Civil Engineering

CIV ENG 703 / Finite Element Method

3 unit(s)

Theory of finite element method; formulation of finite elements; applications to solid mechanics, field and plate bending problems; algorithms for transient and nonlinear problems; introduction to hybrid and mixed finite elements; development of a finite element code.

Current Topics include:
- Building Science (Term 2) taught by Dr. Samir Chidiac
- Concrete Materials Nuclear Power Plant (Term 2) taught by Dr. Samir Chidiac
- System Simulation Data Analytics (Term 2) taught by Dr. Wael El-Dakhakhni

CIV ENG 714 / Advanced Structural Mechanics
3 unit(s)

2-D and 3-D analyses of stresses and strains. Principal stresses and maximum shear stress. Differential equations of equilibrium, compatibility conditions. Bending of unsymmetrical members. Shear centre. Shearing stresses due to bending in thin-walled open and closed members. Torsion of closed and open sections, warping, non-uniform torsion and warping stresses. Theory of plates- Rectangular and circular plates problems. Buckling of elastic columns. Flexural-Torsional buckling of beams. Axial-torsional buckling of columns. Plate buckling (local buckling), shear of buckling of plates.

3 unit(s)

2-D and 3-D analyses of stresses and strains. Principal stresses and maximum shear stress. Differential equations of equilibrium, compatibility conditions. Bending of unsymmetrical members. Shear centre. Shearing stresses due to bending in thin-walled open and closed members. Torsion of closed and open sections, warping, non-uniform torsion and warping stresses. Theory of plates- Rectangular and circular plates problems. Buckling of elastic columns. Flexural-Torsional buckling of beams. Axial-torsional buckling of columns. Plate buckling (local buckling), shear of buckling of plates.

3 unit(s)

This course covers the analysis and design of structural systems that feature seismic isolation and/or structural control devices. The course will cover: (a) Conceptual basis of seismic isolation, seismic isolation types, mechanical characteristics of isolators; (b) Behaviour and modeling of isolation devices, response of structures with isolation devices; (c) Conceptual basis for structural control devices, types of dampers, mechanical behaviour and modeling of dampers; and (d) Design approaches and code requirements for structures using seismic isolation and energy dissipation devices.

3 unit(s)

Engineering seismology; seismic design principles applied to building structures, and special facilities, code provisions for earthquakes; seismic design of concrete structures, special provisions; elastic and inelastic static and dynamic modeling.

3 unit(s)
S.E. Chidiac

Portland Cement and its constituent phases; role of water in hydrated cement systems, hydration parameters, limiting hydration, state of water, porosity, engineering properties; structural models for C-S-H; hydration mechanisms: through solution, solid state; pore structure determination; engineering properties; role of admixtures and supplementary cementing materials; analysis of fresh and hardened concrete; durability; transport properties, relationships between transport properties and durability; in-situ evaluation of concrete structures; materials and techniques for repair; service life/durability design of concrete structures.

3 unit(s)

Formulation of equations of motion; one degree-of-freedom systems: undamped, damped, free vibration, forced vibration, nonlinear systems; numerical techniques: time domain, frequency domain. Multi-degree-of-freedom systems: modal analysis, characteristics of Eigen value problems, applications; continuous systems; dynamic loads: earthquake and wind loading, vibrating machines, moving loads.

3 unit(s)
P. Guo

An understanding of soil behaviour is a fundamental requisite to a wide variety of geotechnical engineering applications, such as foundation design, soil-structure interaction and geotechnical earthquake engineering. Appropriate numerical modelling also highly depends on a better understanding of soil behaviour. This course, which focuses on the behaviour of soils under various conditions, their theoretical descriptions and laboratory testing, will provide students the knowledge and understanding of fundamental soil behaviour and of the underlying scientific principles.

CIV ENG 749 / Multivariate Statistical Models and Data Processing Methods in Civil Engineering
3 unit(s)

The course focuses on the practical procedures to develop, apply, and interpret multivariate statistical models, while considering the inherited limitations and the advantages of each modelling technique. Such procedures will be facilitated through the course weekly assignments.

