Arr. ea.) F, W, Sp or Su
Prerequisite: consent of both department chair and cooperative
education coordinator.
Work experience evaluated by supervisor and posted on
student's transcript.
250. Science of Engineering Materials. (3:3:0) F, W, Sp or Su
Prerequisite: Chem 105.
Principles and properties of solid materials and their behavior as
applied to engineering.
282. Manufacturing Processes. (3:2:3) F, W, Sp or Su Prerequisite:
CE En 203, Me En 250.
Common manufacturing processes, including technological
limitations and economic considerations. Influence of product
design on process selection and manufacturing efficiency.
312. Fluid Mechanics. (3:3:1) F, W, Sp or Su Prerequisite: Me En
321, 363; 373 or concurrent enrollment.
Physics and modeling of fluid flow; fluid statics, dimensional
analysis, momentum, internal and external viscous flow,
compressible flow, and fluid machinery.
321. Thermodynamics. (3:3:0) F, W, Sp or Su Prerequisite: Phscs
123; Math 303 or 334.
Fundamentals of thermal energy and work; principle of state,
conservation of mass, conservation of energy, increase of entropy
principle; application to thermal and mechanical processes.
335. Dynamic System Modeling and Analysis. (3:3:1) F, W, Sp or
Su Prerequisite: Math 303 or 334; Me En 363, 373, CE En 204.
Formulating mathematical models for mechanical, electrical,
fluid, and combined systems; numerical solution of motion
equations; first- and second-order systems, frequency response,
and transfer functions.
340. Heat Transfer. (3:3:1) F, W, Sp or Su Prerequisite: Me En 312.
Fundamentals of heat transfer; basics of conduction, convection,
and radiation; mass transfer by analogy; heat exchangers;
computer applications to practical design and analysis problems.
363. Elementary Instrumentation. (3:2:3) F, W, Sp or Su
Prerequisite: Math 303 or 334; EC En 301; Engl 316 or concurrent
enrollment.
Fundamentals of mechanical measuring systems; sensors, signal
conditioning, statistical error analysis, dynamic response,
standards.
372. Mechanical System Design Fundamentals. (3:2:3) F, W, Sp or
Su Prerequisite: CE En 203, Me En 172, 250, 282; Me En 373 or
concurrent enrollment.
Static and dynamic stress and failure analysis for mechanical
systems.
373. Introduction to Scientific Computing and Computer-Aided
Engineering. (3:2:3) F, W, Sp or Su Prerequisite: Math 113;
concurrent enrollment in Math 214 or 302.
Computer programming for engineers taught in context of
solving physical systems using numerical methods. Student will
program solutions using the C++ language, spreadsheets,
symbolic solvers, etc.
412. Applications of Fluid Dynamics. (3:3:0) F Prerequisite:
Me En 312.
One-dimensional compressible flow, shocks, expansions,
nozzles; turbomachinery design and performance; pumps,
compressors, fans, and turbines; introduction to CFD with
applications.
415. Applied Aerodynamics and Flight Mechanics. (3:3:0) Sp or
Su Prerequisite: Me En 312.
Modern applied aerodynamics, including performance, stability,
and control of aerospace vehicles.
422. Applied Thermodynamics. (3:3:1) W, Sp or Su Prerequisite:
Me En 321, 363, 373.
Applied engineering thermodynamics including air and steam
power cycles, thermodynamic relations, and introduction to
combustion and equilibrium chemical reactions.
425. Internal Combustion Engines. (3:2:3) F Prerequisite: Me En
321 or equivalent.
Fundamental operating characteristics of internal combustion
engines, spark and compression ignition. Thermodynamic cycle
analysis, performance and emissions characterization, and
dynamometer testing on CFR and production engines.
426. Gas Turbine and Jet Engine Design. (3:3:0) W Prerequisite:
Me En 312, 321, or equivalents.
Design and synthesis of land-based and aircraft gas turbines
utilizing fluid flow and thermodynamic fundamentals. Extensive
discussion of turbojet, turbofan, and turboprop engines.
