
Concrete Course
Master every stage of concrete work, from proportioning a mix to repairing a deteriorated structure. This course covers materials science, batching, placement, finishing, testing, and rehabilitation in one comprehensive programme. Whether you work in the field or manage construction operations, you will gain the technical knowledge to produce and maintain concrete that performs.
What you will learn:
You will learn how cement hydrates, how aggregates and admixtures affect mix performance, and how to proportion a mix that meets strength and durability requirements. The course covers batching plant operations, proper placement and consolidation techniques, and surface finishing and curing procedures. You will study field and laboratory testing methods, including compressive strength testing and non-destructive evaluation. Deterioration mechanisms such as corrosion, alkali-silica reaction, and freeze-thaw damage are explained alongside proven protective strategies. The course also covers concrete repair, from condition assessment and surface preparation to material selection and quality control.
How you study in practice Concrete Course
How you practise Concrete 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 specific needs of your company.
Course content
8 Chapters • 43 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFundamentals of Concrete as a Material
Fundamentals of Concrete as a Material
Lesson 1 • Core Ingredients and Their Functions
Identifies cement, aggregates, water, and admixtures and explains each ingredient's role. Builds the chemical and physical vocabulary used throughout all subsequent chapters.
Lesson 2 • Hydration and Strength Development
Explains the chemical reactions that transform fresh paste into hardened concrete. Links hydration stages to practical curing decisions covered in later chapters.
Lesson 3 • Hardened Concrete Properties
Introduces compressive strength, tensile capacity, elasticity, and durability of cured concrete. Provides the performance benchmarks that guide mix design and quality control.
Lesson 4 • History and Role of Concrete
Traces concrete's evolution from ancient lime mortars to modern high-performance mixes. Contextualises why concrete dominates global construction and sets motivation for the course.
Lesson 5 • Fresh Concrete Properties
Covers workability, consistency, and bleeding in freshly mixed concrete. These properties directly govern placement and finishing quality addressed in core chapters 4 and 5.
Chapter 2HideHide detailsSee detailsConcrete Mix Design Principles
Concrete Mix Design Principles
Lesson 1 • Trial Batch and Mix Adjustment
Guides students through laboratory trial batches, testing, and iterative adjustments to meet targets. Reinforces the full mix design cycle before field application in chapter 4.
Lesson 2 • Mix Design Objectives and Constraints
Defines the performance targets—strength, durability, workability—that govern every mix design decision. Frames the trade-offs between cost, sustainability, and structural requirements.
Lesson 3 • Admixture Selection and Dosing
Covers water reducers, retarders, accelerators, and air-entraining agents with dosing protocols. Correct admixture selection resolves workability and durability conflicts without excess water.
Lesson 4 • Water-Cement Ratio and Strength
Applies the water-cement ratio law to predict strength and select the ratio for a target mix. Connects this ratio to permeability and long-term durability outcomes.
Lesson 5 • Aggregate Selection and Grading
Covers sieve analysis, grading curves, and aggregate quality tests essential to mix proportioning. Proper grading reduces paste demand and improves both economy and performance.
Lesson 6 • Supplementary Cementitious Materials
Introduces fly ash, slag, silica fume, and natural pozzolans as partial cement replacements. Students calculate replacement levels and predict effects on strength development and durability.
Chapter 3HideHide detailsSee detailsConcrete Production and Batching
Concrete Production and Batching
Lesson 1 • Production Quality Control
Establishes sampling frequency, batch tickets, and statistical process control for plant output. Consistent production records form the evidence base for acceptance and dispute resolution.
Lesson 2 • Batching Plant Types and Components
Describes central-mix, transit-mix, and volumetric plants and their key mechanical components. Understanding plant type determines quality control strategies applied throughout this chapter.
Lesson 3 • Weighing and Measuring Accuracy
Covers gravimetric and volumetric batching methods and acceptable tolerance limits. Accurate measurement is the primary control point for achieving consistent mix proportions.
Lesson 4 • Mixing Equipment and Procedures
Explains drum, pan, and twin-shaft mixer types, loading sequences, and mixing time requirements. Proper mixing ensures uniform distribution of all ingredients before discharge.
Lesson 5 • Ready-Mix Delivery and Agitation
Addresses truck mixer drum speeds, maximum haul times, and water addition restrictions during transit. Delivery conditions directly affect fresh concrete properties at the point of placement.
Chapter 4HideHide detailsSee detailsConcrete Placement and Consolidation
Concrete Placement and Consolidation
Lesson 1 • Placement Techniques by Element Type
Covers specific placement strategies for slabs, walls, columns, and mass concrete pours. Each element type has unique lift heights, sequence requirements, and consolidation challenges.
Lesson 2 • External and Surface Consolidation
Introduces form vibrators, vibrating screeds, and roller compaction for thin or precast elements. These methods complement internal vibration where immersion access is limited.
Lesson 3 • Shuttering Considerations for Placement
Reviews shuttering pressure, fill rate limits, and access requirements that govern placement planning. Placement sequence must respect shuttering load capacity to prevent blowouts.
Lesson 4 • Transportation Methods and Equipment
Compares chutes, conveyors, pumps, and buckets for moving concrete from truck to shuttering. Method selection affects segregation risk and must match mix design and site conditions.
Lesson 5 • Internal Vibration for Consolidation
Teaches vibrator selection, insertion spacing, depth, and duration to fully consolidate concrete. Proper vibration eliminates honeycombing without causing segregation or over-vibration.
