Civil Engineering

This course introduces the classical methods of analysis for statically indeterminate structures, especially structures comprising line elements, namely beam, truss, and frame structures. It firstly extends from earlier structural mechanics knowledge on deflection of beams to the general analysis of deflections in statically determinate structures, with an emphasis on the method of virtual work. This is followed by the analysis of indeterminate structures using the force method (flexibility method); analysis of indeterminate structures using the displacement method, including the slope-deflection method and moment distribution method. It then proceeds to the matrix stiffness method for structural analysis using the direct stiffness approach, and the general aspects of structural modelling and computer analysis. The course provides a comprehensive cover of the fundamental principles, analysis techniques and practical skills that are required in modern structural analysis applications. 

This course examines engineering hydrology and its application in water resources management and flood estimation. Topics discussed include hydrological cycle, climatology, atmospheric circulation, meteorological measurements, precipitation, streamflow measurement, runoff components, hydrograph analysis, loss rates, IFD and design  storm hyetographs, flood frequency analysis, unit hydrographs concepts and linear reservoir method, groundwater, hydraulic conductivity, Darcy's law, intrinsic permeability, water potential, hydraulic head, unsaturated zone, aquifers, aquicludes, aquitards, steady state flow, transient flow, effective stress, transmissitivity, storativity, pump test interpretation.

This course introduces the dynamics of particles and rigid bodies, focusing on kinematics and kinetics. The course explores motion characteristics, force applications, and analytical methods in the contexts of engineering applications, such as rigid body movements. This course serves as a cornerstone for learning advanced civil engineering dynamics, and the course materials integrate theoretical principles with practical applications. 

Course Prerequisite: Calculus  

This course examines the implications of a finite biosphere and the complexities inherent in environmental decision-making.

In this course, the issues of water quality and water and wastewater treatment systems are examined. Advanced physical and chemical technologies, as well as bioengineering processes for water and wastewater treatment are introduced and studied. Emphasis is on state of the art solutions to tackle global challenges regarding water and wastewater treatment systems operation and effectiveness.

This course introduces soil mechanics and engineering geology for geotechnical engineering applications such as foundations, rail construction, and tunnels. It considers the fundamental mechanics of soils as a heterogeneous mixture of air, water, and solid particles and the origin of these materials from their parent rocks. It analyses the deformation of natural and man-made structures that comprise or are built upon soil, and the flow of fluids within them. It develops an understanding of how the fundamental principles of geological sciences influence the design and construction of engineering structures.
 

BIM (Building Information Modeling) is an emerging technology that employs digital information models in the virtual space to achieve better quality and efficiency of construction and management work throughout lifecycle of a facility. Through lectures and case studies, this course is designed to teach students the knowledge of BIM Technology and its development and application potential. 

The purpose of the course is for students to understand and analyze basic fluid mechanics problems through their conceptual approach, an analytical formulation, applying the laws of physics and their analytical or numerical resolution, considering concepts of vector calculus and differential equations.

This course is for engineering students intending to focus in the area of environmental engineering. The course lays a foundation for more intensive courses in later stages by introducing concepts about, among other things, environmental ethics, engineering calculations, and the fundamental biological, chemical, and physical processes used in environmental engineering. Applications of these concepts to developing engineering solutions for several contemporary environmental problems are also examined.

This is a special studies course involving an internship with a corporate, public, governmental, or private organization, arranged with the Study Center Director or Liaison Officer. Specific internships vary each term and are described on a special study project form for each student. A substantial paper or series of reports is required. Units vary depending on the contact hours and method of assessment. The internship may be taken during one or more terms but the units cannot exceed a total of 12.0 for the year.