M. Eng. Civil Engineering
Name | Status and Qualification | Research Interest |
A. A. Jimoh | Professor and Head of Department B. Eng., M. Eng., Ph.D. (Ilorin); MNSE, R. Engr. (Nigeria) | Structure and Material Engineering |
A. W. Salami | Professor B.Eng., M. Eng., PGD Comp Sci. (FUT Minna); Ph.D. (Ilorin); R.Engr. (Nigeria) | Water Resources, Hydro-climatology, Optimization modeling, Irrigation Engineering, and Integrated Water Resources Management. |
O. O. Adeleke | Professor B.Sc., M.Sc. (Lagos); MBA, Ph.D. (Ilorin); R. Surv. (Nigeria) | Surveying & Geoinformatics, Remote Sensing, GIS Application and Transportation Engineering |
I. T. Yusuf | Professor B. Eng., M. Eng., Ph.D. (Ilorin); R.Engr. (Nigeria) | Highways and transportation Engineering |
A.M. Ayanshola | Professor B.Eng. (FUT Minna); M.Eng., Ph.D.(Ilorin); R.Engr. (Nigeria) | Water Resources and hydraulics Engineering which includes water distribution network design, hydropower system design, water supply management, dam analysis and design, drainage and canal design, environmental impact assessment. |
A. S. Aremu | Reader B.Eng. (Ado-Ekiti); M.Sc. (Ibadan); Ph.D. (Ilorin); PGD Comp. Sci.(Ilorin); R. Engr. (Nigeria) | Water Resources Modelling and Solid Waste Management. |
S.O. Bilewu | Reader B. Eng. (ABU, Zaria); M.Eng., Ph.D. (Ilorin); R.Engr. (Nigeria) | Water Treatment and Wastewater disposal. Public Health Engineering |
O. G. Okeola | Senior Lecturer B. Eng., M. Eng., Ph.D. (Ilorin); R. Engr. (Nigeria) | Water Resources System management, urban water supply management, water supply infrastructure, and new evolving interest: Water Energy Food Nexus (WEF). |
O.O. Olofintoye | Senior Lecturer B.Eng., M.Eng. (Ilorin); Ph.D. (Durban). R.Engr. (Nigeria) | Artificial Intelligence, Water Resources and Environmental Engineering. |
T. A. Abdulkadri | Senior Lecturer | Hydrology, Remote Sensing, GIS, |
B.Eng., M.Sc., Ph.D. (Perak) | Watershed Management | |
Olubunmi A. Mokuolu | Senior Lecturer B.Eng., M.Eng., (Ilorin), Ph.D.(Ibadan); R.Engr. (Nigeria) | Water Resources, Environmental Engineering and Environmental Health Engineering |
*O. A. Lasode | Professor B. Eng., M. Eng., Ph.D. (Ilorin); R. Engr. (Nigeria) | Computational Fluid Dynamics, Fluid Machinery Operations and Maintenance, Convective Heat and Mass Transfer, Thermo fluids, and Rotating systems / Energy Studies, |
*I. K. Adegun | Professor B. Eng., M. Eng., Ph.D. (Ilorin); R. Engr. (Nigeria) | Thermo fluids Engineering |
*K. A. Adeniran | Professor B. Sc., M. Sc., Ph.D. (Ibadan); R. Engr. (Nigeria) | Hydraulics and Hydraulic structures, Irrigation and Drainage Engineering |
*I. P. Ifabiyi | Professor B.Sc. (ABU, Zaria), M.Sc. (OAU); Ph.D. (Ilorin) | Hydrology, Climate impact, Environmental studies and GIS Application |
*R.O. Yusuf | Professor B. Sc. (Lagos); M. Sc. (OAU); Ph.D. (Johor Bahru); R. Engr. (Nigeria) | Environmental Engineering (Water Quality Monitoring, Water and Wastewater Treatment, Water Chemistry & Pollution Studies) |
*O.O. Ige | Reader B. Sc., M.Sc., Ph.D. (Ilorin); Pg CASAP (Newcastle) | Environmental Engineering and Hydrogeology |
*Rasheedat M. Mahamood | Reader B.Eng. (FUT, Minna); M. Eng. (Ilorin); Ph.D. (Johannesburg); R. Engr (Nigeria) | Laser Material Processing, Renewable Energy materials development, Additive Manufacturing/3D printing and Material Characterization, |
*Lecturers from other Departments
B. Introduction
The Master of Engineering programme in Civil Engineering develops highly skilled professionals for the industry, public, private and international organizations, as well as for teaching and research in tertiary Institutions and for global competitiveness. It also accords the engineer the opportunity to apply recent technological developments to the solution of emerging Civil Engineering problems. It is structured so that the student can attain academic mastery in any of the areas of study within the Civil Engineering disciplines. The M.Eng. degree in Civil Engineering has the following areas of specialisation: Geotechnical Engineering, Structural and Material Engineering, Transportation Engineering and Highways Materials, Water Resources and Environmental Engineering.