431. (Me En-EC En 483) Design of Control Systems. (3:3:0) F
Prerequisite: Me En 335 or EC En 380.
Classical frequency response and time domain design of control
systems. State variable control and computer simulation of control
systems.
437. Kinematics. (3:3:0) W, Sp or Su Prerequisite: CE En 204; Math
303 or 334; Me En 373.
Relative motion of links in mechanisms; velocities and
accelerations of machine parts; rolling contact; cams; synthesis of
mechanisms. Includes computer-aided engineering techniques.
452. Intermediate Materials. (3:3:0) Prerequisite: Me En 250, 372;
or equivalent.
Mechanical behavior of engineering materials including metals,
plastics, ceramics, and composites.
456. Composite Material Design. (3:3:0) Prerequisite: Me En 250.
Macro- and micro-mechanical analysis and design of uni- and
multidirectional composite materials.
471. Computer-Aided Engineering Applications. (3:3:0) F
Prerequisite: Me En 172, 373, CE En 203, 204.
Application of computer-aided engineering tools to design; 3-D
geometry and solid modeling; applying finite element analysis,
kinematic analysis, and other software to engineering analysis.
472. Mechanical Systems Design Applications. (3:3:0) W
Prerequisite: Me En 372.
Theory, analysis, and design of mechanical systems and
components.
475, 476. Integrated Product and Process Design 1, 2. (3:2:3 ea.) F,
W Prerequisite: Me En 321, 363, 372, 373; senior standing (fewer
than 30 hours remaining in the program) in mechanical engineering,
manufacturing engineering technology, industrial design, or
related disciplines with instructor's consent).
Comprehensive two-semester design experience from
conception to manufacturing planning and prototype. Product
development process. Economic and manufacturing
considerations. Intellectual property assignment agreement
required. Must be taken in consecutive fall and winter semesters.
477. Design for Manufacture and Assembly. (3:3:0) W
Prerequisite: Me En 282, 372; or equivalent.
Design practice for manufacturing considerations. Surface finish,
tolerances, GD&T, and inspection and gaging principles.
Application of computer-aided tolerancing and inspection.
482. Manufacturing Systems Analysis and Design. (3:3:0) F
Prerequisite: Me En 250, 282; or equivalents.
Analysis, synthesis, and control of processing and assembly
operations; mathematical modeling of manufacturing processes;
systems integration; applying conservation principles to
processing and assembly operations.
486. Automation. (3:3:0) F
Determining appropriate levels of manufacturing automation
based on economics and productivity. Elements of automation,
including sensors, robots, conveyors, and part feeders.
495R. Mentored Learning for Undergraduates in Mechanical
Engineering. (1–6:Arr.:Arr. ea.) F, W, Sp, Su
Independent learning with a faculty member.
499R. Honors Thesis. (1–6:0:0 ea.) F, W, Sp or Su
500-Level Graduate
Courses (available to advanced undergraduates)
500. (Me En-CE En) Design and Materials Applications. (3:3:0)
W Prerequisite: CE En 203; Me En 372 or CE En 321; or equivalent.
Applied and residual stress; materials selection; static, impact,
and fatigue strength; fatigue damage; surface treatments; elastic
deflection and stability—all as applied to mechanical design.
501. (Me En-CE En) Stress Analysis and Design of Mechanical
Structures. (3:3:0) Sp or Su Prerequisite: CE En 321 or Me En 372;
or equivalent.
Stress analysis and deflection of structures; general bending and
torsion, with computer applications to mechanical and aerospace
structure design.
503. (Me En-CE En) Plasticity and Fracture. (3:3:0) F Prerequisite:
CE En 203; Me En 250; Math 303; senior standing or instructor's
consent.
Tensor algebra; stress and deformation tensors; relationships
between dislocation slip, yielding, plastic constitutive behavior,
and microstructure development; cracks and linear elastic fracture
mechanics.
