100-Level Courses
CE EN 100A : Civil and Environmental Engineering Seminar.
(.5:1:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| DESCRIPTION:  | Activities of civil engineering; principles and methods involved in solving civil engineering problems. |
| NOTE: | College Lecture attendance required. |
CE EN 100B : Civil and Environmental Engineering Seminar.
(.5:1:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter |
| DESCRIPTION:  | Activities of civil engineering; principles and methods involved in solving civil engineering problems. |
| NOTE: | College Lecture attendance required. |
CE EN 103 : Engineering Mechanics--Statics.
(2:2:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Winter; Spring |
| PREREQUISITE: | Math 112; or 111 and 119; or concurrent enrollment. |
| DESCRIPTION:  | Concepts of mechanics: force systems in equilibrium, resultants, friction, centroids, utilization of vector algebra, simple trusses, shear and bending moment diagrams, moments of inertia. |
CE EN 112 : Engineering Drafting with CAD Applications.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Winter |
| PREREQUISITE: | Civil engineering or technology education major status |
| DESCRIPTION:  | Structural and component drafting, emphasizing computer-automated (CAD) systems. Concepts include applied and descriptive geometry, multiview representation, sectional views, dimensional practices, and axonometric sketching. |
CE EN 113 : Engineering Measurements.
(3:2:3)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Spring |
| PREREQUISITE: | MATH 111 & CE EN 112 |
| DESCRIPTION:  | Measurement of horizontal and vertical distances and angles to locate engineering projects including profiles, plane and topographical mapping, site layout, and earthwork. |
200-Level Courses
CE EN 200A : Civil and Environmental Engineering Seminar.
(.5:1:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | CE EN 100A & CE EN 100B |
| DESCRIPTION:  | Activities of civil engineering; principles and methods involved in solving civil engineering problems. |
| NOTE: | College Lecture attendance required. |
CE EN 200B : Civil and Environmental Engineering Seminar.
(.5:1:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter |
| PREREQUISITE: | CE EN 100A & CE EN 100B |
| DESCRIPTION:  | Activities of civil engineering; principles and methods involved in solving civil engineering problems. |
| NOTE: | College Lecture attendance required. |
CE EN 203 : Engineering Mechanics--Mechanics of Materials.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Winter; Summer |
| PREREQUISITE: | CE EN 103 |
| DESCRIPTION:  | Fundamental concepts of elastic stress and strain relations; cylinders and spheres; torsion; beam theory, including bending stresses; deflections; and two-dimensional elastic theory. |
CE EN 204 : Engineering Mechanic--Dynamics.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Winter; Summer |
| PREREQUISITE: | CE EN 103; or PHSCS 121 |
| DESCRIPTION:  | Concepts of dynamics applied to particles, systems of particles, rigid bodies, vibration systems, and nonrigid particles systems. |
CE EN 270 : Computational Methods.
(3:1:2)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Winter |
| PREREQUISITE: | Math 113 or concurrent enrollment. |
| DESCRIPTION:  | Numerical methods and computational techniques for solving civil engineering problems. |
300-Level Courses
CE EN 300A : Civil and Environmental Engineering Seminar.
(.5:1:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | CE EN 200A & CE EN 200B |
| DESCRIPTION:  | Technical and professional activities in civil engineering. |
| NOTE: | College Lecture attendance required. |
CE EN 300B : Civil and Environmental Engineering Seminar.
(.5:1:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter |
| PREREQUISITE: | CE EN 200A & CE EN 200B |
| DESCRIPTION:  | Technical and professional activities in civil engineering. |
| NOTE: | College Lecture attendance required. |
CE EN 304 : Civil Engineering Materials: Metals, Woods, and Composites.
(1.5:2:3)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall Blk 1; Winter Blk 1 |
| PREREQUISITE: | CE EN 203 & CE EN 270 & STAT 201 |
| DESCRIPTION:  | Molecular basis and mechanical behavior of civil engineering structural materials; failure theories; laboratory testing. |
CE EN 306 : Civil Engineering Materials: Concrete, Masonry, and Asphalt.
(1.5:2:3)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall Blk 2; Winter Blk 2 |
| PREREQUISITE: | CE EN 203 & CE EN 270 & STAT 201 |
| DESCRIPTION:  | Composition, engineering behavior, and construction of concrete, masonry, and asphalt; laboratory testing. |
CE EN 321 : Structural Analysis.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Winter |
| PREREQUISITE: | CE EN 203 & CE EN 270 |
| DESCRIPTION:  | Deflection analysis by the method of virtual work. Analysis of statically indeterminate structures by the flexibility method, the stiffness method, and moment distribution. Computer analysis of structures. |
CE EN 332 : Hydraulics and Fluid Flow Theory.
