Untitled - Frederick University

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The Program requires the completion of 240 ECTS credits and comprises of required courses, technical electives, free electives and general electives as specified below: ECTS Required Courses 211 Technical Electives 10 Free Electives 15 General Electives 4 TOTAL 240 Required Courses ECTS Hours Mathematics AMAT 111 Calculus and Analytic Geometry I 5 3 AMAT 122 Calculus and Analytic Geometry II 5 3 AMAT 204 Differential Equations 5 3 AMAT 223 Calculus III 5 3 AMAT 181 Linear Algebra with MATLAB 5 3 AMAT 300 Probability and Statistics 5 3 AMAT 314 Numerical Methods 5 3 Physics APHY 111 Mechanics, Heat & Waves With Laboratory 5 2+1* APHY 112 Electromagnetism and Optics with Laboratory 5 2+1* Mechanics and Structural Engineering ACES 103 Statics 5 3 ACES 212 Structural Analysis 6 3 ACES 322 Indeterminate Structures 6 3 ACES 410 Advanced Structural Analysis 5 3 ACES 401 Concrete Structures Design 5 3 ACES 402 Steel Structures Design 5 3 ACES 471 Earthquake Engineering Design 5 3 Dynamics AMEM 208 Dynamics 5+1* 3+1* ACES 450 Structural Dynamics I 5 3 Soil Mechanics and Foundations ACEG 209 Geology I 5 3 ACEG 210 Soil Mechanics I with Laboratory 6 3+1* ACEG 220 Soil Mechanics II with Laboratory 6 3+1* ACEG 434 Foundation Design 5 3 Fluid Mechanics and Hydraulics ACEH 315 Fluid Mechanics with Laboratory 6 3+1* ACEH 430 Hydraulics 6 3+1* Land Surveying ACET 108 Surveying I 6 3+1* ACET 208 Surveying II 5 3 Construction Management ACEC 220 Measurement and Costing of Works 5 3 ACEC 316 Construction Management 5 3 ACEC 438 Engineering Contracts and Specifications 5 3 Materials ACEM 116 Construction Materials I with Laboratory 6 3+1* ACEM 216 Construction Materials II 5 3 Drawing ACED 100 Construction Drawing & Detailing I 6 3+2* ACED 200 Computer Aided Design (Civil Engineering) 6 3+2* Programming ACSC 104 Programming for Engineers 5 3+1* ACES 403 Computer Methods in Civil Engineering 6 3+2* General Civil Engineering ACES 100 Introduction to Civil Engineering 2 1 ACEH 318 Environmental Engineering 5 3 ACET 314 Transportation Engineering 5 3 ACET 406 Highway Engineering 5 3 Project Work ACEP400 Senior Project 8 1+1* Technical Electives ECTS Hours ACES 480 Prestressed Concrete 5 3 ACES 490 Bridge Engineering 5 3 ACEH 418 Environmental Engineering II 5 3 ACET 450 Remote Sensing and Image Interpretation 5 2+1* AARC 301 Environment and Services I 5 3 ACEC 405 Estimating 5 3 ACES 451 Structural Dynamics II 5 3 ACEC 436 Construction Inspection 5 3 Free Electives Free Elective is a course offered by other Departments of the <strong>University</strong> for which a student is qualified to register. General Electives Students should choose one course from group A and one course from group B. ECTS Hours Group A - Cyprus Studies AECH111 Cyprus in the 20th Century 2 2 AECH101 Introduction to the History of Cyprus 2 2 Group B - Greek Language and Literature AEGL111 Modern Greek Literature 2 2 AEGL101 Introduction to Greek Language 2 2 *Laboratory Hours
Description of Courses ACES103: Statics - ECTS: 5 Upon completion of the subject students will be able to understand the basic concepts and methods for the analysis and composition of forces, of particle equilibrium, summation of forces and moments, loading configurations, the importance of the Free Body Diagram, how to handle distributed loads, beam equilibrium, joint equilibrium. Apply and use the principles of mechanics to the equilibrium of particles and beams, trusses, mechanisms, concepts of centroids and second moments of areas to the determination of properties of sections. Analyze trusses and mechanisms, and determine shear-force and bendingmoment equations for simple beam configurations. Evaluate different methods of analysis. Create structural models of real structures. ACES 212: Structural Analysis - ECTS: 6 Upon completion of the subject students will be able to understand the concepts of shear force, bending moment, slope and deflection, and their use in structural design. Apply these concepts & use consistent sign conventions in order to calculate, sketch, and write equations to describe the distributions of shearforce and bending-moment diagrams and draw bending moment and shear force diagrams. Analyze beams in order to calculate longitudinal stresses and shear stresses due to bending moment and shear force, locate points of maximum stress and calculate slopes and deflection equations giving due regard to boundary conditions. Evaluate different methods of determining shear –force and bending-moment equations as well as geometric and virtual work methods to calculate beam deformations from applied loads. Create basic beam and column designs. ACES322: Indeterminate Structures - ECTS: 6 Upon completion of the subject students will be able to: a) Differentiate between statically determinate and indeterminate stable and unstable structures. b) Understand the principle of superposition for linearly elastic structures and its importance. Apply the concepts of flexibility and stiffness, the force-method, the moment-distribution, and virtual work methods of analyzing statically indeterminate linearly elastic structures. Analyze beams, frames and trusses using the force method the moment distribution method and virtual work. Evaluate and compare different methods of analysis of indeterminate structures. Develop the methods in matrix form and create