
Composite Course
Master composite materials from raw fibre selection to finished-part inspection in one comprehensive course. You will gain hands-on knowledge of manufacturing processes, structural design principles, quality control, and repair techniques used across aerospace, motorsport, and industrial applications. This is the complete technical foundation serious composites professionals need.
What you will learn:
This course covers the full composites engineering workflow, starting with material science fundamentals and moving through fibre and resin selection, tooling design, and every major manufacturing process from hand layup to automated fibre placement. You will apply classical laminate theory and failure criteria to design structurally efficient parts and produce ply schedules grounded in real load requirements. Quality control and non-destructive testing methods give you the tools to detect and disposition defects with confidence. You will also learn structural and cosmetic repair techniques, process optimisation strategies, and emerging technologies including thermoplastic composites and digital manufacturing tools.
How you study in practice Composite Course
How you practise Composite 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 • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Composite Materials
Foundations of Composite Materials
Lesson 1 • What Are Composite Materials
Defines composites by constituent phases and synergistic behavior. Anchors all subsequent material selection and processing decisions.
Lesson 2 • Fiber Reinforcement Types and Properties
Surveys glass, carbon, aramid, and natural fibers with mechanical data. Enables informed reinforcement selection for target applications.
Lesson 3 • Composite Architecture and Geometry
Explains laminate, sandwich, and chopped-fiber architectures and their structural implications. Prepares learners for layup and design chapters.
Lesson 4 • Key Mechanical Properties
Introduces stiffness, strength, fatigue, and anisotropy concepts specific to composites. Provides the property baseline needed for design and testing chapters.
Lesson 5 • Matrix Systems Overview
Covers thermoset, thermoplastic, and ceramic matrix types with cure behavior. Connects matrix choice to processing route and end-use performance.
Chapter 2HideHide detailsSee detailsRaw Materials Selection and Procurement
Raw Materials Selection and Procurement
Lesson 1 • Material Specification Development
Teaches how to translate design requirements into material specifications. Links performance targets to measurable material properties.
Lesson 2 • Resin and Adhesive Selection
Evaluates cure schedules, pot life, viscosity, and environmental resistance for resin selection. Connects resin properties to processing and service conditions.
Lesson 3 • Fiber Selection Criteria
Applies mechanical, thermal, and cost criteria to fiber selection decisions. Reinforces fiber knowledge from Chapter 1 with practical trade-off analysis.
Lesson 4 • Supplier Qualification and Storage
Establishes supplier audit criteria and material storage protocols to maintain quality. Prevents defects caused by out-of-date or improperly stored materials.
Lesson 5 • Core and Ancillary Materials
Covers foam, honeycomb, and balsa cores plus consumables such as peel ply and release agents. Ensures complete bill-of-materials awareness.
Chapter 3HideHide detailsSee detailsComposite Manufacturing Processes
Composite Manufacturing Processes
Lesson 1 • Prepreg Layup and Autoclave Cure
Details prepreg handling, ply sequencing, and autoclave cure cycle management. Introduces the high-performance process standard used in aerospace and motorsport.
Lesson 2 • Vacuum Infusion and Resin Transfer Molding
Explains closed-mold infusion processes that improve fiber volume fraction and surface quality. Builds on wet layup skills with controlled resin flow concepts.
Lesson 3 • Hand Layup and Wet Layup Techniques
Covers manual ply placement, resin application, and consolidation methods. Establishes baseline process skills applicable to all subsequent methods.
Lesson 4 • Automated Fiber and Tape Placement
Introduces AFP and ATL machine programming, tow steering, and defect monitoring. Prepares learners for advanced automated production environments.
Lesson 5 • Filament Winding and Pultrusion
Covers continuous-fiber automated processes for tubular and prismatic profiles. Expands process knowledge to high-volume and structural applications.
Chapter 4HideHide detailsSee detailsTooling Design and Mold Fabrication
Tooling Design and Mold Fabrication
Lesson 1 • Mold Fabrication Methods
Details plug construction, splash molding, and CNC-machined tooling workflows. Provides practical fabrication routes for different production scales.
Lesson 2 • Mold Surface and Geometry Design
Covers draft angles, radii, parting lines, and surface finish requirements for successful demolding. Prevents common geometric defects before fabrication begins.
Lesson 3 • Thermal Management in Tooling
Explains embedded heating, oven cure, and autoclave thermal uniformity for consistent cure. Ensures learners can design tooling that meets cure cycle requirements.
Lesson 4 • Mold Maintenance and Life Extension
Establishes inspection, repair, and release agent regimes to maximize mold service life. Reduces production downtime and scrap from tooling degradation.
Lesson 5 • Tooling Material Selection
Compares composite, aluminum, steel, and Invar tooling for coefficient of thermal expansion and durability. Connects tooling choice to part tolerance requirements.
Chapter 5HideHide detailsSee detailsComposite Structural Design Principles
Composite Structural Design Principles
Lesson 1 • Finite Element Analysis for Composites
Introduces shell and solid element modeling, ply definition, and result interpretation for composites. Bridges analytical methods with computational design tools.
