Available courses

REVERSE ENGINEERING

REVERSE ENGINEERING

Reverse Engineering introduces candidates to essential concepts of reverse engineering and digitized data processing. The course emphasizes hands-on techniques for creating and refining 3D models from scanned data, providing insights into industrial applications. Through the use of advanced tools like CATIA 3DEXPERIENCE, candidates will learn to work with point clouds, generate surfaces, and develop solid models, enhancing their ability to create manufacturable designs from physical objects.

Key Points

🟢 Fundamentals of Reverse Engineering: Learn the core principles of reverse engineering, its industrial evolution, advantages, and limitations.

🟢 Working with Digitized Data: Understand the process of importing scanned data, refining the mesh, and creating surface networks while controlling deviations.

🟢 Cloud Points: Gain hands-on experience with CATIA digitized shape preparation, processing, meshing, and aligning clouds-points to develop precise digital models.

🟢 Surface Creation Techniques: Explore surface creation methods, including untrimmed surfaces, mechanical shapes, and advanced solid modeling techniques.

🟢 Surface and Solid Design: Master surface creation using various approaches, including power fitting, trimming, and filleting, to generate complex 3D models.

🟢 Deviation Analysis: Learn to analyze and control deviations in 3D models to ensure accuracy and quality in the final product.

🟢 Practical Applications: Apply the learned techniques to real-world tasks, such as processing scanned data into usable surfaces and creating solid models ready for manufacturing.

CONCLUSION

By the end of this course, candidates will have gained comprehensive knowledge and practical skills in reverse engineering, digitized data processing, and surface creation. Mastery of these techniques will prepare candidates to handle complex designs and develop manufacturable 3D models using industry-standard tools like CATIA.

ADDITIVE MANUFACTURING

ADDITIVE MANUFACTURING

This course provides a detailed introduction to performing simulations for Additive Manufacturing (AM) processes. It covers essential techniques like adding material to a part, defining laser or nozzle paths, and modeling cooling effects within the context of thermal and thermal-stress simulations. Candidates gain hands-on experience in applying these simulations to optimize additive manufacturing processes.

Key Points

🟢 AM Process Overview: Candidates are introduced to the basic concerns and solutions for additive manufacturing, learning the full process simulation overview.

🟢 Powder Bed Preparation: Detailed lessons cover build tray setup, rules management, support creation, and scan path planning for powder bed fabrication.

🟢 Process Simulation Setup: Essential procedures like meshing, setting initial temperatures, applying material deposition, and simulating cooling effects.

🟢 Eigenstrain Simulations: Candidates learn to define and apply eigenstrain techniques to model residual stresses and improve structural accuracy.

🟢 Advanced Simulation Scenarios: Introduction to advanced meshing techniques, including voxel meshing and using external scan path data in the 3DEXPERIENCE platform.

🟢 Thermal-Mechanical Simulation: The course teaches pattern-based thermal simulation, focusing on heat flux, material activation, and heat energy application.

🟢 Laser Path Definition: Laser paths are defined for precise material addition, critical for modeling AM processes.

🟢 Cooling Modeling: Key techniques for simulating cooling during the additive manufacturing process, essential for accuracy in thermal-stress simulations.

🟢 Best Practices: The course emphasizes best practices in AM process simulation, providing a model checklist for quality assurance.

🟢 Real-world Application: Candidates finish the course with the ability to implement these simulations for additive manufacturing in practical, industrial contexts.

CONCLUSION

By the end of this course, Candidates acquire the skills to execute simulations for additive manufacturing. Key outcomes include understanding the laser paths, material deposition, and cooling effects essential to AM, alongside the use of advanced simulation techniques like eigenstrain modeling. Candidates are prepared to tackle real-world additive manufacturing scenarios using specialized software tools and procedures.

SURFACE MODELLING

SURFACE MODELLING

The Surface Modelling course is focused on teaching Candidates advanced surface design techniques and their significance in modern product development. It covers generative shape design, wireframe creation, and surface modeling, emphasizing transforming wireframes into solid models. Candidates will also explore surface re-limitation, which impacts a product’s aesthetics, functionality, and manufacturability. The course includes hands-on work with surface check tools for ensuring quality and precision in design.

Key Points

 🟢 Generative shape design: Candidates learn advanced techniques for designing products based on generative shape design principles.

🟢 Wireframe geometry: Essential skills are developed in creating and managing 3D wireframe geometry, transforming it into solid models.

🟢 Surface modeling: Expertise in surface creation techniques such as multi-section surfaces and adapting existing ones.

🟢 Surface re-limitation: Understanding how to manage surface splitting, trimming, and connecting for smoother designs.

🟢 Surface check tools: Tools and techniques for ensuring product quality through surface analysis and flaw detection.

🟢 Practical applications: Hands-on projects like designing speaker grills and stools provide real-world experience.

🟢 Extrusion techniques: Candidates master the art of extrusion to turn wireframes into tangible, solid models.

🟢 Quality assurance: Surface healing operations are taught to guarantee precise and manufacturable products.

🟢 Complex surface design: Learn to connect surfaces and create complex fillets to enhance the aesthetic and functional aspects of a product.

🟢 Real-world readiness: Candidates graduate with the ability to handle intricate designs for actual product development.

CONCLUSION

By the end of the course, candidates will have mastered the skills needed to design high-quality, functional products. Key techniques like generative shape design, surface modeling, wireframe extrusion, and surface checks ensure candidates can deliver reliable, manufacturable designs. The course also provides tools for checking surface quality and resolving flaws, preparing participants for real-world product development challenges.

Welcome test course

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