
Civil Engineering Course
Master the full spectrum of civil engineering — from structural mechanics and geotechnical analysis to transportation design and construction management. This course delivers the technical depth and practical tools professionals need to tackle real infrastructure challenges. Build a career-ready skill set grounded in industry standards and proven engineering principles.
What you will learn:
This course covers the core disciplines of civil engineering, including mechanics of materials, structural analysis, geotechnical engineering, fluid mechanics, and transportation design. You will learn to analyze and design structural members, evaluate soil conditions, and apply hydraulic principles to drainage and water distribution systems. The curriculum also addresses construction project scheduling, cost estimating, and contract administration. Supplementary modules introduce BIM workflows, environmental engineering, hydrology, and infrastructure asset management. By the end, you will have the technical knowledge to contribute to real civil engineering projects with confidence.
How you study in practice Civil Engineering Course
How you practice Civil Engineering Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course Content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Civil Engineering
Foundations of Civil Engineering
Lesson 1 • Engineering Drawing and Drafting Basics
Covers orthographic projection, plan and section views, and standard drawing conventions. Enables students to read and produce basic construction documents.
Lesson 2 • History and Scope of Civil Engineering
Traces civil engineering from ancient infrastructure to modern practice. Connects historical milestones to current sub-disciplines and professional responsibilities.
Lesson 3 • Introduction to Engineering Materials
Surveys concrete, steel, timber, and soil as structural materials. Links material properties to selection criteria used throughout the course.
Lesson 4 • Units, Measurements, and Engineering Notation
Introduces SI and customary unit systems, dimensional analysis, and significant figures. Provides the numerical literacy required for all subsequent technical calculations.
Lesson 5 • The Engineering Design Process
Presents the iterative design cycle from problem definition through evaluation. Establishes a systematic framework applied in every subsequent chapter.
Chapter 2HideHide detailsSee detailsEngineering Mechanics and Statics
Engineering Mechanics and Statics
Lesson 1 • Centroids, Moments of Inertia, and Distributed Loads
Calculates centroids and second moments of area for common cross-sections. Applies distributed load resultants to beam and slab problems.
Lesson 2 • Equilibrium of Particles and Rigid Bodies
Applies Newton's first law to particles and extended bodies in two and three dimensions. Introduces support reactions and constraint conditions.
Lesson 3 • Friction and Its Engineering Applications
Introduces Coulomb friction theory and applies it to wedges, screws, and belt drives. Connects friction analysis to practical civil engineering scenarios.
Lesson 4 • Trusses and Frames
Analyzes pin-jointed trusses using the method of joints and method of sections. Extends analysis to frames with multi-force members.
Lesson 5 • Forces, Vectors, and Resultants
Defines force as a vector quantity and applies vector addition graphically and analytically. Builds the mathematical toolkit for all equilibrium problems.
Chapter 3HideHide detailsSee detailsMechanics of Materials
Mechanics of Materials
Lesson 1 • Bending and Shear Stresses in Beams
Derives the flexure formula and shear stress distribution for symmetric cross-sections. Applies results to beam design and material selection.
Lesson 2 • Axial Load and Deformation
Analyzes members under direct axial tension and compression, including statically indeterminate cases. Introduces thermal effects and stress concentrations.
Lesson 3 • Deflection, Torsion, and Combined Loading
Calculates beam deflections using integration and superposition methods, and analyzes circular shafts under torsion. Combines multiple load effects using superposition.
Lesson 4 • Stress, Strain, and Material Behavior
Defines normal and shear stress and strain, and introduces the stress-strain diagram. Establishes elastic, plastic, and failure behavior for engineering materials.
Lesson 5 • Shear Force and Bending Moment Diagrams
Constructs shear and moment diagrams for beams under various loading conditions. Provides the foundation for flexural and shear stress calculations.
Chapter 4HideHide detailsSee detailsStructural Analysis and Design
Structural Analysis and Design
Lesson 1 • Structural Loads and Load Combinations
Identifies dead, live, wind, seismic, and snow loads and combines them per standard load-combination formats. Prepares students for realistic design scenarios.
Lesson 2 • Steel Structural Member Design
Covers tension members, compact beams, and bolted and welded connections using allowable-stress and load-resistance approaches. Applies to common steel framing systems.
Lesson 3 • Determinate and Indeterminate Structures
Classifies structures by degree of static determinacy and introduces compatibility methods. Establishes when advanced analysis techniques are required.
Lesson 4 • Column Design and Stability
Analyzes short and slender columns under axial load and combined bending. Introduces Euler buckling theory and effective length concepts.
Lesson 5 • Beam and Slab Design Principles
Applies limit-state design philosophy to reinforced concrete beams and one-way slabs. Covers flexural reinforcement sizing and serviceability checks.