C. Philosophy
The philosophy of M.Eng. Civil Engineering is the production of graduates with high academic, ethical standard and adequate practical background for self-employment as well as value to industry and the
community. The highly skilled professionals produced will be useful for the public, private and international organizations, as well as for teaching and research in tertiary Institutions.
D. Aim and Objectives
The aim of the programme is to enhance the theoretical and practical knowledge base of the students as well as their competitive skills for achievement of the programme objectives which are to:
E. Admission Requirements
The criteria for admission into the programme are as follows:
F. Duration of the Programme
G. Detailed Course Description
CVE 801 Computational Methods I 2 Credits
Modern numerical techniques for solving civil engineering problems; Efficiency and Stability of techniques, solution of linear systems; Non-linear Algebraic equations, Numerical integrations, ordinary and partial Differential equations; Eigen-value problems. 30h (T);C
CVE 802 Computational Methods II 2 Credits
Conceptual, theoretical and practical bases for finite difference and finite element analysis in structural mechanics, hydraulics, hydrology and transportation engineering; Development of one, two and three dimensional elements. 30h(T);C
CVE 803 Probabilistic Analysis in Engineering System 2 Credits
An in-depth discussion of probability, statistical analysis, and decision theory with engineering applications. Additional emphasis on common statistics existing in practice: problems in transportation, urban and environmental systems, water resources and engineering economics. Design of experiments. 30(T); E
CVE 804 Computer Application 2 Credits
Identifying computer as a tool for engineering analysis and design for simple and complex engineering systems. Review of programming languages with in-depth knowledge of one of the languages. Mini project integrating programming with drafting on computer, solution to a problem in any one or more field of civil engineering. Computer applications in structural engineering, water and wastewater engineering, highway engineering, hydraulics engineering, surveying and other fields of Civil Engineering. 15(T); 45h(P); C
CVE 805 Graduate Seminar 1 Credit
Each student is required to give, at least, one seminar on approved topic in his/her area of option. The oral presentation must be graded by academic staff in the Department. 45(P); C
CVE 806 Operation Research Techniques 2 Credits
Linear programming techniques, Dynamic, and non-liner programming Techniques. Network Analysis, Optimization techniques, simulation and modern decision analysis. Queuing theories: eMulti Criteria Analysis (MCA), Analytical Hierarchy Programmes Process (AHP) etc. 30h(T); E
CVE 839 Dissertation 6 Credits
An independent research work under an academic supervisor, with the approval of the Department. A technical programme and final report must be prepared and presented. 270h (P); C
CVG 807 Soil Properties and Behaviour 3 Credits
Clay mineralogical study by X-ray and differential thermal analysis of soils. The engineering properties of soils as related to the clay mineral present, the chemistry of the pore fluid and the fabric of the soil as derived from its environment of deposition (emphasis is placed on selection parameters for design purposes). Effective stress and geologic history in relation to compressibility, consolidation, permeability, pore pressure changes and shear resistance. Consideration of die influence Ofin-silu stresses and sampling on soil behaviour and to settlement estimates, soil stabilization. 45h(T); C
CVG 808 Advanced Foundation Engineering 3 Credits
Analysis, design and construction of foundation for buildings, bridges and other structures including excavation, footings, pilling, caissons, retaining walls, sheet pile bulkheads, tunnels, piles, embankments, earth/fill and rock fill dams including seepage, dewatering and grouting. Field measurement and control. Foundations subjected to dynamic forces. 45h (T); C