(3:2:3)(Credit Hours:Lecture Hours:Lab Hours)| OFFERED: | Independent Study also. |
| WHEN TAUGHT: | Fall; Winter |
| PREREQUISITE: | CEEn 204, 270; or concurrent enrollment. |
| DESCRIPTION:  | Fluid properties, fluid statics and dynamics, viscous flow, boundary layers, concepts of pipe and open-channel flow. |
CE EN 341 : Elementary Soil Mechanics.
(3:2:3)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Winter |
| PREREQUISITE: | CE EN 203 & CE EN 270; CE En 332 or concurrent enrollment. Geol 330 or concurrent enrollment. |
| DESCRIPTION:  | Determination of stresses in soils, soil strength, consolidation, and settlement. Applications in fluid flow, lateral earth pressure, bearing pressure, and slope stability. |
CE EN 351 : Environmental Engineering.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter; Spring Even Yrs.; Summer Odd Yrs. |
| PREREQUISITE: | CHEM 105 |
| DESCRIPTION:  | Environmental concerns, problems, and evaluation methodology; pollution control and engineering management approaches. |
CE EN 361 : Introduction to Transportation Engineering.
(3:2:3)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Spring |
| PREREQUISITE: | CE En 113 or concurrent enrollment. CE En 270 or concurrent enrollment. Stat 201 or concurrent enrollment. |
| DESCRIPTION:  | Transportation system characteristics, traffic engineering, traffic operations, transportation planning, highway geometric design, pavement design, highway safety, public transport. |
400-Level Courses
CE EN 400A : Civil and Environmental Engineering Seminar.
(.5:1:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | CE EN 300A & CE EN 300B |
| DESCRIPTION:  | Technical and professional activities in civil engineering. |
| NOTE: | College Lecture attendance required. |
CE EN 400B : Civil and Environmental Engineering Seminar.
(.5:1:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter |
| PREREQUISITE: | CE EN 300A & CE EN 300B |
| DESCRIPTION:  | Technical and professional activities in civil engineering. |
| NOTE: | College Lecture attendance required. |
CE EN 400C : Civil and Environmental Engineering Online Seminar.
(.5:1:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Winter |
| PREREQUISITE: | Instructor's consent. |
| DESCRIPTION:  | Technical and professional activities in civil engineering. Available online. |
| NOTE: | College Lecture attendance required. |
CE EN 414 : Engineering Applications of GIS.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | Senior status. |
| DESCRIPTION:  | Introduction to GIS concepts. Data acquisition and database formulation including use of GPS. GIS uses in civil engineering. |
CE EN 421 : Structural Steel Design.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter; Spring Odd Yrs. |
| PREREQUISITE: | CE EN 304 & CE EN 321 |
| DESCRIPTION:  | Compression and tension of steel members, beams, and beam-columns. Elastic and inelastic lateral-torsional buckling. Structural fasteners. Emphasizes LFRD. |
CE EN 424 : Reinforced Concrete Design.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Spring Even Yrs. |
| PREREQUISITE: | CE EN 304 & CE EN 306 & CE EN 321 |
| DESCRIPTION:  | Theory and design of reinforced concrete, including columns, beams, slabs, and footings; elastic and ultimate-strength methods of analysis. |
CE EN 427 : International Megastructures.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Spring |
| PREREQUISITE: | CE EN 421 & CE EN 471; or CE EN 424 & CE EN 471; Instructor's consent. |
| DESCRIPTION:  | Designing and analyzing megastructures including skyscrapers and long-span bridges. Studying and visiting numerous innovative megastructures in locations such as China or Dubai. Interacting with professionals. Sustainability and globalization relative to civil engineering. Project-based course; experiential learning. |
CE EN 431 : Hydrology.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter; Spring |
| PREREQUISITE: | CE EN 332 |
| DESCRIPTION:  | Waters of the earth, their occurrence, circulation, and distribution. Relationships among precipitation, evaporation, infiltration, transpiration, groundwater, and stream runoff. |
CE EN 433 : Hydraulic Engineering.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Spring |
| PREREQUISITE: | CE EN 332 |
| DESCRIPTION:  | Application of fluid mechanics principles to analysis and design of hydraulic structures and systems. |
CE EN 439 : Mexico Engineering Study Abroad.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter |
| PREREQUISITE: | CE EN 431; or CE EN 433; CE En 471 or concurrent enrollment. Instructor's consent. |
| DESCRIPTION:  | BYU engineering students team with students from Mexican universities to work on civil engineering projects of consequence in Mexico. Class preparation for Study Abroad work in Mexico. |
CE EN 461 : Geometric Design of Highways.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter |
| PREREQUISITE: | CE EN 113 & CE EN 361 |
| DESCRIPTION:  | Designing visual aspects of highways: highway classification, design controls and criteria, design elements, vertical and horizontal alignment, cross section, intersections, interchanges, capacity analysis. |
CE EN 471 : Civil Engineering Practice.
