
Welcome to the CATIA Composite Design course, where you will learn how to design and analyze composite parts and assemblies using one of the industry's leading CAD software packages, CATIA. Composite materials are increasingly used in many industries due to their lightweight, high strength, and durability. The aerospace, automotive, and sports equipment industries are just a few examples where composites have become essential. CATIA Composite Design is a powerful tool that allows designers and engineers to create complex composite structures that are both lightweight and strong.
This course is designed for beginners to professionals who want to learn the fundamentals of composite design and gradually advance to the professional level. You will learn how to create composite parts and assemblies, define ply orientations, analyze and optimize the design for strength and weight, and generate manufacturing data. The course will also cover advanced topics such as designing laminates with specific properties, using advanced analysis tools, and automating design processes. By the end of this course, you will have a strong foundation in CATIA Composite Design and the skills necessary to design composite parts and assemblies for a variety of industries. Whether you are a student, engineer, or designer, this course will equip you with the tools and knowledge to create lightweight and strong composite structures that meet the demands of today's industries.
Master the basics of composites and CATIA workbench, learning zone-based stack-ups, ply creation, PLI, limit contours, and producibility analysis from design to production, with playbook exports.
Discover what composite material means and why designers choose composites. Explore fibers and plies, matrices (resins), and common materials like carbon fiber, glass fiber, and Kevlar.
Discover why composite materials offer a high stiffness-to-weight ratio, boosting fuel efficiency in aircraft, and how they enable complex shapes with excellent surface finish from mold structures.
Learn the basics of composite manufacturing, including hand layup and spray matrix, building laminate structures by ply and lamina concepts, and calculating total thickness from single ply measurements.
Explore rules for composite design, including uni directional and bi directional plies, and zero and 90 degree orientations that optimize tensile and compressive strengths.
Understand why 0, 45, and 90 degree ply angles govern tensile, compressive, and shear behaviors in composites, and how curing boosts stiffness.
Master ply symmetry and balanced rules for composite design, focusing on ply-by-ply construction, symmetric planes, pivoted versus non-pivoted plies, and even and odd ply counts with prepreg materials.
balance a layup by keeping 0 and 90 degrees alongside equal plus and minus 45 degrees to minimize coupling in the b matrix, achieving a stable, symmetric ply design.
Choose CFRP or GFRP materials and outer meshes from Cartier's material library. Model with zone-based approaches, grid-based pre-built structures, or solid splicing on a reference tool surface with uniform thickness.
Explore a zone based approach to composite design, detailing zone one and zone two thicknesses, ramped transitions, and ply stacking to prevent delamination and create smooth transition zones.
Explore the core parameters of CATIA composite design, including material zones, draping direction for laying plies, and reference points that guide ply placement and manufacturing.
Recap the basics of composites, including material types, design rules, and manufacturing processes, then demonstrate creating a basic ply and transition zones in CATIA.
Navigate the composite design module, create composite parameters, select materials from the catalog, and define thickness, cure thickness, fabric width, and layup directions for unidirectional and angled fibers.
Create and manage zone groups for composite design in CATIA by linking materials, defining the draping direction, and establishing a rosette reference system and axis system, ensuring parametric integrity.
Create and configure zones in CATIA composite design by defining zone groups, selecting boundaries in sequence, applying laminate with plies, and letting the rosette system auto-assign per zone group.
Learn to create plies from a single zone in CATIA, visualize ply sequences with the ply explorer, and evaluate staggering, taper, and sectioning for accurate layup.
Learn to create plies from a spreadsheet by defining zone materials and directions in Excel, assign zone contours, and build laminates and ply groups in CATIA.
Mastering Catia composite design: transition zone creation teaches defining zone one, zone two, and the transition zone under a zone group, with boundaries, laminate, plies, and rosette directions.
Use the connection generator to create ply connections between zones and transition zones, with color codes showing free edges and connections, and understand staggering and zone groups in ply visualization.
Create a surface with zones and a transition zone, visualize ply counts with a connection generator, then explore ply explode and define plies from a group with material and orientation.
