Composite Engineering
16347
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Composite Engineering

Objectives

 

  • Master Composite Material Design: Equip participants with advanced skills in the design and development of composite materials and structures using CAD software, with a focus on aerospace applications.
  • Understand Aerospace-Specific Requirements: Provide in-depth knowledge of the unique challenges and requirements in aerospace engineering, such as weight reduction, strength-to-weight ratio, and durability in extreme environments.
  • Promote Innovative Design Practices: Encourage innovative thinking in the design of composite products, leveraging the latest advancements in CAD software and simulation tools.
  • Enhance Practical Application Skills: Develop participants’ ability to apply theoretical knowledge to practical projects, simulating real-world scenarios in aerospace product development.
  • Prepare for Industry Challenges: Ensure participants are well-prepared to meet the demands of the aerospace industry, particularly in the development and optimization of composite structures.

 

Outcomes

 

  • Proficiency in CAD Software: Participants will gain expertise in using industry-standard CAD software for designing composite materials and structures.
  • Comprehensive Understanding of Composites: Participants will understand the properties, behaviors, and applications of composite materials in aerospace engineering, including carbon fiber, fiberglass, and advanced polymers.
  • Practical Project Experience: Participants will complete projects that involve the design, analysis, and optimization of composite components, demonstrating their ability to apply CAD tools in a practical context.
  • Industry-Ready Skills: Graduates will be prepared for roles in aerospace product development, with specialized knowledge in the design and application of composite materials.

 

Scope

 

  • Target Audience: Engineering students, recent graduates, and professionals in the fields of mechanical, aerospace, and materials engineering interested in composite materials and CAD-based product development.
  • Course Content:
    • Introduction to Composite Materials: Overview of composite materials, their properties, advantages, and limitations in aerospace applications.
    • Fundamentals of CAD Software: Training in the use of CAD software for modeling, simulating, and analyzing composite structures.
    • Composite Design Techniques: Instruction in designing composite components, including layup techniques, fiber orientations, and layering strategies.
    • Simulation and Analysis: Use of CAD software for structural analysis, including stress-strain analysis, failure prediction, and optimization of composite structures.
    • Manufacturing Processes: Overview of manufacturing processes for composites, such as resin transfer molding, autoclaving, and 3D printing.
    • Industry Standards: Understanding of aerospace industry standards and regulations for composite materials and structures (e.g., FAA, EASA).

Project

 

  • Project Title: Design and Optimization of a Composite Wing Structure for a Lightweight Aircraft
  • Objective: To design and optimize a composite wing structure using CAD software, focusing on achieving an optimal balance between weight, strength, and aerodynamic Performa

 

Scope:

 

    • Design Phase: Use CAD software to create a detailed 3D model of the wing structure, incorporating composite materials with different fiber orientations and layup configurations.
    • Simulation and Analysis: Perform finite element analysis (FEA) to evaluate the structural performance of the wing under various load conditions, including bending, torsion, and aerodynamic forces.
    • Optimization: Iteratively refine the design to minimize weight while maximizing strength and stiffness, using CAD-based optimization tools.
    • Manufacturability Considerations: Explore the manufacturing implications of the design, including the selection of appropriate processes and materials for aerospace applications.

 

Outcomes:

 

    • A fully developed and optimized CAD model of the composite wing structure, including detailed design documentation and analysis reports.
    • A demonstration of the wing’s performance through simulations, highlighting its advantages over traditional materials.
    • A presentation of the project to industry professionals, with a focus on the potential for real-world application in the aerospace industry.