(1:1:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Winter |
| PREREQUISITE: | 12 credit hours from CE En 304, 306, 321, 322, 341, 351, 361. |
| DESCRIPTION:  | Civil engineering professional practice topics including basic concepts in engineering management, economics, professional licensure, environmental and societal impacts, contemporary issues, and public policy. |
CE EN 472 : Civil Engineering Design.
(2:1:3)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall; Winter |
| PREREQUISITE: | CE En 471 or concurrent enrollment. |
| DESCRIPTION:  | Civil engineering culminating design experience based on the knowledge and skills acquired in earlier course work and incorporating appropriate engineering standards and multiple realistic constraints. |
500-Level Graduate Courses (available to advanced undergraduates)
CE EN 500 : (CE En-Me En) Design and Materials Applications.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | Me En 372 or CE En 321 or equivalent. |
| DESCRIPTION:  | 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. |
CE EN 501 : (CEEn-MeEn) Stress Analysis and Design of Mechanical Structures.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Spring |
| PREREQUISITE: | CE En 321 or Me En 372 or equivalent. |
| DESCRIPTION:  | Stress analysis and deflection of structures; general bending and torsion with computer applications to mechanical and aerospace structure design. |
CE EN 503 : (CE En-Me En) Plasticity and Fracture.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter |
| PREREQUISITE: | CE EN 203 & ME EN 250 & MATH 303; Senior standing or instructor's consent. |
| DESCRIPTION:  | Tensor algebra; stress and deformation tensors; relationships between dislocation slip, yielding, plastic constitutive behavior, and microstructure development; cracks and linear elastic fracture mechanics. |
CE EN 504 : (CE En-Me En) Computer Structural Analysis and Optimization.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | Linear algebra; CE En 321 or Me En 372 or equivalent. |
| DESCRIPTION:  | 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. |
CE EN 505 : Portland Cement Concrete Mixture Design and Analysis.
(3:2:3)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter |
| PREREQUISITE: | CE En 306 or equivalent. |
| DESCRIPTION:  | Properties and testing of freshly mixed and hardened concrete and constituent materials; concrete mixture design and analysis; concrete construction practices; laboratory experimentation. |
CE EN 506 : (CE En-Me En) Continuum Mechanics and Finite Elements.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter |
| PREREQUISITE: | CE En 321 or Me En 372 or equivalent. |
| DESCRIPTION:  | 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. |
CE EN 508 : (CE En-Me En) Structural Vibrations.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | CE En 321 or Me En 372 or equivalent. |
| DESCRIPTION:  | Dynamic analysis of single degree-of-freedom, discrete multi-degree-of-freedom, and continuous systems. Applications include aerospace, civil structures, and mechanical components. |
CE EN 521 : Seismic-Resistant Steel Buildings.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| PREREQUISITE: | CE En 421 or equivalent. |
| DESCRIPTION:  | Background and development of UBC seismic provisions, analysis and design of multistory steel frames, in-depth treatment of shear and moment connections, design of horizontal and vertical diaphragms. |
CE EN 523 : (CE En-Me En) Aircraft Structures.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter |
| PREREQUISITE: | CE En 304 or Me En 250 or equivalent. CE En 321 or Me En 372 or equivalent. |
| DESCRIPTION:  | 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. |
CE EN 524 : Reinforced Concrete Buildings.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| PREREQUISITE: | CE En 424 or equivalent. |
| DESCRIPTION:  | Design for earthquake resistance; torsion effects, slendor columns, and two-way slabs. |
CE EN 525 : Bridge Structures.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | CE En 422, 424; or equivalents. |
| DESCRIPTION:  | Design of composite, continuous beam, and girder bridges, including piers, abutments, floor systems, and bearings; field trips to observe bridge construction and fabrication. |
CE EN 526 : Prestressed Concrete.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| PREREQUISITE: | CE En 424 or equivalent. |
| DESCRIPTION:  | Strength, behavior, and design of prestressed reinforced concrete members and structures, emphasizing pretensioned, precast construction. |
CE EN 528 : Masonry Design.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter Odd Yrs. |
| PREREQUISITE: | CE En 424 or equivalent. |
| DESCRIPTION:  | Introduction to analysis, design, and construction of masonry structures. Compressive, tensile, flexural, and shear behavior of masonry structural components. |
CE EN 529 : Timber Design.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter Even Yrs. |
| PREREQUISITE: | CE EN 304 & CE EN 321 & CE EN 421; or equivalents. |
| DESCRIPTION:  | Timber species, composition, and grades; design of beams, straight and tapered glue-lam girders, columns, connections, trusses, shear walls, and structural systems. |
CE EN 531 : Principles of Hydrologic Modeling
(3:2:3)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter |
| PREREQUISITE: | CE En 431 or equivalent. |
| DESCRIPTION:  | Advanced hydrologic and hydraulic principles with an emphasis on modeling for the purpose of planning and designing draining, flood control, and other water resource facilities. |
CE EN 535 : Hydraulic Design of Channels and Control Structures.