small computer algorithms for their implementation. ACES410: Advanced Structural Analysis - ECTS: 5 Upon completion of the subject students will be able to understand the concepts of stiffness-related distribution of moment and develop the formation of stiffness equations including the use of matrix notation and matrix algebra to systemize the computations of the stiffness method. Apply stiffness principles in the formulation and development of the stiffness matrix of a real structure. Analyze structures using the stiffness method for the determination of displacements and stresses. Evaluate the use of the stiffness method for the analysis of structural systems.Create stiffness and finite element models for simple linearly elastic frame structures. ACES401: Concrete Structures Design - ECTS: 5 Upon completion of the subject students will be able to understand the principles and concepts of modern design codes appropriate for different applications of reinforced concrete and relate analysis and design stages. Apply & use code provisions in the determination of loads on structures and the application of appropriate load factors in the analysis of structures, as well as design code provisions with respect to serviceability and ultimate limit states. Analyze and design beams for bending, shear and deflection, one-way and two-way slabs, columns and footings. Evaluate the analysis and design cycle. Create complete design drawings for simple beams, slabs, columns and footings. ACES402: Steel Structures Design - ECTS: 5 Upon completion of the subject students will be able to understand the principles and concepts of modern design codes appropriate for different applications of steel and relate analysis and design stages. Distinguish between working stress and LRFD. Apply & use code provisions in the determination of loads on structures and the application of appropriate load factors in the analysis of structures, as well as design code provisions with respect to serviceability and ultimate limit states. Analyze and design beams, columns, and connections. Evaluate the analysis and design cycle. Create complete design drawings for simple beams, columns and connections. ACES471: Earthquake Engineering Design - ECTS: 5 Upon completion of the subject students will be able to understand the principles and concepts of modern design codes with respect to the dynamic behavior and seismic design of structures. Apply seismic design concepts in the conceptual design of structures and decide on geometrical configurations of buildings. Analyze design spectra, and corresponding dynamic behavior of buildings and other structures Evaluate different design philosophies with respect to earthquake resistance. Create design-drawings and details of earthquake resistant members. ACES450: Structural Dynamics I - ECTS: 5 Upon completion of the subject students will be able to understand basic dynamic terms and concepts of the dynamic behavior of systems. Apply structural dynamics in the determination of the response of simple single-degree of freedom systems to dynamic loading. Analyze response spectra diagrams. Evaluate mode shapes for simple two-dimensional frames simple harmonic motion of a basic frame structure. Create dynamic analysis results for a two dimensional shear building, and algorithms for the matrix formulation of structural dynamics. ACEG209: Geology I - ECTS: 5 Upon completion of the subject students will be able to identify minerals and rocks, igneous, sedimentary, metamorphic rocks, earth surface processes, geological hazards, groundwater, plate tectonics and earthquakes and understand Cyprus ground formations and soils and main Cyprus geological hazards. Apply standard methods of rock, soil and soil-processes description. Analyze relevance of Geology to Civil Engineering. Evaluate methods and stages of site investigations. Create a field-trip-report describing rock and soil formations in Cyprus. ACEG210:Soil Mechanics I with Laboratory ECTS:6 Upon completion of the subject students will be able to describe methods of visual soil description, methods of site improvement and their suitability for different soils and situations and understand the physical nature of soil, measurement and interpretation of index properties, and concept of effective stress. Apply soil mechanics concepts and laboratory techniques in the determination of in-situ stress and stress change due to surface load, one-dimensional compression calculations, maximum dry density/ optimum moisture content. Analyze geotechnical problems by appropriately categorizing into soil-mechanics formulations. Evaluate the techniques of site improvement in different situations and the importance of site controls. Create flownet and associated seepage and pore pressure calculations, oedometer test and associated in-situ stress/stress change/settlement calculations, laboratory determination of MDD and OMC. ACEG220:Soil Mechanics II with Laboratory ECTS:6 Upon completion of the subject students will be able to describe laboratory and in-situ methods of determining soil strength, foundation types, retaining wall types and understand parameters of soil strength (Mohr-Coulomb failure criterion, apparent cohesion, drained/undrained strengths, volume changes, critical state concept). Apply soil mechanics concepts and laboratory techniques in the determination of shearbox determination of friction angle of sand, triaxial