Ottawa Carleton Institute of Civil Engineering
Carleton University
Minto 3090
Phone: 613-520-5659
Fax: 613-520-7481
http://www.ocice.ca/
This section presents the requirements for programs in:
Program Requirements
Study at the master's level can be pursued through either a thesis leading to a M.A.Sc., a project option leading to a M.Eng., or a course work option leading to a M.Eng. Requirements are stated in terms of Carleton University credits.
M.A.Sc. Civil Engineering (5.0 credits)
Requirements - Master's degree by thesis (5.0 credits) | ||
1. 2.5 credits in courses | 2.5 | |
2. 2.5 credits in: | 2.5 | |
CIVE 5909 [2.5] | M.A.Sc. Thesis | |
3. Participation in the graduate student seminar series: | ||
CIVE 5901 [0.0] | Master's Seminar | |
4. Successful oral defence of the thesis | ||
Total Credits | 5.0 |
M. Eng. Civil Engineering (5.0 credits)
Requirements - Master's degree by project (5.0 credits) | ||
1. 4.0 credits in courses | 4.0 | |
2. 1.0 credit in: | 1.0 | |
CIVE 5900 [1.0] | Civil Engineering Project | |
Total Credits | 5.0 |
Requirements - Master's degree by course work (5.0 credits) | ||
1. 5.0 credits in courses | 5.0 |
Ph.D. Civil Engineering (10.0 credits)
Requirements are stated in terms of Carleton University credits.
Requirements: | ||
1. 2.0 credits in courses | 2.0 | |
2. Participation in the graduate student seminar series: | 0.0 | |
CIVE 6901 [0.0] | Ph.D. Seminar | |
3. Successful completion of written and oral comprehensive examinations in subject areas determined by the student's advisory committee: | 0.0 | |
CIVE 6902 [0.0] | Ph.D. Comprehensive Examination | |
4. Successful completion of a thesis proposal examination | 0.0 | |
5. 8.0 credits in: | 8.0 | |
CIVE 6909 [8.0] | Ph.D. Thesis | |
6. Successful oral defence of the thesis. The examination board for all theses will include an external examiner, and, when possible, professors from both departments. | 0.0 | |
Total Credits | 10.0 |
Note
- Subject to approval of his/her advisory committee, a Ph.D. student may take, or be required to take, courses in other disciplines.
Graduate Courses
In all programs, the student may choose graduate courses from either university with the approval of the adviser or the advisory committee. Graduate courses are listed below, grouped by subject area. Course descriptions may be found in the departmental section of the calendar concerned. All courses are of one term duration. The codes given in parentheses are those used by the University of Ottawa. Courses beginning with "CIVE" and 'ENVE' are offered at Carleton University and those beginning with "CIVJ" and 'ENVJ' are offered at the University of Ottawa. Not all courses listed are necessarily given during one academic year. Courses taken outside the Institute will not count towards the degree requirements unless approved by the adviser or the advisory committee and the program's Associate Chair (graduate affairs). In all programs, at least one half of the course work must be taken from the Institute.
Geotechnical Engineering
Geotechnical Engineering | ||
CIVE 5209 (CVG 7100) | Geotechnical Case Studies | |
CIVE 5300 (CVG 7101) | Advanced Soil Mechanics | |
CIVE 5500 (CVG 7104) | Earth Retaining Structures | |
CIVE 5501 (CVG 7105) | Advanced Foundation Engineering | |
CIVE 5502 (CVG 7106) | In-Situ Geotechnique | |
CIVE 5503 (CVG 7107) | Numerical Methods in Geomechanics | |
CIVE 5505 (CVG 7109) | Geotechnical Earthquake Engineering | |
CIVE 5800 (CVG 7305) | Topics in Geotechnique | |
CIVE 5801 (CVG 7306) | Topics in Geotechnique | |