CVG 809 Earth Structures and Slope Stability 2 Credits
The choice of type of dam, design, construction and control of dams, embankment and slopes. Principles of dam design, exploration, construction and materials, foundation treatment, stability analysis, deformation prediction, groundwater control, construction procedures. 30h(T); C
CVG 810 Tropical Soils in Engineering Practice 2 Credits
Geotechnical properties and behaviour of lateritic soils, black cotton soils, recently deposited organic soils, deep organic clay stratum, Sokoto soft clay shales, and fadama soils. Groundwater level and erosion problems. Engineering and geological applications and introduction to pavement design for tropical soils. 30h(T); C
CVG 811 Earthworks, Design and Performance 2 Credits
Machinery for earthworks performance. Site investigation (and soil classification applied to highway construction), economic aspect of earthworks design. Suitability of soil for fill, earthworks specifications. Mass haul diagram, control of compaction, effect of weather and drainage during construction. Design of cutting land embankment, slopes, reinforced earth construction. Erosion control, drainage, grazing, problems of partial saturation. 30h(T);E
CVG 812 Advanced Engineering Geology 2 Credits
Aspect of geology that have an important bearing on the engineering behaviour of natural materials. Geologic factors: the effects of lithology, weathering, faulting, joining, and sub-surface water on the deformational strength and permeability characteristics of natural materials. Case studies in building and engineering construction , foundations, tunnels, dams, and flood control works. 30h (T); E
CVG 813 Earth Pressure and Retaining Structures 3 Credits
Prediction and measurement of earth pressures, choice of design and construction of retaining structures. Earth pressure consideration as problem of shear resistance, review of theories and measurements. Influence of geologic factors and groundwater pressure, changes of pressure with time and deformation. Sheeted excavations, retaining walls cellular cofferdams, soils and tunnels. Initial and long term stability of earth retaining structures. Stability of strutted excavations. 45h(T);E
CVG 814 Rock Mechanics 2 Credits
Rocks as a material, elasticity, and strength of rock, linear elasticity, laboratory testing of rocks. The effects of size and stress gradient on strength. Fluid pressure and flow in rocks. Crack phenomena and the mechanisms of fracture. The state of stress underground. Underground measurements, geological applications, mining and other engineering. 30h(T); C
CVG 815 Site Investigation and Introduction to Geophysical Methods 2 Credits
General objectives of site investigation, feasibility surveying; field and laboratory methods, equipment administration and report writing. Geophysical methods of exploration used in engineering practice. 30h(T); C
CVG 816 Soil Dynamics 2 Credits
Free and forced harmonic vibrations; elastic waves in soils, seismic methods of soil exploration, motion of soil subjected to harmonic ground motion, seismic resistance of earth dams, foundation vibration; soil properties under dynamic loading. 30h(T); E
CVS 807 Behaviour and Design of Reinforced Concrete Structures 3 Credits
Behaviour and strength of reinforced concrete members subjected to flexure; compression, and flexure including biaxial bending shear, torsion; bond and anchorage; deep beams, slender columns service-ability. Design concepts and procedures for reinforced concrete frames and shear in accordance with BS 8110, ACI 318, CEB and other codes as appropriate. 45h(T); C
CVS 808 Advanced Structural Analysis 3 Credits
Topology and determinacy; static and kinematic determinacy; flexibility and stiffness methods applied to analysis of beams, grids plane space/frames etc. (emphasis on electronic computations). 45h(T); C
CVS 809 Behaviour and Design of Steel Structures 2 Credits