Lesson 2 • Ply Orientation and Stacking Sequence
Optimizes fiber angles and stacking order to meet stiffness, strength, and stability targets. Builds directly on CLT knowledge to produce manufacturable ply schedules.
Lesson 3 • Classical Laminate Theory
Derives ABD stiffness matrices and predicts laminate response to in-plane and bending loads. Provides the analytical foundation for all design decisions.
Lesson 4 • Sandwich Structure Design
Applies sandwich beam and panel theory to size face sheets and core for bending and shear. Extends laminate design skills to lightweight structural panels.
Lesson 5 • Failure Criteria and Safety Factors
Applies maximum stress, Tsai-Wu, and Hashin criteria to predict first-ply and last-ply failure. Connects analytical predictions to design allowables and safety margins.
Chapter 6HideHide detailsSee detailsQuality Control and Non-Destructive Testing
Quality Control and Non-Destructive Testing
Lesson 1 • Common Composite Defects
Catalogs voids, delaminations, dry fiber, inclusions, and resin-rich zones with root causes. Establishes defect literacy needed for all inspection and repair activities.
Lesson 2 • Thermography and Other Advanced NDT
Introduces flash thermography, shearography, and X-ray computed tomography for complex geometries. Expands the NDT toolkit beyond ultrasonics for challenging inspection scenarios.
Lesson 3 • Inspection Planning and Disposition
Develops inspection plans, accept/reject criteria, and nonconformance disposition workflows. Integrates NDT results into quality management and production decisions.
Lesson 4 • Visual and Tap Testing Methods
Covers systematic visual inspection and coin-tap techniques for surface and near-surface defects. Provides low-cost first-line inspection skills applicable in any facility.
Lesson 5 • Ultrasonic Testing Techniques
Applies pulse-echo and through-transmission ultrasonics to detect internal defects. Builds on defect knowledge to quantify size and depth of flaws.
Chapter 7HideHide detailsSee detailsComposite Repair Techniques
Composite Repair Techniques
Lesson 1 • Surface Preparation for Repair
Covers sanding, scarfing, and solvent cleaning to achieve bond-ready surfaces. Ensures adhesion quality that determines repair structural performance.
Lesson 2 • Repair Validation and Documentation
Applies NDT and mechanical testing to verify repair quality and documents results for traceability. Closes the repair loop with quality assurance and regulatory compliance.
Lesson 3 • Wet Layup and Injection Repairs
Executes resin injection for delaminations and wet layup patch repairs for damaged plies. Provides the most widely used field and depot repair methods.
Lesson 4 • Damage Assessment and Classification
Applies NDT results and damage maps to classify damage as cosmetic, repairable, or beyond limits. Connects inspection chapter skills to repair decision-making.
Lesson 5 • Bonded and Bolted Repair Schemes
Designs scarf-bonded and stepped-lap repairs and evaluates bolted repair as an alternative. Addresses structural repairs requiring engineered load transfer.
Chapter 8HideHide detailsSee detailsAdvanced Applications and Process Optimization
Advanced Applications and Process Optimization
Lesson 1 • Design for Manufacture and Assembly
Applies DFM principles to reduce layup complexity, tooling cost, and assembly operations. Synthesizes all prior chapters into producible, cost-effective designs.
Lesson 2 • Statistical Process Control for Composites
Implements control charts, capability indices, and measurement system analysis for composite processes. Provides data-driven tools to maintain and improve process stability.
Lesson 3 • Waste Reduction and Sustainability
Identifies material waste streams and applies lean principles to reduce scrap and energy use. Addresses growing industry pressure for sustainable composite manufacturing.
Lesson 4 • Production Ramp-Up and Scaling
Manages the transition from prototype to full-rate production with risk mitigation strategies. Prepares learners to lead industrialization of new composite programs.
Lesson 5 • Cure Process Optimization
Uses design of experiments and cure monitoring sensors to optimize cure cycles. Reduces cycle time and energy while maintaining part quality.
Your valid completion certificate
This course is for you:
Mechanical engineer: wants to extend structural expertise into composite part design.
Composites technician: ready to move beyond hands-on work into engineering decisions.
Product development engineer: needs to evaluate composites as a viable material option.
Quality inspector: seeking deeper defect knowledge to strengthen NDT and disposition skills.
Career changer from metals or plastics: building credibility in a composites-driven industry.
Motorsport or marine fabricator: aiming to formalise self-taught skills with engineering rigour.
What our students say
Your lessons are perfect. I purchased the one-year package and finally have the opportunity to follow various topics of my interest without needing to change platforms... I'm grateful for everything you do, I've already recommended you to other people...

I like how the lessons are straight to the point and how I can change chapters and skip content I don't need.

I like the content and the way videos are presented and transcribed, which speeds up the process!

The platform is fast, simple to use. The diversity of content and complementary videos help a lot with learning.

Top trainings
FAQs
Who is Dedika?
Is the certificate valid in Pakistan?
Are the courses free?
What is the course workload?
What are the courses like?
How do the courses work?
What is the duration of the courses?
What is the cost or price of the courses?
What is an EAD or online course and how does it work?
PDF Course




