3 unit(s)
Y. Kim

This course will provide various aspects of microbiology that are essential for understanding microbial functions and interactions in environmental engineering, including wastewater treatment engineering. Relevant course topics include: Microbial cell structure and function; metabolism and energetics; kinetics of microbial reactions; genetics of microorganisms; biological nutrient removal; biosolids treatment and methanogenesis; microbial ecology in bioreactors; and exoelectrogenic bacteria. Molecular biology techniques that are commonly used in environmental science will be introduced. Waterborne pathogens and disinfection processes will be discussed in this course.

3 unit(s)
Prerequisite(s): 4N04 (Steel Structures) or equivalent; 730 (Earthquake Engineering) or equivalent

Students will learn about the behaviour of steel seismic force resisting systems, such as moment-resisting frames, concentrically braced frames (with traditional or buckling-restrained braces), eccentrically braced frames, and self-centering systems. For each system, students will come to understand the associated provisions of the Canadian Steel Standard S16. In addition, students will develop experience with advanced numerical techniques for assessing the seismic performance of these systems, including nonlinear static and dynamic analysis.

CIV ENG 749 / Numerical methods in water and wastewater treatment processes
3 unit(s)

This course will cover numerical methods for solving various algebraic and differential equations. The student will learn fundamentals of numerical methods and their applications in engineered systems for water and wastewater treatment. The student will get hands on experience in developing computer programs using Visual Basic Applications or C++. This course is not designed for using existing commercial numerical software, including MATLAB, MATHEMATICA, BioWin, GPS-X, SIMBA, and etc.

3 unit(s)

The objective of this course is to provide a survey of advanced statistical and data-driven methods in hydrology and water resources engineering, and to apply selected methods to hydrologic modeling and water resources problems solving.

CIV ENG 770 / Advanced Groundwater Flow and Contaminant Transport
3 unit(s)

(cross-listed as EARTH SCI 750)

This course will cover the theory, equations, fundamental principles, and processes of the flow of fluids and transport of contaminants in soils and groundwater at an advanced level.

3 unit(s)

This course will cover chemical equilibrium, reaction thermodynamics, activity, acid-base chemistry, coordination chemistry, redox reactions, precipitation and dissolution and contaminant detection and quantification. It is recommended that students have a background in year 1 undergraduate chemistry.

3 unit(s)
Y. Guo

The course introduces various structural and non-structural stormwater management measures. The design and performance of some of the structural stormwater management measures are examined in detail. Modeling and analyses conducted for the planning, design and operation of stormwater management systems are the focus of this course.

CIVENG 6CM4 / Construction Engineering and Management
3 unit(s)

Fundamental concepts of construction engineering and management; advanced scheduling techniques; scheduling linear projects; improving schedules; time-cost trade-offs; and resource allocation and levelling. The course also covers heavy construction equipment and methods including safety, productivity estimation, earthmoving materials and operations, excavation and lifting, loading and hauling, and sustainability in heavy construction. The materials of the course would be supplemented by visits to construction projects.

CIVENG 6G04 / Pavement Materials and Design
3 unit(s)

Components of highway pavements; ground water and drainage for highway facilities; soil compaction and stabilization; aggregates; bituminous and concrete materials, flexible pavement design; concrete pavement design; interlocking pavement structures.

CIVENG 6L04 / Design of Water Resources Systems
3 unit(s)

Investigation, planning, analysis, and design of water resources systems. Frequency analysis, design storms, urban drainage and analysis, floodplain analysis and flood control.

CIVENG 6T04 / Transportation Engineering II - Modelling Transit and ITS

3 unit(s)

An imperative to developing and maintaining a sustainable urban transportation system lies in 'mobility' - recognizing the origin and destination epicentres within a Region and ensuring that there are multiple, viable alternatives for commuters. Traffic and transit modelling is the key to achieving this goal. The modelling of traffic/transit scenarios can facilitate the efficient operation of existing infrastructure as well as the planning and design of future sustainable strategies. This course is intended as a continuation of 3K03 - Introduction to Transportation Engineering with more complex traffic signal modelling, an introduction to Transit Engineering and ITS algorithm development.

Prerequisite(s):  CIVENG 3K03

CIVENG 6V04 / Biological Aspects of Wastewater Engineering
3 unit(s)

Process, capabilities, hardware, and design equations for the biological processes used in design of wastewater treatment plants. Emphasis on processes such as bio-oxidation, clarification, sludge treatment and disinfection. Leading-edge processes are introduced and design software is used.