Behaviour and strength of structural steel members, connection and structure subjected to different types of loading-axial, flexure, combined axial and flexure torsion. The significance of tills behaviour: design and development of design specifications. Instability, lateral and torsional buckling problems. Fatigue and fracture problems. Design concepts and procedures for structural steel components and structures in accordance with BS 5950; AISC and other relevant codes of practice. Composite steel-concrete design and construction. 30h(T); C
CVS 810 Plastic Analysis and Design 2 Credits
Inelastic behaviour of steel and concrete structures; simple plastic theory; concepts of plastic lunge, collapse configuration and analysis of collapse mechanisms; deflections sliakedown. Plastic design. Yield line and strip method for slabs. 30h(T); E
CVS 811 Structural Dynamics and Stability 2 Credits
Introduction to the analysis of the dynamics and stability of Civil Engineering structures. Dynamic response of structures and components to transient loads and foundation excitation, vibrations of single and multi-degree-of freedom systems, stability of columns; buckling of beams, frames, plates and plate-like structures ( Lateral and torsional buckling problems). 30h(T); C
CVS 812 Behaviour and Design of Prestressed Concrete Structures 2 Credits
Principles of pre-stressing: methods of linear prestressing, analysis and design of prestressed concrete members. Flexure, shear, bond and anchorage zone design. Serviceability; fatigue strength; prestress losses; initial and time dependent deformation. Partial pre-stressing: post-tensioning; typical structures, bridges, composite beams/slab structures, etc 30h(T); E
CVS 813 Concrete Materials 2 Credits
Properties and methods of testing cements, aggregates, water admixture. Concrete mix design: properties of fresh and hardened concrete, methods of testing evaluation. New developments in concrete technology: admixtures; special cements, waste and other non- standard materials as aggregates; specification and quality control. Special purpose concrete such as lightweight; heavy weight, high strength, refractory, polymer impregnated, fibre reinforced and gap graded. Ferrocement properties and application. 30h(T); C
CVS 814 Theory of Plates and Shells 2 Credits
Fundamentals of practical plate and shell theory, differential geometry of surfaces, membranes, bending theory of plates and shells, analysis and design of cylindrical shells, polygonal domes and paraboloids. 30h(T); E
CVS 815 Timber Structures 2 Credits
Basic properties, utilization and preservation of timber, structural properties of timber. Timber tension members, beams and columns. Glue laminated timber design connections. Special timber structural systems. 30h(T); E
CVS 816 Fracture Behaviour of Materials 2 Credits
Brittle fracture-incidences; Griffith theory; ductile fracture mechanisms, effects of temperature and strain rate, criterion and theories. Fatigue fracture. Fundamentals of fracture mechanics theory. Energy and stress-intensity approaches to fracture. Crack nucleation and propagation mechanisms. Cyclic and fatigue behaviour. 30h(T); E
CVS 817 Probabilistic Based Structural Analysis and Design 2 Credits
Probabilistic niodds for load; load combinations and strength of members and structural systems. Structural reliability and safety of structures and foundations under dynamic loads. 30h (T); E
CVS 818 Optimization in Structural Design 2 Credits
Design of minimum weight or cost structures; Full- stressed design of structures; optimal design, uniform failure principle, classical minimization procedures and mathematical programming; comparative study of optimization techniques. 30h(T); E
CVS 819 Theory of Elasticity 2 Credits
Introduction to the mathematical theory of elasticity. Analysis of stress, principal stresses and axes, invariables, stress deviators, equations of equilibrium. Plane stress and strain (extension, torsion and beam flexure). Stress concentrations, contact stresses. Curvilinear coordinates. Energy principles and applications. 30h (T);E