504. (Me En-CE En) Computer Structural Analyis and
Optimization. (3:3:0) F Prerequisite: linear algebra; CE En 321 or
Me En 372; or equivalents.
Matrix analysis of rods, shafts, beams, trusses, frames, and grids
using the generalized stiffness method. Optimization methods for
these structures. Organizing computer programs for structural
analysis and structural optimization.
506. (Me En-CE En) Continuum Mechanics and Finite Elements.
(3:3:0) W Prerequisite: linear algebra; CE En 321 or Me En 372; or
equivalents.
Equilibrium, constitutive, and compatibility equations; closed-form
solutions from elasticity; finite element theory,
programming, and usage; membrane, axisymmetric, and solid
elements. Application to heat transfer, fluid mechanics, and
seepage.
508. (Me En-CE En) Structural Dynamics. (3:3:0) F Prerequisite:
CE En 321 or Me En 372; or equivalents.
Dynamic analysis of single degree-of-freedom, discrete
multi-degree-of-freedom, and continuous systems.
510. Compressible Fluid Flow. (3:3:1) W odd yr. Prerequisite:
Me En 312.
One-dimensional analysis of compressible flow with area
change, friction, heat transfer, shock waves, and combined effects,
including experimental methods.
512. Intermediate Fluid Dynamics. (3:3:0) F Prerequisite: Me En
312 or instructor's consent.
Review of fluid properties, Navier-Stokes equations, exact and
similarity solutions, introduction to potential flows, stream
functions, lift and drag, boundary layers, vorticity, and turbulence.
521. Intermediate Thermodynamics. (3:3:0) F odd yr. Prerequisite:
Me En 422 or equivalent.
Review of first and second law analysis; energy; equations of
state and other thermodynamic relations; properties of mixtures
and multiphase systems; chemical reactions and equilibrium.
522. Combustion. (3:3:0) W Prerequisite: Chem 105, Me En 422, or
instructor's consent.
Introduction to first- and second-law ideal gas combustion
systems along with elementary models of homogeneous and
heterogeneous premixed and/or diffusion flames.
523. (Me En-CE En) Aircraft Structures. (3:3:0) W Prerequisite:
CE En 305, 321 or Me En 250, 372; or equivalents.
Requirements, objectives, loads, materials, and tools for design
of airframe structures; static behavior of thin-wall structures;
durability and damage tolerance; certification and testing.
Airframe component team design project.
534. Dynamics of Mechanical Systems. (3:3:0) W Prerequisite:
Me En 335 or equivalent.
Hamiltonian and Lagrangian dynamics, generalized
coordinates, linear and angular momentum, Euler angles, rigid-body
motions, and gyroscopic effects. Theory taught with
applications integrated.
535. Mechanical Vibrations. (3:3:0) F Prerequisite: Me En 335 or
equivalent.
Introduction to energy methods for system modeling,
eigenvalues and mode shapes, frequency response, and spectral
characterization of vibrations.
537. Advanced Mechanisms, Robotics. (3:3:0) W Prerequisite:
Me En 437 or equivalent.
Kinematics and dynamics of advanced mechanisms, such as
robots, with computer simulation of mechanism motion.
538. Compliant Mechanisms. (3:3:0) Prerequisite: Me En 372; 475
or concurrent enrollment; or instructor's consent.
Design and analysis of compliant mechanisms and compliant
structures. Large-deflection analysis/force displacement
relationships; mechanisms synthesis.
540. Intermediate Heat and Mass Transfer. (3:3:0) W Prerequisite:
Me En 340 or equivalent.
Analytical approaches to conduction, convection, and radiation
heat transfer. Introduction to mass transfer.
541. Numerical Heat Transfer. (3:3:0) F Prerequisite: Me En 340
or instructor's consent.
Heat transfer analysis by numerical methods. Finite difference
and finite element methods, stability, and error analysis.
550. (Me En-EC En) Microelectromechanical Systems (MEMS).
(3:3:0) F even yr. Prerequisite: EC En 450 or Me En 372 or
equivalent.