Chapter 5HideHide detailsSee detailsGeotechnical Engineering Fundamentals
Geotechnical Engineering Fundamentals
Lesson 1 • Permeability and Seepage Analysis
Introduces Darcy's law, laboratory and field permeability tests, and flow-net construction. Applies seepage analysis to dams, retaining walls, and excavations.
Lesson 2 • Consolidation and Settlement
Analyzes primary and secondary consolidation using Terzaghi's theory and oedometer test data. Predicts total and differential settlement for foundation design.
Lesson 3 • Shear Strength and Slope Stability
Determines shear strength parameters from triaxial and direct shear tests and applies them to slope stability analysis. Introduces limit equilibrium methods.
Lesson 4 • Soil Classification and Index Properties
Determines grain-size distribution, Atterberg limits, and soil classification using standard systems. Provides the basis for all subsequent geotechnical analyses.
Lesson 5 • Compaction and Field Density Testing
Explains the compaction process, optimum moisture content, and laboratory and field testing methods. Connects compaction quality to embankment and subgrade performance.
Chapter 6HideHide detailsSee detailsFluid Mechanics and Hydraulics
Fluid Mechanics and Hydraulics
Lesson 1 • Open-Channel Flow Principles
Analyzes uniform and gradually varied flow in open channels using Manning's equation and specific energy concepts. Covers critical flow and hydraulic jump.
Lesson 2 • Flow Measurement and Hydraulic Structures
Covers weirs, flumes, orifices, and venturi meters for flow measurement. Introduces culvert and spillway hydraulics for infrastructure design.
Lesson 3 • Continuity, Energy, and Momentum Equations
Applies the continuity equation, Bernoulli's principle, and linear momentum to pipe and channel flows. Provides the governing equations for all hydraulic design.
Lesson 4 • Fluid Properties and Hydrostatics
Defines viscosity, density, and surface tension, and calculates hydrostatic pressure and forces on submerged surfaces. Establishes the physical basis for hydraulic analysis.
Lesson 5 • Pipe Flow and Network Analysis
Calculates head losses using Darcy-Weisbach and minor loss equations and solves simple pipe networks. Applies results to water distribution system design.
Chapter 7HideHide detailsSee detailsTransportation Engineering
Transportation Engineering
Lesson 1 • Pavement Design and Materials
Introduces flexible and rigid pavement structures, material characterization, and empirical design methods. Covers pavement distress types and maintenance strategies.
Lesson 2 • Traffic Flow Theory and Analysis
Presents fundamental traffic flow relationships among speed, density, and volume. Applies queuing theory and level-of-service concepts to roadway evaluation.
Lesson 3 • Intersection Design and Signal Control
Designs at-grade intersections and develops signal timing plans using capacity analysis. Addresses pedestrian and bicycle accommodation.
Lesson 4 • Transportation Planning and Safety
Introduces four-step travel demand modeling and road safety auditing principles. Connects planning decisions to long-term infrastructure performance.
Lesson 5 • Highway Geometric Design
Applies design speed, sight distance, horizontal alignment, and vertical curve standards to highway layout. Connects geometric elements to driver safety and comfort.
Chapter 8HideHide detailsSee detailsConstruction Management and Project Delivery
Construction Management and Project Delivery
Lesson 1 • Project Scheduling Techniques
Applies critical path method and bar charts to plan and control project timelines. Introduces resource leveling and schedule compression strategies.
Lesson 2 • Sustainability and Environmental Compliance
Integrates green building rating systems, environmental impact assessment, and waste management into project delivery. Prepares students for regulatory compliance requirements.
Lesson 3 • Contract Types and Procurement
Compares lump-sum, unit-price, and cost-plus contract formats and explains procurement processes. Addresses risk allocation between owner and contractor.
Lesson 4 • Cost Estimating and Budgeting
Covers quantity takeoff, unit-price estimating, and contingency allocation for civil projects. Connects cost control to earned value management.
Lesson 5 • Quality Control and Site Safety
Establishes quality assurance plans, inspection protocols, and occupational safety requirements for construction sites. Links quality and safety to project outcomes.
Your valid completion certificate
This course is for you:
Civil engineering students: seeking a structured bridge between coursework and real practice.
Construction technicians: ready to expand their role into engineering analysis and design.
Career changers: drawn to infrastructure work from adjacent fields like architecture or surveying.
Military veterans: transitioning from engineering corps roles into civilian infrastructure careers.
Drafters and CAD operators: aiming to understand the engineering logic behind the drawings.
Recent STEM graduates: building applied civil engineering knowledge before entering the job market.
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