CVS 820 Applied Structural Mechanics 2 Credits
Discussion of basic methods of structural mechanics such as conditions of equilibrium and compatibility, stress-strain relations and minimum principles with application to unsymmetrical and curved beam, thick-walled pressure vessel, torsion of non-circular sections and other selected problems in stress analysis. 30h(T); E
CVS 821 Finite Element Methods 2 Credits
Introduction to finite element theory, shape functions, isoperimetric element and numerical interpretation, plane stress and plane strain problems, Axisymmetric solid, Mindlin/Reissner and Kirchoff plates, 3 D solid, Mesh generation. Application of finite element methods to beams, trusses, plates, shells and solids. 30h(T);E
CVS 822 Structural Engineering Concept and Design 2 Credits
Total scope of an engineering project, nature of loads, probabilistic determination of design loads. Structural integrity and safety. Structural system selection for buildings and bridges. Approximate analysis. Planning and detailed design of complete structures, such as buildings, bridges, in-situ concrete and/ or steel. Computer aided design of structures. 30h (T); C
CVT 807 Highway Materials 3 Credits
Performance characteristics of soils, bituminous materials and other materials used for roadways. Methods of testing and improving roadway materials and analysis of roadway mixes. New and emerging and recycling materials in highways. 30h(T); 45h(P); C
CVT 808 Geometric Design 3 Credits
Functional classification of highways. Geometric design criteria and elements. Analysis of geometric design consistency. Design of different classes of highways, interchanges, at– grade intersections (two or more levels). Pedestrians and urban – mass transit facilities. 45h (T); C
CVT 809 Pavement Analysis and Design 3 Credits
Types of pavements and their characteristics. In – depth analysis of factors which affect the performance of highway and airport pavements. Pavement performance evaluation techniques. Design methods of flexible and rigid pavements. Pavement maintenance techniques and management including maintenance management system. 45h (T); C
CVT 810 Public Transportation Planning 2 Credits
Planning and design of urban mass transportation system such as rapid rail and light rail transit, commuter rail – road, bus transit and inter – city public transportation (air, rail and bus,). Elements to be studied included the vehicle and the systems characteristics in terms of operations, performance and the geometric and structural attributes (with local examples). New developments in high speed ground transportation. 30h (T); E
CVT 811 Traffic Flow Theory 2 Credits
Measurements of flow, speed and concentration. Statistical distributions of traffic characteristics. Traffic stream models based on car – following, hydrodynamic Kinetic and queuing theories, Traffic simulation. 30h (T); E
CVT 812 Transportation Engineering Practical 3 Credits
Testing of bituminous and stabilized mixture. Marshall and construction control test. Determination of vehicular, human and traffic characteristics for urban traffic management.
CVT 813 Traffic Systems Analysis and Design 3 Credits
Review of theoretical techniques for describing traffic flow. Methods of determining traffic flow parameters. Capacity and performance characteristics of highways, operations and control of intersections and inter-changes. 45h (T); C
CVT 814 Remote Sensing of the Environment 2 Credits
Principle, characteristics and applications of remote sensing to the environment; emphasis on air – borne remote sensing of the earth‘s environment. 30h(T);E
CVT 815 Planning and Design of Airports 3 Credits
Air transportation and aircraft characteristics. Fundamental notions and terms in airport planning and design. International classification of airports. Airports location. Airside and Yandside planning, geometric design of runways, taxiways, apron. Principles of air terminal design. Maintenance and drainage of runways and taxiways. 45h(T); E