(3:2:3)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | CE En 433 or equivalent. |
| DESCRIPTION:  | Design of water conveyance channels and control structures, including siphons, chutes, weirs, flumes, dams, spillways, and outlet works. |
CE EN 540 : Geo-Environmental Engineering.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| PREREQUISITE: | CE En 341 and 351; or equivalents. CE En 471 or concurrent enrollment or instructor's consent. |
| DESCRIPTION:  | Hazardous waste statutes and regulations; introduction to hazardous waste treatment, storage, disposal, and monitoring techniques. Geotechnical aspects of environmental engineering. Topics include municipal and hazardous solid waste landfill design and characterization and remediation techniques for contaminated soil and groundwater. |
CE EN 542 : Foundation Engineering.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter; Spring Even Yrs. |
| PREREQUISITE: | CE En 341 or equivalent. |
| DESCRIPTION:  | Soil investigation, bearing capacity and settlement, design of spread footings, combined footings, mat foundations, pile foundations, and drilled shafts. |
CE EN 544 : Seepage and Slope Stability Analysis.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| PREREQUISITE: | CE En 341 or equivalent. |
| DESCRIPTION:  | Seepage and slope stability analysis of earth dams, levees, excavations, embankments, and natural slopes; construction dewatering, numerical methods, shear strength of soils, limit equilibrium method. |
CE EN 545 : Geotechnical Analysis of Earthquake Phenomena.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| PREREQUISITE: | CE En 321, 341; or equivalents. |
| DESCRIPTION:  | Earthquake magnitude and intensity; design ground motions, elementary dynamics of structures; response spectra; building code provisions; liquefaction and ground failure. |
CE EN 547 : Groundwater Modeling.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| PREREQUISITE: | CEEn 341 or equivalent. |
| DESCRIPTION:  | Computer simulation of groundwater flow systems; modeling theory, numerical methods, data management, boundary conditions, calibration, and stochastic analysis. |
CE EN 551 : Water Treatment Facilities Design.
(3:2:3)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | CE En 351 or equivalent. |
| DESCRIPTION:  | Evaluation, selection, and design of water treatment facilities. |
CE EN 555 : Environmental Chemistry.
(3:2:4)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | CE En 351 or equivalent. |
| DESCRIPTION:  | Chemical theory and calculation supporting analysis of major organic and inorganic constituents in environmental engineering, focusing on theoretical understanding of the chemical processes. |
CE EN 562 : Traffic Engineering: Characteristics and Operations.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | CE En 361 or equivalent. |
| DESCRIPTION:  | Traffic flow theory, traffic operations, characteristics of drivers and vehicles, parking facilities, at-grade intersections, channelization, traffic control devices, signals. |
CE EN 563 : Pavement Design.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | CE En 306 and 341 and 361; or equivalents. CE En 471 or concurrent enrollment. |
| DESCRIPTION:  | Design, construction, evaluation, maintenance, and rehabilitation of flexible and rigid pavements; influence of traffic and environmental factors; mechanistic analysis of pavement structures using computer software. |
CE EN 565 : Urban Transportation Planning.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | CEEn 361 or instructor's consent. |
| DESCRIPTION:  | Urban transportation planning and decision making, intermodal transportation, land-use transportation interrelationships, transportation demand modeling, site impact analysis, sustainable transportation; livable cities. |
CE EN 570 : (CE En-Me En) Computer-Aided Engineering Software Development.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | Me En 373 or C programming. |
| DESCRIPTION:  | Programming methods for the development of engineering software. Data structures, architecture, libraries, and graphical user interfaces, with applications to CAD systems. |
CE EN 572 : (CE En-Me En) Computer-Aided Geometric Design.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Fall |
| PREREQUISITE: | Proficiency in C programming. |
| DESCRIPTION:  | 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, and free-form deformation. Several programming projects. |
CE EN 575 : (CE En-Me En) Optimization Techniques in Engineering.
(3:3:0)(Credit Hours:Lecture Hours:Lab Hours)| WHEN TAUGHT: | Winter |
| PREREQUISITE: | MATH 302; C, C++, or similar computer language. |
| DESCRIPTION:  | Application of computer optimization techniques to constrained engineering design. Theory and application of unconstrained and constrained nonlinear algorithms. Genetic algorithms. Robust design methods. |