determination of shear strength of sand and a clay (undrained with measurement of pp), Analyze geotechnical problems by appropriately categorizing into soil-mechanics formulations (embedded cantilever retaining wall design, shallow foundation design). Evaluate the accuracy, precision and suitability of soil strength measurement methods in different soils, situations and applications suitability of gravity/RC cantilever/embedded cantilever retaining walls and pad/strip/raft and deep foundations on different soils and for different applications. Create foundation and retaining wall designs calculations and drawings. ACEG434: Foundation Design - ECTS: 5 Upon completion of the subject students will be able to identify methods of site investigation, foundation and retaining wall types and understand the geotechnical design process from site investigation, interpretation, design and monitoring. Apply design techniques for shallow foundations with complex loads, RC cantilever and gravity retaining walls. Analyze site investigation data for the selection of appropriate shallow and deep foundation types or retaining wall types and calculation of factors of safety on stability for complex cases. Evaluate degree of certainty and hence degree of conservatism, need for further investigation, need for monitoring. Create design calculations for shallow foundation with complex loads and soil conditions, RC cantilever and gravity retaining wall. ACEH315: Fluid Mechanics with Laboratory ECTS: 6 Upon completion of the subject students will be able to identify Properties of fluids and understand concepts and principles of Fluid statics and fluid-motion, continuity equation, Bernouli equation Momentum equation. Apply fluid mechanics basic principles and laboratory techniques in the determination of fluid parameters and effects. Analyze forces on submerged surfaces and become familiar with the principles involved in fluid motion such as continuity and momentum for providing solutions to fluid problems. Evaluate various case studies. Create preliminary hydraulic designs. ACEH430: Hydraulics - ECTS: 6 Upon completion of the subject students will be able to identify basic hydraulic principles and understand laminar and turbulent flow in pipes, Dimensional analysis, Open-channel flow. Apply hydraulic principles to solve civil engineering problems and use dimensional analysis, to simulate engineering problems. Analyze pipe flow, laminar and turbulent flow in pipes. Evaluate water distribution systems. Create hydraulic designs. ACET108: Surveying 1 - ECTS: 6 Upon completion of the subject students will be able to identify branches of surveying – general principles of surveying –types of surveys-importance of surveying-survey of Cyprus – scales of maps and plans andunderstand measurement concepts and methods for distance measurements, principles of GPS, and angular measurements. Apply measurement and leveling principles in the surveying and mapping of areas, the determination of sections and for creating contours. Analyze practical results found from a series of practical exercices related with the use of leveling, optical square, theodolite. Evaluate experimental results obtained from GPS measurements and leveling exercises. Create plans of topographical survey for engineering development; plans, designs for setting out engineering works ACET208: Surveying II - ECTS: 5 Upon completion of the subject students will be able to identify instruments for angular measurements “Theodolite” and understand the concepts and principles for the determination of areas and volumes for several civil engineering projects, Setting out a vertical curve, Tacheometry, Traverse Surveys and Computations, Basic geodesy, the theory of the GPS satellite system and the use of the system for surveying and setting out purposes and GIS, Satellite Remote Sensing and Photogrammetry principles. Apply using areas and volumes principles for determining earthworks in several civil engineering projects and using Mass Haul Diagrams for determining costs in earthworks. Analyze practical results found from a series of practical exercices related with the use of total station for closed traverses. Experimental results obtained from total station measurements, laser level measurements -case studies from the use of GIS and satellite remote sensing for several civil engineering projects.Plan photogrammetric flight missions, determine flight plan for mapping purposes. ACEC220: Measurement & Costing of Works - ECTS: 5 Upon completion of the subject students will be able to identify methods of measurement and understand the general principles of measurement. Apply measurement procedures and mensuration applications. Analyze different measurement methods. Evaluate the advantages and disadvantages of different measurement methods. Create measurements for Groundwork and Foundations, Brick and Block Walling Fires, Flues, Vents and Stone Walling, Floors and Partitions ,Pitched and Flat Roofs, Internal Finishes, Windows, Doors, Staircases and Fittings, Bill Preparation and Production ACEC316: Construction Management - ECTS: 5 Upon completion of the subject students will be able to identify critical path networks and resource allocation; quality assurance, health and safety and codes of practice and understand aspects of civil engineering management. Apply knowledge of the above top-
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