CIVE 5802 (CVG 7307) | Topics in Geotechnique | |
CIVE 5803 (CVG 7308) | Topics in Geotechnique | |
CIVE 5804 (CVG 7309) | Topics in Geotechnique | |
CIVJ 5000 (CVG 5100) | Deep Foundations | |
CIVJ 5006 (CVG 5106) | Site Improvements | |
CIVJ 5008 (CVG 5108) | Pile Dynamics | |
CIVJ 5105 (CVG 5175) | Numerical Methods for Geotechnical Engineering | |
CIVJ 5106 (CVG 5161) | Mechanics of Unsaturated Soils | |
CIVJ 5107 (CVG 5177) | Offshore Geotechnique | |
CIVJ 5108 (CVG 5178) | Ice Mechanics | |
CIVJ 5109 (CVG 5109) | Geotechnical Hazards |
Structural Engineering
CIVE 5101 (CVG 7120) | Solid Mechanics | |
CIVE 5102 (CVG 7121) | Advanced Elasticity | |
CIVE 5103 (CVG 7122) | Finite Element Analysis 1 | |
CIVE 5104 (CVG 7123) | Earthquake Engineering and Analysis | |
CIVE 5105 (CVG 7124) | Finite Element Analysis 2 | |
CIVE 5106 (CVG 7137) | Dynamics of Structures | |
CIVE 5107 (CVG 5321) | Finite Elements in Field Problems | |
CIVE 5108 | Nonlinear Analysis and Design of Advanced Earthquake-Resistant Structures | |
CIVE 5200 (CVG 7138) | Masonry Behaviour and Design | |
CIVE 5203 (CVG 7125) | Theory of Structural Stability | |
CIVE 5204 (CVG 7126) | Advanced Steel Structures | |
CIVE 5205 (CVG 7127) | Advanced Structural Analysis | |
CIVE 5206 (CVG 7128) | Prestressed Concrete | |
CIVE 5208 (CVG 7130) | Advanced Reinforced Concrete | |
CIVE 5507 | Blast Load Effects on Structures | |
CIVE 5600 (CVG 7131) | Project Management | |
CIVE 5601 (CVG 7140) | Engineering, Statistics, and Probabilities | |
CIVE 5602 (CVG 7141) | Advanced Computer-Aided Design | |
CIVE 5605 (CVG 7143) | Design of Steel Bridges | |
CIVE 5606 (CVG 7144) | Design of Concrete Bridges | |
CIVE 5607 (CVG 7145) | Introduction to Bridge Design | |
CIVE 5705 (CVG 7300) | Topics in Structures | |
CIVE 5706 (CVG 7301) | Topics in Structures | |
CIVE 5707 (CVG 7302) | Topics in Structures | |
CIVE 5708 (CVG 7303) | Topics in Structures | |
CIVE 5709 (CVG 7304) | Topics in Structures | |
CIVJ 5201 (CVG 5142) | Advanced Structural Dynamics | |
CIVJ 5202 (CVG 5143) | Advanced Structural Steel Design | |
CIVJ 5300 (CVG 5144) | Advanced Reinforced Concrete Design | |
CIVJ 5203 (CVG 5145) | Theory of Elasticity | |
CIVJ 5302 (CVG 5146) | Numerical Methods of Structural Analysis | |
CIVJ 5204 (CVG 5147) | Theory of Plates and Shells | |
CIVJ 5305 (CVG 5148) | Prestressed Concrete Design | |
CIVJ 5304 (CVG 5149) | Structural Stability | |
CIVJ 5206 (CVG 5150) | Advanced Concrete Technology | |
CIVJ 5209 (CVG 5153) | Wind Engineering | |
CIVJ 5306 (CVG 5155) | Earthquake Engineering | |
CIVJ 5301 (CVG 5156) | Finite Element Methods I | |
CIVJ 5303 (CVG 5157) | Finite Element Methods II | |
CIVJ 5307 (CVG 5158) | Elements of Bridge Engineering | |
CIVJ 5308 (CVG 5154) | Random Vibrations | |
CIVJ 5309 (CVG 5159) | Long Span Structures | |
CIVJ 5310 (CVG 5311) | Bridge Design | |
CIVJ 5311 (CVG 5312) | Durability of Concrete Structures | |
CIVJ 5312 (CVG 5313) | Seismic Analysis and Design of Concrete Structures |
Fire Safety Engineering
CIVE 5609 (CVG 7170) | Fundamentals of Fire Safety Engineering | |
CIVE 5610 (CVG 7171) | Fire Dynamics I | |
CIVE 5611 (CVG 7173) | People in Fires | |
CIVE 5612 (CVG 7174) | Fire Modeling | |
CIVE 5613 (CVG 7172) | Fire Dynamics II | |
CIVE 5614 (CVG 7175) | Design for Fire Resistance | |
CIVE 5615 (CVG 5320) | Fire Behaviour of Materials | |
CIVE 5810 | Topics in Fire Safety |
Transportation Engineering
CIVE 5303 (CVG 7103) | Pavements and Materials | |
CIVE 5304 (CVG 7150) | Intercity Transportation | |