Chapter 5HideHide detailsSee detailsFinishing, Curing, and Protection
Finishing, Curing, and Protection
Lesson 1 • Texture and Surface Treatments
Covers broom finishing, exposed aggregate, stamping, and grinding for functional and aesthetic surfaces. Surface texture selection must meet slip resistance and wear requirements of the application.
Lesson 2 • Hot and Cold Weather Protection
Addresses evaporation control, sunshading, and heating enclosures to protect concrete in extreme temperatures. Temperature extremes during early hydration permanently reduce strength and durability.
Lesson 3 • Surface Finishing Sequence and Timing
Explains screeding, floating, and troweling operations and the bleed-water timing that governs each step. Premature finishing traps bleed water and causes surface defects and delamination.
Lesson 4 • Curing Methods and Duration
Compares wet curing, membrane-forming compounds, and insulating blankets for moisture and temperature control. Adequate curing duration is the single greatest factor in achieving design strength.
Lesson 5 • Joint Sawing and Sealing
Covers contraction joint layout, saw-cut timing, depth, and sealant selection for slabs and pavements. Properly timed joints control crack location and protect long-term slab performance.
Chapter 6HideHide detailsSee detailsConcrete Testing and Quality Assurance
Concrete Testing and Quality Assurance
Lesson 1 • Fresh Concrete Tests
Covers slump, slump flow, air content, unit weight, and temperature tests with acceptance criteria. These rapid field tests confirm that the delivered mix matches the approved design.
Lesson 2 • Non-Destructive and In-Place Testing
Introduces rebound hammer, ultrasonic pulse velocity, and core drilling for in-place strength assessment. These methods evaluate existing structures without removing material for lab testing.
Lesson 3 • Acceptance Criteria and Non-Conformance
Explains statistical strength acceptance rules, investigation triggers, and remediation options for low results. A structured response protocol protects structural integrity and project schedule.
Lesson 4 • Compressive Strength Specimen Preparation
Teaches cylinder and cube casting, rodding or vibrating, capping, and initial curing procedures. Specimen preparation errors are the leading cause of invalid strength test results.
Lesson 5 • Laboratory Strength Testing
Covers compression machine calibration, loading rate, failure pattern interpretation, and result reporting. Correct testing procedure ensures that measured strength reflects actual concrete quality.
Lesson 6 • Sampling Fresh Concrete in the Field
Establishes correct sampling locations, composite sample assembly, and handling procedures. Valid test results depend entirely on representative sampling before any testing begins.
Chapter 7HideHide detailsSee detailsConcrete Durability and Deterioration
Concrete Durability and Deterioration
Lesson 1 • Freeze-Thaw Deterioration
Explains ice formation in capillary pores, scaling, and internal cracking caused by cyclic freezing. Air entrainment and low water-cement ratio are the primary defences against freeze-thaw damage.
Lesson 2 • Corrosion of Embedded Steel
Explains chloride-induced and carbonation-induced depassivation of reinforcing steel and its consequences. Corrosion is the most costly durability failure mode in reinforced concrete structures.
Lesson 3 • Protective Strategies and Service Life Design
Applies cover depth, low permeability mixes, coatings, and cathodic protection to extend service life. Service life modelling quantifies the benefit of each protective measure for decision-making.
Lesson 4 • Shrinkage Cracking and Creep Effects
Distinguishes plastic, drying, autogenous, and thermal shrinkage and their cracking consequences. Understanding shrinkage types guides joint design and reinforcement detailing decisions.
Lesson 5 • Chemical Attack Mechanisms
Covers sulphate attack, acid attack, and alkali-silica reaction as the main chemical deterioration pathways. Each mechanism requires a specific mix design or material selection countermeasure.
Chapter 8HideHide detailsSee detailsConcrete Repair and Rehabilitation
Concrete Repair and Rehabilitation
Lesson 1 • Repair Material Selection
Compares cementitious, polymer-modified, epoxy, and rapid-setting repair mortars by performance criteria. Material compatibility with the substrate governs bond strength and long-term repair durability.
Lesson 2 • Surface Preparation for Repair
Explains saw cutting, hydrodemolition, and mechanical scarification to create a sound repair substrate. Inadequate surface preparation is the leading cause of repair bond failure and premature delamination.
Lesson 3 • Repair Quality Control and Monitoring
Establishes bond strength testing, pull-off tests, and long-term monitoring protocols for completed repairs. Ongoing monitoring detects re-deterioration early and validates repair effectiveness over time.
Lesson 4 • Crack Repair Techniques
Covers epoxy injection, routing and sealing, and stitching for structural and non-structural cracks. Technique selection depends on whether the crack is active or dormant and its structural significance.
Lesson 5 • Structural Strengthening Methods
Introduces fiber-reinforced polymer wrapping, externally bonded plates, and post-installed anchors for capacity enhancement. Strengthening extends service life without full demolition and reconstruction.
Lesson 6 • Condition Assessment and Investigation
Covers visual survey, delamination sounding, chloride profiling, and carbonation testing for diagnosis. Accurate diagnosis of deterioration cause is the prerequisite for selecting an effective repair.
Your valid completion certificate
This course is for you:
Construction inspector: needs deeper technical grounding for concrete oversight.
Civil engineering student: bridging classroom theory with hands-on field knowledge.
General contractor: wants to manage concrete subcontractors with greater confidence.
Concrete finisher: ready to move into supervisory or quality control roles.
Structural technician: expanding skills to include material behaviour and durability.
Career changer: entering construction from an unrelated trade or technical background.
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