Design, fabrication, and applications of MEMS. Mechanical
properties governing their design and reliability and the
processing technologies used to fabricate them.
557. Corrosion. (3:3:0) F odd yr. Prerequisite: Chem 105 or
equivalent.
Basic principles, eight common forms of corrosion, testing,
materials, applications, modern theory, and high temperature
metal-gas reactions.
558. Metallurgy. (3:3:0) F even yr. Prerequisite: Me En 250 or
instructor's consent.
Fundamental principles of physical metallurgy and their
application to design.
561 (Me En-Phscs) Fundamentals of Acoustics. (3:3:0) F
Prerequisite: Phscs 123 or equivalent; Math 303 or 334 or
equivalent. Recommended: Phscs 318, 321; or equivalents.
Sound generation, transmission, reflection, and reception.
Vibrating systems, elastic media, mechanical energy, and
radiation. Sound in tubes and cavities. Acoustic filters. Noise
measurement and perception.
562. (Me En-Phscs) Analysis of Acoustic Systems. (3:3:0) W
Prerequisite: Phscs 561 or instructor's consent.
Analyzing and modeling electro-mechano-acoustic systems.
Transducers, calibration, and acoustical measurements. Sound
sources, arrays, coupling, radiation, and directivity. Duct
acoustics. Energy-based acoustics.
564. Digital Instrumentation and Mechatronic Systems. (3:2:3) F
Prerequisite: Me En 363 or equivalent.
Design and analysis of instrumentation systems, fundamental
sensor characteristics, and computer data acquisition; time and
frequency domain modeling with analog and digital components.
570. (Me En-CE En) Computer-Aided Engineering Software
Development. (3:3:0) F Prerequisite: Me En 373 or C
programming.
Programming methods for development of engineering
software. Data structures, architecture, libraries, and graphical
user interfaces, with applications to CAD systems.
572. (Me En-CE En-C S 557) Computer-Aided Geometric Design.
(3:3:0) W Prerequisite: proficiency in C programming.
Mathematical theory of free-form curves and surfaces and solid
geometric modeling. Bezier and B-spline curve and surface theory,
parametric and implicit forms, intersection algorithms, topics in
computer algebra, free-form deformation. Several programming
projects.
575. (Me En-CE En) Optimization Techniques in Engineering.
(3:3:0) W Prerequisite: Math 302 and FORTRAN, C, or similar
computer language.
Application of computer optimization techniques to constrained
engineering design. Theory and use of state-of-the-art computer
routines. Robust design methods.
576. Product Design. (3:3:0) F Prerequisite: Me En 475 or
instructor's consent.
Emerging design methodology and design strategies for
complex systems, including decomposition methods and
sensitivity analysis. Advanced CAD/CAE/CAM technologies
applied to design.
578. CAD/Cam Applications. (3:3:0) W Prerequisite: advanced
FORTRAN, C, or C++.
Principles and practices involved in parametric surface and
solid modeling, associativity, NC tool path generation, etc.
Construction of complete CAD models for design, analysis, and
manufacture.
584. Manufacturing Process Machine Design. (3:3:0) W
Prerequisite: Me En 372 or equivalent.
Applying machine design principles to manufacturing process
machines and tooling; integrating machine elements; precision
machine design. Designing and analyzing the effects of loading,
combined stresses, and deflections on machine process capability.
Sensors applied to process machines.
585. Manufacturing Competitiveness: Quality and Productivity.
(3:3:0) F Prerequisite: Stat 361, Me En 282; or equivalents.
Production strategies to improve quality, decrease cost, and
increase throughput to create market advantage; effective
production management systems; applying quality improvement
tools to process data; theory of constraints and lean production.
595R. Special Topics in Mechanical Engineering. (1–18:2:0 ea.) F,
W, Sp, Su Prerequisite: department chair's consent.
Graduate Courses
For 600- and 700-level courses, see the BYU 2007–2008
Graduate Catalog.
|