CIVE 5305 (CVG 7151) | Traffic Engineering | |
CIVE 5306 (CVG 7152) | Highway Materials | |
CIVE 5307 (CVG 7153) | Urban Transportation | |
CIVE 5308 (CVG 7154) | Highway Geometric Design | |
CIVE 5309 (CVG 7155) | Transportation Supply | |
CIVE 5401 (CVG 7156) | Transportation Economics | |
CIVE 5402 (CVG 7159) | Transportation Terminals | |
CIVE 5403 (CVG 7158) | Airport Planning | |
CIVE 5404 | Introduction to Infrastructure Management | |
CIVE 5805 (CVG 7310) | Topics in Transportation | |
CIVE 5806 (CVG 7311) | Topics in Transportation | |
CIVE 5807 (CVG 7312) | Topics in Transportation | |
CIVE 5808 (CVG 7313) | Topics in Transportation | |
CIVE 5809 (CVG 7314) | Topics in Transportation |
Water Resources Engineering
CIVJ 5501 (CVG 5111) | Hydraulic Structures | |
CIVJ 5502 (CVG 5112) | Computational Hydrodynamics | |
CIVJ 5803 (CVG 5119) | Computational Hydraulics | |
CIVJ 5506 (CVG 5120) | Water Resources Systems | |
CIVJ 5509 (CVG 5123) | Advanced Topics in Hydrology | |
CIVJ 5605 (CVG 5124) | Coastal Engineering | |
CIVJ 5601 (CVG 5125) | Statistical Methods in Hydrology | |
CIVJ 5602 (CVG 5126) | Stochastic Hydrology | |
CIVJ 5603 (CVG 5127) | Hydrologic Systems Analysis | |
CIVJ 5604 (CVG 5128) | Water Resources Planning and Policy | |
CIVJ 5606 (CVG 5131) | River Engineering | |
CIVJ 5503 (CVG 5160) | Sediment Transport | |
CIVJ 5504 (CVG 5162) | River Hydraulics |
Environmental Engineering
Environmental Engineering | ||
ENVE 5001 (CVG 7160) | Biofilm Processes | |
ENVE 5003 (EVG 7143) | Advanced Ultraviolet Processes | |
ENVE 5004 (EVG 7144) | Advanced Wastewater Treatment | |
ENVE 5101 (EVG 5101) | Air Pollution Control | |
ENVE 5102 (CVG 7161) | Traffic-Related Air Pollution | |
ENVE 5103 (CVG 7162) | Air Quality Modeling | |
ENVE 5104 (EVG 7104) | Indoor Environmental Quality | |
ENVE 5105 (EVG 7105) | Atmospheric Aerosols | |
ENVE 5106 (EVG 7106) | Atmospheric Chemical Transport Modelling | |
ENVE 5201 (EVG 7201) | Geo-Environmental Engineering | |
ENVE 5203 (EVG 5203) | Hazardous and Radioactive Wastes | |
ENVE 5204 (EVG 7134) | Resource Industry Waste Management | |
ENVE 5205 (EVG 7132) | Sludge Treatment and Disposal | |
ENVE 5301 (EVG 7301) | Contaminant Hydrogeology | |
ENVE 5302 (CVG 7163) | Case Studies in Hydrogeology | |
ENVE 5303 (EVG 7303) | Multiphase Flow in Soils | |
ENVE 5401 (EVG 7401) | Environmental Impacts of Major Projects | |
ENVE 5402 (EVG 7402) | Finite Elements in Field Problems | |
ENVE 5701 (EVG 6301) | Topics in Environmental Engineering | |
ENVE 5702 (EVG 6302) | Topics in Environmental Engineering | |
ENVE 5703 (EVG 6303) | Topics in Environmental Engineering | |
ENVE 5704 (EVG 6304) | Topics in Environmental Engineering | |
ENVE 5705 (EVG 6305) | Topics in Environmental Engineering | |
ENVJ 5101 (CHG 4301) | Air Pollution Control Process | |
ENVJ 5700 (CVG 5139) | Environmental Assessment of Civil Engineering Projects | |
ENVJ 5900 (CVG 5130) | Wastewater Treatment Process Design | |
ENVJ 5901 (CVG 5132) | Unit Operations of Water Treatment | |
ENVJ 5902 (CVG 5138) | Advanced Water Treatment | |
ENVJ 5903 (CVG 5331) | Sludge Utilization and Disposal | |
ENVJ 5905 (CVG 5137) | Water and Wastewater Treatment Process Analysis | |
ENVJ 5906 (CVG 5133) | Solid Waste Disposal | |
ENVJ 5907 (CVG 5134) | Chemical Analysis for Environmental Engineering | |
ENVJ 5908 (CVG 5179) | Anaerobic Digestion | |
ENVJ 5909 (CVG 5180) | Biological Nutrient Removal | |
ENVJ 5911 (CVG 5232) | Unit Operations of Water Treatment Lab | |
ENVJ 5912 (CVG 5238) | Advanced Water Treatment Processes Lab |
