Fundamental concepts in each of the disciplines of civil engineering are discussed. Critical thinking skills are formally fostered by hands-on experiences and group discussions.

Principles and practice of visualization and graphical representation using modern computer-aided design tools.

Fundamentals of engineering mechanics. Equilibrium of particles and rigid bodies. Free-body diagrams, analysis trusses and frames. Distributed forces, centroids, centers of gravity, and friction.

The use of computational tools and techniques for solving civil and environmental engineering problems. Overview of numerical methods including roots of equations, systems of linear equations, interpolation, and integration. Use of spreadsheets to analyze civil and environmental systems.

Kinematics of particles and rigid bodies. Vector representation of force and motion. Free-body diagrams, application of energy and momentum methods to solve problems. Rigid body and central force motion.

Concepts of stress and strain; stress analysis of basic structural members. Vectors, free bodies, equilibrium and elastic behavior. Combined stress, Mohr’s circle. Beams, columns, torsion, and rotation.

Theory and application of plane surveying and mapping techniques. Lecture plus laboratory.

Mechanical and thermal properties of mineral aggregates, cements, concrete, timber, asphalt, metals, and plastics.

Experiments, exercises, and demonstrations to accompany ECIV 303. Three hours per week. 2015.

Regulatory permits and scheduling of construction projects. Engineering responsibility and liabilities. Reporting of engineering designs and analysis. Cost estimation of engineering projects including present or future net value.

Equilibrium, shear and moment diagrams, and influence lines for statically determinate trusses, beams, and frames. Energy principles and other methods for displacement calculations. Introduction to indeterminate structural analysis.

Behavior and design of steel beams, columns, and tension members; strength and stability; design of connections using welded, bolted and riveted construction.

Behavior and design of reinforced concrete beams, columns, continuous beams and one way slabs, and footings.

Engineering properties of soil and rock; hydraulic conductivity, flow nets, drainage design; consolidation theory, shearing strength of soil.

Laboratory associated with ECIV 330. Soil mechanics experiments, exercises, and demonstrations. Three hours per week. 2015.

Transportation design, planning, and operational analysis, including roadway, airway, and railway systems; transportation elements, including traveled way, vehicle, control, terminals, and advanced technology; traffic data collection, interpretation, and analysis.

This course covers the principles of distances, elevations and angles that pertain to roadways, basic theories in engineering measurements and surveying calculations, and an introduction to mapping, for transportation engineering applications.

Concepts of environmental engineering, including air and water pollution, solid and hazardous waste disposal, and noise pollution. Qualitative and quantitative development of engineering techniques for pollution control.

Physical, chemical, and biological analysis of water and wastewater. Three laboratory hours per week.

Principles of fluid statics and dynamics. Conservation of mass, momentum, and energy. Similitude and dimensional analysis, open channel flow, lift and drag forces, and introduction to turbulent flow.

Application of fluid mechanic principles to water resources engineering problems; pipe systems, pumps, open channel flow, peak runoff, seepage, hydraulic structures.

Experiments, exercises, and demonstrations on flow in pipes and open channels, pumps, flow measurement, seepage, and infiltration.

Systems approach to analysis and design; application of engineering economic principles to the evaluation of design alternatives; deterministic modeling and optimization emphasizing civil engineering applications.

Design of steel structures including elastic and plastic design concepts. Design of concrete structures including continuous members and long columns.

Application of hydraulic, geotechnical, and structural principles in design; project scheduling; cost estimation; ethics; environmental and social impact; design drawings; report documents.

Course content varies and will be announced in the schedule of classes by course title. May be repeated as topic varies. A maximum of twelve credits may be applied towards a degree.

Graduation with Leadership Distinction: GLD: Research

Preparation for the Fundamentals of Engineering Exam. Will cover general engineering and civil engineering specific areas. Restricted to Civil Engineering Seniors. Pass/ Fail Grading.

Individual investigation or studies of special topics. A maximum of three credits may be applied toward a degree.

Graduation with Leadership Distinction: GLD: Research

Introduction of structural modeling; strain gauge instrumentation; force, displacement, acceleration, pressure, temperature measurements; concrete and steel modeling; size effects; analysis of experimental data.

Advanced methods of structural analysis with emphasis on matrix methods. Development of the generalized matrix force and matrix displacement methods of static analysis, with applications to trusses and frames.

Numerical modeling of typical engineering problems. Numerical solution of linear and nonlinear, boundary and initial value problems. Introduction to optimization.

Response of single- and multiple-degree of freedom structurally dynamic systems to impact, harmonic, wind, and seismic excitations.

Basic engineering properties of timber and masonry materials, design methods and philosophies for timber and masonry structures. Particular attention is paid to current codes, specifications and analysis.

Subsurface investigation procedures. Theoretical and practical aspects of the design of earth retaining structures, spread footings, and pile foundations.

Geotechncial engineering problems associated with the behavior of earth masses. Soil shear strength, lateral earth pressure, design of retaining stuctures, slope stability, water flow through soils.

Principles for the design, construction, and performance of waste containment systems. Characterization of barrier materials; geosynthetics; design of liner and leachate collection systems; stability and deformation analyses of landfills.

Remote sensing and engineering geology. Field and laboratory testing. Design and maintenance methods for flexible and rigid pavements. Topics in tunnel design and buried conduit.

Overview of transducers, signal conditioning and data acquisition; test control methods, data analysis and measurement errors; testing systems to measure soil strength, stiffness, and hydraulic conductivity; laboratory projects and examinations.

Fundamental interactions between supply and demand in transportation systems. Modeling transportation demand and trip-making behavior. Evaluation of alternatives for decision making.

Design of transportation facilities using relevant tools and guidelines with emphasis on physical and operational aspects of arterials, freeways, intersections, and interchanges, including geometry, capacity, control, and safety.

Capacity analysis of freeways and arterials. Traffic flow characteristics and basic relationships among traffic flow parameters. Signalized and unsignalized intersection control and signal timing design.

Unit operations and processes employed in the physical, chemical, and biological treatment of water and wastewater. Design of water and wastewater treatment systems.

Fundamentals and engineering principles of solid waste generation, characterization, collection and transport, source reduction and recycling, and physical, chemical, and biological treatment strategies.

Introduction to the sources of air pollution and the engineering principles used for control and prevention.

Instruction to sustainable engineering design alternatives and principles for construction and site development from preconstruction through design and the construction phase.

Modeling fate and transport phenomena in environmental processes with applications in engineered unit operators and natural systems.

Steady and unsteady flows in single or multiple-channel systems.

Applications of hydrologic techniques to design problems; stormwater simulation models; urban stormwater.

Hydrologic cycle, subsurface physical properties, equations of groundwater flow, well flow, well design, groundwater resource development, design of dewatering systems, groundwater contamination.

Fundamentals of designing and permitting the conversion of land to new or altered states, including environmental issues, traffic and parking, utility resources, site engineering, ADA, safety, planning, and zoning requirements.

Introduction to the analysis and design of the railway infrastructure for freight and passenger systems to include track and track support systems, grade crossings, special trackwork, construction, inspection, assessment and compliance.

Principles of rail operations; Network management; Best practices for train planning, performance management and delivery of service; technical elements of a railway from an operations perspective (train controls, signaling, communications, yards, tractive power etc).

Introduction to railway infrastructure; Structural design considerations and criteria of railway structures; Bridge types and components; Planning and preliminary design of modern railway bridges; Loads and forces; Structural analysis and design of steel railway bridges and components.