Master CATIA composite design by creating solids and geometry from zones and plies, using zone-based stackups and transition zones to visualize taper and top-surface features.
Create an Excel workbook named stackup, define the sequence, ply, geometric level, distance, material, and zone one and zone two, for analysis.
Create plies from zones using stack of file and define ply sequence. Adjust materials and parameters, verify with the ply explorer, and generate geometry from zones to ensure correct stacking.
Learn to create a solid from plies using a ply group, then apply the limit contour to cut plies via planes and intersections, illustrating stagger direction control.
Explore how to design core-based sandwich structures in CATIA, distinguish monolithic from sandwich layups, and manage ply groups, the upper surface, and core integration.
Create a sandwich structure in CATIA by defining a 0.4 core, building a ply group with a rosette system, and stacking plies above the core with draft angles for smoothness.
Show how to use producibility analysis to predict wrinkles and deformation of plies at 0 or 45 degrees, then flatten plies into 2d curves and flat patterns for laser cutting.
Learn CATIA's manufacturing with numerical analysis of stackings, ply groups, and thickness, exporting results to Excel. Use core sampling to view area, volume, and center of gravity for each ply.
Learn how composite design translates to manufacturing, addressing ply layups and edge shifts (EOP) versus ERP, then create zones, contours, and slices for precise laser cutting.
Examine creation of engineering edge of part and manufacturing edge of part, generate and synchronize manufacturing documents, and define laminate from zones with ply explorer and material excess.
Create a line dart to reduce wrinkles and perform 3D ply splices by selecting plies, defining a splice curve with a sketch, and generating cut pieces for producibility analysis.
Create drafting drawings from isometric views in Catia, apply composites exploded views, edit single plies, and enable shading with edges for raster presentation.
Learn to generate a Catia composite ply book by using the default VBScript to create templates, generate flipbooks, and produce individual ply sheets or a single sheet with raster views.
Learn the full CATIA composite design workflow, including zone creation, stack-up from zones, solid generation, drawings, and manufacturing documents, plus ply export and producibility analysis.
Explore the fundamental concepts of composite materials and their use across industries. Apply these concepts in CATIA to design and analyze composite structures with hands-on practice.
Explore grid design in CATIA CPD to master expert-level composite design by working on individual cells and zone transitions, using CATIA V5 and V6.
Composite Material Design Using CATIA Software is a well known software to design the Composite Laminated structure. Composite materials are materials that are made up of two or more constituent materials with different physical and chemical properties. By combining these materials, composites can be designed to have improved or unique properties that are not achievable with any of the constituent materials alone. Composites are widely used in a variety of industries including aerospace, automotive, construction, and sports equipment. The design of composite materials involves selecting the appropriate constituent materials, determining the optimal fiber or particle orientation, and deciding on the manufacturing process that will be used to produce the final product.
Several factors that need to be considered in composite design, including the mechanical properties, weight, cost, durability, and environmental factors. Some common composite materials include carbon fiber reinforced polymer (CFRP), glass fiber reinforced polymer (GFRP), and aramid fiber reinforced polymer (AFRP). The choice of material depends on the specific application and the desired properties of the final product. When designing a composite material, it is important to consider the manufacturing process that will be used. Common manufacturing processes for composites include filament winding, pultrusion, and resin transfer molding. Each process has its own advantages and disadvantages, and the selection of the manufacturing process will depend on the design objectives and constraints. In addition to the design and manufacturing of composite materials, it is important to consider the testing and analysis of the final product. This includes both non-destructive testing, such as ultrasonic testing and X-ray inspection, as well as destructive testing, such as tensile and compression testing.
By carefully analyzing the performance of the composite material, it is possible to identify areas for improvement and optimize the design for future applications. Using CATIA software in Composite Design field is widely used in Aviation, Automotive, Sports, Renewable Energy and various other domains. One can learn the design processes very much in-depth using the course. Please be mentioned that the GRID Design method is not included into this course. It consists of Ply-By-Ply and Zone based methods only in CATIA Composite design methods.