Studies and Seminars
CIVE 5901 (CVG 7314) | Master's Seminar | |
CIVE 5906 (CVG 6108) | Directed Studies 1 | |
CIVE 6906 (CVG 6109) | Directed Studies 2 | |
CIVJ 6000 (CVG 6300) | Special Topics in Civil Engineering | |
CIVJ 6001 (CVG 6301) | Special Topics in Civil Engineering | |
CIVJ 6002 (CVG 6302) | Special Topics in Civil Engineering | |
CIVJ 6003 (CVG 6303) | Special Topics in Civil Engineering | |
CIVJ 6004 (CVG 6304) | Special Topics in Civil Engineering | |
CIVJ 6005 (CVG 6305) | Special Topics in Civil Engineering | |
CIVJ 6006 (CVG 6306) | Special Topics in Civil Engineering | |
CIVJ 6007 (CVG 6307) | Special Topics in Civil Engineering | |
CIVJ 6008 (CVG 6308) | Special Topics in Civil Engineering | |
CIVJ 6009 (CVG 6309) | Special Topics in Civil Engineering | |
CIVJ 6010 (CVG 6310) | Special Topics in Civil Engineering | |
CIVJ 6011 (CVG 6311) | Special Topics in Civil Engineering | |
CIVJ 6012 (CVG 6312) | Special Topics in Civil Engineering | |
CIVJ 6013 (CVG 6313) | Special Topics in Civil Engineering | |
CIVJ 6014 (CVG 6314) | Special Topics in Civil Engineering | |
CIVJ 6015 (CVG 6315) | Special Topics in Civil Engineering | |
CIVJ 6016 (CVG 6316) | Special Topics in Civil Engineering | |
CIVJ 6017 (CVG 6317) | Special Topics in Civil Engineering | |
CIVJ 6018 (CVG 6318) | Special Topics in Civil Engineering | |
CIVJ 6019 (CVG 6019) | Special Topics in Civil Engineering | |
CIVJ 6020 (CVG 6320) | Special Topics in Civil Engineering | |
CIVE 6901 | Ph.D. Seminar |
Projects and Theses
CIVE 5900 (CVG 6000) | Civil Engineering Project | |
CIVE 5909 (CVG 5909) | M.A.Sc. Thesis | |
CIVE 6902 (CVG 9998) | Ph.D. Comprehensive Examination | |
CIVE 6909 (CVG 9999) | Ph.D. Thesis |
Civil Engineering - Joint (CIVJ) Courses
Deep Foundations
Dam Engineering
Adsorption Separation Process
Site Improvements
Pile Dynamics
Behaviour of Soil and Rock
Soil Plasticity
Numerical Methods for Geotechnical Engineering
Mechanics of Unsaturated Soils
Offshore Geotechnique
Ice Mechanics
Geotechnical Hazards
Advanced Structural Dynamics
Advanced Structural Steel Design
Theory of Elasticity
Theory of Plates and Shells
Advanced Concrete Technology
Wind Engineering
Advanced Reinforced Concrete Design
Finite Element Methods I
Numerical Methods of Structural Analysis
Finite Element Methods II
Structural Stability
Prestressed Concrete Design
Earthquake Engineering
Elements of Bridge Engineering
Random Vibrations
Long Span Structures
Bridge Design
Durability of Concrete Structures
Seismic Analysis and Design of Concrete Structures
Deep Foundations
Hydraulic Structures
Computational Hydrodynamics
Sediment Transport
River Hydraulics
Water Resources Systems
Groundwater and Seepage
Advanced Topics in Hydrology
Statistical Methods in Hydrology
Stochastic Hydrology
Hydrologic Systems Analysis
Water Resources Planning and Policy
Coastal Engineering
River Engineering
Irrigation and Drainage
Computational Hydraulics
Unit Op of Water Treatment
Water and Wastewater Labs
Water and Wastewater Proc
Solid Waste Disposal
Chemistry of Enviro Engin
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Special Topics in Civil Engineering
Civil Engineering (CIVE) Courses
Solid Mechanics
Cartesion tensor notation; stresses and strains in a continuum; transformations, invariants; equations of motion; constitutive relations; generalized Hooke's Law, bounds for elastic constant: strain energy, superposition, uniqueness; formulation of plane stress and plane strain problems; energy principles, variational methods; plasticity.
