Drone Design
16353
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Objectives

 

Integrate Engineering Principles: Provide a solid foundation in the engineering principles required for drone design, including aerodynamics, materials science, and electronics integration.

Develop Comprehensive Drone Design Skills: Equip participants with the knowledge and skills to design drones from concept to final product using CAD software, with a focus on both structural and functional aspects.

Leverage Advanced Manufacturing Techniques: Introduce participants to 3D printing technology and its application in the rapid prototyping and manufacturing of drone components.

Enhance Practical Application and Problem-Solving: Enable participants to apply theoretical knowledge to practical projects, including the design, prototyping, and assembly of functional drones.

Prepare for Industry Applications: Ensure participants are industry-ready, with the ability to design, prototype, and assemble drones for various applications, including surveillance, agriculture, and delivery systems.

 

Outcomes

 

Proficiency in CAD Software: Participants will gain expertise in using CAD software (e.g., AutoCAD, SolidWorks, Fusion 360) for designing drone components and systems.

Understanding of Drone Engineering: Participants will understand the key engineering principles involved in drone design, including aerodynamics, propulsion, and structural integrity.

Hands-on Experience with 3D Printing: Participants will learn to use 3D printing technology for the fabrication of drone components, from design to finished parts.

Practical Project Completion: Participants will design, prototype, and assemble a fully functional drone, demonstrating their ability to bring a concept from design through to physical realization.

Target Audience: Engineering students, recent graduates, hobbyists, and professionals in mechanical, aerospace, and electronics engineering, as well as those interested in UAV technology and 3D printing.

 

 

Course Content:

 

Introduction to Drone Technology: Overview of drone types, applications, and the fundamental principles of UAV (Unmanned Aerial Vehicle) design.

CAD Software Training: Instruction in using CAD software to design drone components, including frames, propellers, housings, and mounting systems.

Engineering Principles: Training in the aerodynamics, materials science, and structural design necessary for creating efficient and robust drones.

3D Printing Fundamentals: Introduction to 3D printing technology, including the selection of materials, design for additive manufacturing, and the printing process.

Electronics Integration: Overview of integrating electronics into drone designs, including motors, ESCs (Electronic Speed Controllers), flight controllers, and sensors.

Prototyping and Assembly: Hands-on experience in assembling the designed drone components, installing electronics, and testing the final product.

 

Project

 

  • Project Title: Design, 3D Printing, and Assembly of a Custom Quadcopter Drone
  • Objective: To design, 3D print, and assemble a custom quadcopter drone, focusing on optimizing for weight, stability, and functionality in a specific application (e.g., aerial photography, environmental monitoring).

 

 

Scope:

 

    • Design Phase: Use CAD software to create a complete design of the quadcopter, including the frame, motor mounts, propeller guards, and camera housing. Consider factors such as weight distribution, structural integrity, and aerodynamics.
    • 3D Printing: Fabricate the designed components using 3D printing technology, choosing appropriate materials for durability and weight efficiency.
    • Assembly: Assemble the printed components, install the necessary electronics (motors, ESCs, flight controller, battery), and ensure proper wiring and connectivity.
    • Testing and Optimization: Test the assembled drone for flight stability, maneuverability, and performance. Make iterative adjustments based on test results to optimize flight characteristics.

 

Outcomes:

 

    • A fully functional, custom-designed quadcopter drone that meets the specified application requirements.
    • Comprehensive project documentation, including design files, 3D printing settings, assembly instructions, and testing results.
    • A presentation of the project, showcasing the design process, engineering challenges, and final product capabilities.