CVT 816 Railway Engineering 2 Credits
Classification of railways, rail vehicle and traffic characteristics. Railway location and materials. Design, operation and control of rail systems. Railway maintenance. 30h(T); E
CVT 817 Design of Traffic Control Schemes 2 Credits
Design of signalisation programs for different purposes on isolated road section. Design of area – wide traffic congestion relief schemes. 30h(T); E
CVT 818 Special Application of Air Photo Interpretation and Photogrammetry 2 Credits
Applications of air photo interpretation: soil and geological mapping in areas of both unconsolidated and consolidated materials, locations of highways and thickness of overburden and predictions of underlying strata, drainage area studies, study of lateritic areas, detection of landslides and solidification. Remote sensing, including infrared and radar, detection of water and air, pollution, erosion and deposition studies along lake shores, land use classifications. 30h(T); E
CVT 819 Urban Regional Transportation Planning 2 Credits
This course is intended to introduce students to the fundamental elements of transportation planning process, trip generations, trip distributions, modal split and trip assignment models. Emphasis will also be placed on applications. 30h (T); C
CVT 820 Planning and Design of Harbours and Seaports 2 Credits
Types of harbours and seaports. Water transportation and ship characteristics. Fundamental notions and terms in harbour and port planning and design. Harbour and port site selection and layout . Data collection and analysis for port planning and design. Hydrographic surveys, soil investigation, current and tidal studies. Harbour protection. Mooring structures and appurtenances. Port buildings and cargo handling Marine navigation. 30h (T); E
CVW 807 Environmental Health Engineering 2 Credits
Environment contaminants: sources, and effect on human and other Biota. Air quality (health considerations and management). Radio, logical waste and their control. Noise sources, health considerations and control techniques. 30h(T); E
CVW 808 Advanced Water and Wastewater Engineering 3 Credits
Advanced work and laboratory evaluation for the design of physical, chemical and biological unit operations and processes in water and wastewater treatment. Treatability studies for the purpose of designing treatment systems. 45h (T); C
CVW 809 Surface Water Hydrology 2 Credits
Precipitation, runoff measurement and analysis, infiltration. Base flows, evaporation energy – budget; aerodynamic methods, hydrographic analysis, peak flows, flood routing, mathematical modelling, statistical methods. 30h(T); C
CVW 810 Water Quality Management Models 2 Credits
Concepts, rationale, theory, institutions and engineering aspects of water quality management. Methods of water quality management. Oxygen, chemical and microbial models, natural and induced reaeration techniques, thermal pollution. 30h(T); E
CVW 811 Groundwater Hydrology 2 Credits
Regional flow of groundwater including review of the principles of flow through porous media. The analysis of groundwater flow, hydraulics of wells, methods of estimation of groundwater runoff, coefficients of precipitation and stream discharge. Static yield. 30h(T); C
CVW 812 Hydraulic Structures 2 Credits
The hydraulic design of water handling structures used for retention, conveyance, control, regulation, and energy dissipation in drainage, navigation, flood control and other Civil Engineering schemes, Canals-lined, unlined, grass. Dams, concrete, earth, rock, spill ways, stilting basin, etc. 30h (T); E
CVW 813 Irrigation and Drainage 3 Credits
Introduction to irrigation practice in humid and arid regions, soil – plant – water treatment salinity and water quality, irrigation water application (surface, sprinkler and sub – irrigation). Use and distribution water management and efficiency. Sources of drainage problems, surface drainage systems; soil erosion and soil conservation practices.