Advanced Elasticity
Continuation of topics introduced in CIVE 5101. Complex variable solutions: torsional and thermal stresses; axially symmetric three-dimensional problems, Love's strain potential, Boussinesq-Galerkian stress functions; problems related to infinite and semi-infinite domains. Introduction to numerical methods of stress analysis, comparison of solutions.
Finite Element Analysis 1
Advanced finite element methods for linear systems. The relationship with variational and Galerkin formulations, system of linear equations, polynomial interpolation, numerical integration, and theory of elasticity is explored. Isoparametric formulations for structural and continuum elements are examined. Introduction to linear dynamics and nonlinear problems.
Earthquake Engineering and Analysis
Advanced vibration analysis techniques; Rayleigh-Ritz procedure; subspace iteration; derived Ritz coordinates; proportional and non-proportional damping; introduction to seismology; earthquake response analysis via time and frequency domain; response spectrum approach; multiple input excitations; design considerations and code requirements; other advanced topics in earthquake engineering.
Finite Element Analysis 2
Variational and Galerkin formulations: assumed displacement, assumed stress and hybrid elements; plate bending: convergence, completeness and conformity, patch test, Kirchhoff and Mindlin plate theories, nonlinear elasticity and plasticity; geometric non-linearity, Eulerian and Lagrangian formulations; incremental and iterative schemes, finite elements in dynamics.
Dynamics of Structures
Structural dynamics, single and multi-degree-of-freedom systems, formulation of equations of motion, methods of analytical mechanics, free and forced vibrations, normal mode analysis, numerical methods for the response analyses of single and multiple-degree-of-freedom systems.
Finite Elements in Field Problems
Use of Galerkin and Ritz finite element formulation to solve one and two dimensional field problems. Steady state and time-dependent phenomena involving potentials, heat transfer, fluid flow, diffusion, and dispersion with emphasis on practical applications. Basic knowledge of third year-level undergraduate engineering mathematics/physics required.
Nonlinear Analysis and Design of Advanced Earthquake-Resistant Structures
Design and construction of nonlinear structural models. Accounting for mass, material behaviour, damping, and nonlinear geometry. Use of pushover and time history analysis methods. Design and modelling of structural systems using passive damping devices and isolation systems.
Masonry Behaviour and Design
Properties of masonry materials and assemblages. Behaviour and design of walls, columns and lintels. Treatment of specialized design and construction topics. Design of lowrise and highrise structures. Discussion of masonry problems. Emphasis on a practice-oriented approach.
Theory of Structural Stability
Elastic and inelastic behaviour of beam-columns; elastic and inelastic buckling of frames; application of energy methods to buckling problems; lateral-torsional buckling of columns and beams; buckling of plates; local buckling of columns and beams.
Advanced Steel Structures
Limit states design philosophy; material behaviour; tension members; plate buckling; torsion; lateral torsional buckling; beams, axially loaded columns and beam-column behaviour; brittle fracture and fatigue; frame stability and second order effects.
Advanced Structural Analysis
Matrix structural analysis; force and displacement method of analysis for planar and space structures; symmetric and anti-symmetric structures; analysis of nonlinear structures: geometric and material nonlinearities; large displacement theory and iteration strategy.
Prestressed Concrete
Behaviour and analysis of prestressed concrete elements subjected to axial loads, flexure and shear: material properties; prestressing systems; linear and non-linear behaviour; deflections; compression-field approaches; disturbed regions; restraint of deformations; design requirements; applications to pressure vessels, bridges and frames.