CVW 814 Water Resources Systems Planning and Analysis 2 Credits
Application of probability and statistical theory, operations research, and economics to the planning, design and operation of water projects, multi – objective analysis, sequential optimization, human factors and environmental objectives, trade – off analysis and modelling techniques as applied to water resources. 30h (T); C
CVW 815 Rural Sanitation 2 Credits
Appropriate technology (low – cost) for water supply and sanitation in rural settlements and small communities. Planning water and sanitation programmes, community participation. Health education and training. 30h(T); E
CVW 816 Water Chemistry 2 Credits
Elements in fresh and marine water chemistry; acid-base precipitation, complexation, oxidation – reduction, absorption and bio–chemical reactions in natural waters, and water treatment processes. 30h (T); C
CVW 817 Industrial Waste Engineering 2 Credits
Characteristics of Industrial waste, sampling and methods of analysis, treatment and disposal. Water reclamation and re–use regulations. 30h (T); E
CVW 818 Solid Wastes Engineering 2 Credits
Detailed engineering and management considerations related to the design and operation of solid wastes collection and disposal system, solid wastes survey, systems approach design, design of land disposal operation; incinerations evaluations and design; composing etc. 30h(T); E
CVW 819 Hydrogeology 2 Credits
Factors controlling occurrence and distribution of groundwater resources, its quality and quantity; methods of exploration and development. Evaluation of groundwater resources development programmes in humid zone environments. Water prospecting methods– geophysical, geological and sub–surface. Field surveys of groundwater and use of hydrological maps. 30h(T); E
CVW 820 Stochastic Hydrology 2 Credits
Basics of stochastic hydrology modelling, statistic techniques for modelling stochastic processes; drought and flood frequency estimation; uncertainty analysis, parameter estimation in dynamic systems; analysis of simulation methods and output. 30h(T); E
CVW 821 Advanced Fluid Mechanics 2 Credits
Basic conservation laws, Navier – stoke equations, flow kinematics, special forms of governing, equations, viscous flows of incompressible fluids, boundary flow layers; Multi– dimensional flows. 30h (T); E
CVW 822 Unsteady Flows in Pipes and Channels 2 Credits
Solution of unsteady flow equations for water hammer and surge problems by Graphical and numerical methods. Application to pipes with valves, pumps and turbines and to open channels with varying channel shape and end conditions. 30h(T); E
H. Graduation Requirement
A minimum of 33 credits are required for graduation.
I. Summary (List of Core and Elective Courses to pass to graduate)
i. M. Eng. Civil (Geotechnical Engineering) Core Courses:
CVE 801 (2), CVE 802 (2), CVE 804 (2), CVE 805 (1), CVE 839 (6), CVG807 (3), CVG 808 (3), CVG 809 (2), CVG 810 (2), CVG 813 (3), CVG 814(2) and CVG 815 (2) = 27 Credits
Elective-Courses
At least 6 Credits from any of the following = 6 Credits
CVE 803(2), CVE 806 (2), CVG 811 (2), CVG 812 (2) and CVG 816 (2)
ii. M. Eng. Civil(Structural & Material Engineering) Core Courses:
CVE 801 (2), CVE 802 (2), CVE 804 (2), CVE 805 (1), CVE 839 (6), CVS 807 (3), CVS
808 (3), CVG 808 (3), CVS 809 (2), CVS 811 (2), CVS 813 (2), CVS 822(2)
= 30 Credits
Elective Courses:
At least 4 Credits from any of the following = 4 Credits
CVE 803(2), CVE 806 (2), CVS 810 (2), CVS 812 (2), CVS 814 (2), CVS 815 (2),CVS816 (2), CVS 817 (2), CVS 818 (2), CVS 819 (2), CVS 820 (2), CVS821 (2)
iii. M. Eng. Civil (Transportation Engineering and Highway Materials) Core courses:
CVE 801 (2), CVE 802 (2), CVE 804 (2), CVE 805 (1), CVE 839 (6),
CVT 807 (3), CVT 808 (3), CVT 809 (3), CVT 812 (3), CVT 813(3), and CVT 819 (2)
= 30 Credits
Elective Courses:
At least 3 Credits from any of the followings = 3 Credits
CVE 803 (2), CVE 806 (2), CVT 810 (2), CVT 811 (2), CVT 814 (2), CVT 815 (3), CVT 816 (2), CVT 817 (2), CVT 818 (2), CVT 820 (2)
iv. M. Eng. Civil (Water Resources and Environmental Engineering) Core Courses:
CVE 801 (2), CVE 802 (2), CVE 804 (2), CVE 805 (1), CVE 839 (6), CVW 808 (3), CVW
809 (2), CVW 811 (2), CVW 813(3), CVW 814 (2) and CVW 816 (2)
=27 Credits
Elective Courses:
At least 5 credits from any of the followings = 6 Credits
CVE 803 (2), CVE 806 (2), CVW 807 (2), CVW 810 (2), CVW 812(2), CVW 815(2), CVW
817(2), CVW 818 (2), CVW 819 (2), CVW 820 (2), CVW 821(2) and CVW 822 (2)