Advanced Reinforced Concrete
The research background, development, and limitations in current building code provisions for reinforced concrete; yield line theory of slabs; safety and limit state design; computer design of concrete structures.
Geotechnical Case Studies
The critical study of case histories relating to current procedures of design and construction in geotechnical engineering. The importance of instrumentation and monitoring field behaviour will be stressed. In-situ testing.
Advanced Soil Mechanics
Effective stress, pore pressure parameters, saturated and partially saturated soils; seepage; permeability tensor, solutions of the Laplace equation; elastic equilibrium; anisotropy, non-homogeneity, consolidation theories; shear strength of cohesive and cohesionless soils; failure and yield criteria.
Pavements and Materials
An analysis of the interaction of materials, traffic, and climate in the planning, design construction, evaluation, maintenance, and rehabilitation of highway and airport pavements.
Intercity Transportation
Current modal and intermodal issues, including energy. Framework and process of intercity transport planning and management. Recent trends and system development. Passenger and freight demand and service characteristics. Future prospects and possibilities.
Traffic Engineering
Introduction to principles of traffic engineering. Basic characteristics of drivers, vehicles, and traffic. Volume, speed, and delay studies. Traffic stream characteristics and queuing theory. Capacity analysis of roads and intersections. Safety.
Highway Materials
Materials characterization and strength evaluation of soils, stabilized soils, aggregates, and asphalt concrete. Effects of low temperatures and frost on materials behaviour.
Urban Transportation
Urban transportation systems, planning and management. Urban development models, an introduction. Urban transportation policy.
Highway Geometric Design
Principles of highway geometric design. Components of the highway system, their interrelationships, abilities, limitations, and their relations with the design elements. Safety and human factors, and their interaction with the highway elements. New and evolving concepts.
Transportation Supply
Advanced treatment of transportation planning and management concepts and techniques: transport supply issues, capacity and costs, evaluation of system improvements and extensions, transportation and development, policy impact analysis.
Transportation Economics
Transportation, economic analysis framework. Transport industry output. Carrier operations. Issue of resource utilization, measurement, economics, supply of infrastructure, pricing; subsidies, externalities. Transport policy in Canada.
Transportation Terminals
Framework for passenger terminal planning and design. Theory: the transfer function and network modeling; pedestrian flow characteristics; capacity of corridors, stairs, escalators, and elevators; layout planning. Practical applications: air, rail, metro, bus, ferry, and multi-modal terminals.
Airport Planning
Framework for airport planning and design. Aircraft characteristics; demand forecasting; airport site selection; noise, airside capacity; geometric design; the passenger terminal complex; cargo area; general aviation; ground transportation; land use planning.
Introduction to Infrastructure Management
Infrastructure management and its relationship to facility and asset management; challenges facing infrastructure managers; tools for effective IM; concept of total quality management; economic analysis of maintenance, rehabilitation and reconstruction; use of life cycle cost analysis in decision making, development and use of IM systems.
Earth Retaining Structures
Approaches to the theoretical and semi-empirical analysis of earth retaining structures. Review of the earth pressure theories. Analysis and design methods for rigid and flexible retaining walls, braced excavations, and tunnels. Instrumentation and performance studies.
Advanced Foundation Engineering
Review of methods of estimating compression and shear strength of soils. Bearing capacity of shallow and deep foundations. Foundations in slopes. Pile groups. Use of in-situ testing for design purposes.
In-Situ Geotechnique
Subsurface exploration program. Soil and rock sampling. Geo-physical methods. Mechanical and hydraulic properties of soil and rock. Determination of strength and deformability. Critical evaluation of vane, pressuremeter, screw plate, dilatometer, borehole shear and plate load tests. Pumping, recharge and packer tests. In-situ stress measurements.
Numerical Methods in Geomechanics
Advanced theories of soil and rock behaviour. Plasticity models. Generalized failure criteria. Critical state and cap models. Dilatancy effects. Associative and non-associative flow rules. Hardening rules. Consolidation, visco-elasticity, creep behaviour. Finite element formulation. Iterative schemes. Time marching schemes. Solution of typical boundary value problems.
Seepage Through Soils
Surface-subsurface water relations. Steady flow. Flownet techniques. Numerical techniques. Seepage analogy models. Anisotropic and layered soils. Water retaining structures. Safety against erosion and piping. Filter design. Steady and non-steady flow towards wells. Multiple well systems. Subsidence due to ground water pumping.
Geotechnical Earthquake Engineering
Seismic hazards, earthquakes and ground motion, wave propagation, ground response analysis, soil properties for dynamic analysis: laboratory tests, in-situ tests, modulus and damping curves, liquefaction susceptibility, post liquefaction response, seismic effects on slope stability, retaining structures.
Blast Load Effects on Structures
Threats, risk analysis, vulnerability assessment; explosives: types and mechanisms; load determination; response of structural elements under blast loads, analysis and design for blast loads; blast mitigation, retrofit of structures; post-event assessment.
Project Management
Managing building development, design, and construction including interrelationships among owners, developers, financing sources, designers, contractors, and users; project manager role and tasks; project objectives; feasibility analyses; budgets and financing; government regulations; environmental and social constraints; cost, time, and content quality controls and processes; human factors.
Engineering, Statistics, and Probabilities
Review of basic concepts in statistics and probabilities. Bayes' Theorem. Distributions. Parameter estimation. Goodness-of-fit. Regression and correlation. OC curves. Monte Carlo simulation. ANOVA. Probability-based design criteria. System reliability. Selected applications in structures, transportation and geomechanics. Use of computer software. Emphasis on problem solving.
Advanced Computer-Aided Design
Representation and processing of design constraints (such as building codes and other design rules); decision tables; constraint satisfaction. Automatic integrity and consistency maintenance of design databases; integrated CAD systems. Introduction to geometric modeling. Introduction to artificial intelligence.
Design of Steel Bridges
Basic features of steel bridges, design of slab-on-girder, box girder and truss bridges. Composite and non-composite design. Introduction to long span suspension and cable-stayed bridges. Discussion of relevant codes and specifications.
Design of Concrete Bridges
Concrete and reinforcing steel properties, basic features of concrete bridges, design of superstructure in reinforced concrete slab, slab-on-girder and box girder bridges, introduction to prestressed concrete bridges, design of bridge piers and abutments. In all cases the relevant provisions of Canadian bridge codes are discussed.
Introduction to Bridge Design
Limit states design of highway bridges; methods of analysis, design and evaluation procedures of superstructure components; design codes; design loads and load factors; concrete deck design; load distributions; computer analysis; impact and dynamics; fatigue and brittle fracture; construction bracing; load capacity rating of existing bridges.
Fundamentals of Fire Safety Engineering
The fire safety system, including social, economic and environmental issues; description of the fire safety regulatory system and the governing building codes and standards. This includes the global fire safety system in a facility and active fire protection systems; detection, suppression, smoke management.
Fire Dynamics I
Fundamentals of combustion including material and energy balances, chemical thermodynamics, kinetics, premixed and diffusive burning. Advanced topics in the theory of combustion, flame propagation, efficiency of combustion, and the physico-chemical properties of combustible material.
People in Fires
Review of the work presented by the founders in the field of human behaviour in fire. Introduction to the basic notions of perception, cognition, information processing, decision-making and problem solving. Behavioural concepts such as panic, commitment, affiliation, familiarity and role are discussed.
Fire Modeling
Fire modeling and its role in fire safety engineering. Review of the main modeling techniques used in Fire Safety Engineering: network, zone and Computational Fluid Dynamics (CFD).
Fire Dynamics II
Fire dynamics from ignition through heat transfer to growth and spread of fires and their suppression. Factors such as containment and its role in the dynamics of fires and explosions are covered.
Design for Fire Resistance
Behaviour of materials and structures at elevated temperatures; fire-resistance tests; fire-resistance ratings; building code requirements; real-world fires; assessing the fire resistance of steel, concrete and wood building assemblies.
Fire Behaviour of Materials
Fundamentals and scientific aspects of materials behaviour during fires, material specifications, thermal and mechanical properties, fire hazards of materials, structural fire response, residual strength, failure criteria, mechanisms of flame retardancy, and standards and testing protocols.
Topics in Structures
Courses in special topics related to building design and construction, not covered by other graduate courses.
Topics in Structures
Courses in special topics related to building design and construction, not covered by other graduate courses.
Topics in Structures
Courses in special topics related to building design and construction, not covered by other graduate courses.
Topics in Structures
Courses in special topics related to building design and construction, not covered by other graduate courses.
Topics in Structures
Courses in special topics related to building design and construction, not covered by other graduate courses.
Topics in Geotechnique
Courses in special topics in geotechnical engineering, not covered by other graduate courses.
Topics in Geotechnique
Courses in special topics in geotechnical engineering, not covered by other graduate courses.
Topics in Geotechnique
Courses in special topics in geotechnical engineering, not covered by other graduate courses.
Topics in Geotechnique
Courses in special topics in geotechnical engineering, not covered by other graduate courses.
Topics in Geotechnique
Courses in special topics in geotechnical engineering, not covered by other graduate courses.
Topics in Transportation
Courses in special topics in transportation engineering, not covered by other graduate courses.
Topics in Transportation
Courses in special topics in transportation engineering, not covered by other graduate courses.
Topics in Transportation
Courses in special topics in transportation engineering, not covered by other graduate courses.
Topics in Transportation
Courses in special topics in transportation engineering, not covered by other graduate courses.
Topics in Transportation
Courses in special topics in transportation engineering, not covered by other graduate courses.
Topics in Fire Safety
Courses in special topics related to fire safety, not covered by other graduate courses.
Civil Engineering Project
Students enrolled in the program M.Eng. by project will conduct an engineering study, analysis, or design project under the general supervision of a member of the Department.
Master's Seminar
The series consists of presentations by graduate students or external speakers. Graduate students in the Civil Engineering program are required to participate in these seminar series by attending all seminars and making at least one presentation during their graduate studies.
Directed Studies 1
M.A.Sc. Thesis
Ph.D. Seminar
The series consists of presentations by graduate students or external speakers. Graduate students in the Civil Engineering program are required to participate in these seminar series by attending all seminars and making at least one presentation during their graduate studies.
Ph.D. Comprehensive Examination
Graduate students at the Doctoral level in the Civil Engineering program are required to successfully complete written and oral comprehensive examinations in subject areas determined by the student's advisory committee.
Directed Studies 2
Ph.D. Thesis
Summer session: some of the courses listed in this Calendar are offered during the summer. Hours and scheduling for summer session courses will differ significantly from those reported in the fall/winter Calendar. To determine the scheduling and hours for summer session classes, consult the class schedule at central.carleton.ca
Not all courses listed are offered in a given year. For an up-to-date statement of course offerings for the current session and to determine the term of offering, consult the class schedule at central.carleton.ca
Admission
The normal requirement for admission to a master's program is a bachelor's degree with at least high honours standing in civil engineering.
- Graduates from engineering programs other than civil engineering, or Honours science programs with a mathematics content equivalent to the civil engineering program will have to take a minimum of four qualifying undergraduate civil engineering courses in their area of graduate specialty.
- Graduates from other science programs will have to take all the core engineering undergraduate mathematics courses in addition to the requirements specified in (1) above.
The undergraduate courses required will be specified in the Certificate of Admission.
Undergraduate civil engineering courses will not be accepted towards a graduate degree. Graduate students may still be required to take undergraduate courses for credit to fulfil the admission requirements.
No more than one half of the program credit requirements or that stipulated in the regulations of the university in which the student is registered, whichever is less, can be transferred at admission.
Accelerated Pathway
The accelerated pathway in Civil Engineering is a flexible and individualized plan of graduate study. Students in the final year of Bachelor of Engineering in Civil, Environmental, or Architectural Conservation and Sustainability Engineering with demonstrated excellent aptitude for graduate studies and research may qualify for this option.
Students with a CGPA of 10.0 or higher, going into their final year of undergraduate study, and intending to apply to a Master’s degree in Civil Engineering in the following academic year should consult with both the Undergraduate and Graduate Associate Chairs to determine if the accelerated pathway is appropriate for them and to confirm their selection of courses.
Upon approval for the accelerated pathway, students will replace a maximum of 1.0 credit of their engineering electives with 5000 level CIVE or ENVE courses. Students will receive advanced standing for the approved 5000 level courses in which they receive a grade of A- or higher.
Admission
The normal requirement for admission into the Ph.D. program is a master's degree with thesis in civil engineering. Students who have been admitted to a master's program may be permitted to transfer into the Ph.D. program if they demonstrate:
- outstanding academic performance by completing at least 2.5 credits of course work with a CGPA of A- of higher, and
- significant promise for advanced research and the ability to defend their Ph.D. proposal in the first year of their Ph.D. program.