Advanced Robotics: Generative Design

The pinnacle of AI and engineering. Use generative design to invent and optimize a custom robotic component, then bring it to life with 3D printing. A one-of-a-kind portfolio piece.

Level

Elite

For

Grades 10-12

Duration

5 Days

What You Will Master

Generative Design Principles

Learn how to define constraints, loads, and objectives to guide an AI in creating optimized physical forms.

3D Printing & Prototyping

Master the workflow from a digital CAD model to a physical object, understanding the nuances of FDM/SLA printing.

CAD Software for AI

Use industry-standard CAD software (e.g., Fusion 360) to refine and prepare AI-generated designs for fabrication.

Physical Testing & Iteration

Learn how to test the real-world performance of your printed part and use the data to inform the next design iteration.

The Capstone Project

AI-Designed, 3D-Printed Robotic Gripper

A truly "hatke" project. Students will define the requirements for a robotic gripper (e.g., to pick up a specific object). They will use generative design AI to create a lightweight, strong, and efficient gripper design. They will then 3D print, assemble, and test their creation, showcasing an incredible end-to-end engineering skillset.

Key Transformation

Go from a design problem to a physically realized, AI-optimized, 3D-printed robotic component, demonstrating a complete digital-to-physical workflow that is at the cutting edge of industry.

Course Syllabus

1
Session 1: Introduction to Generative Design

Understand how AI can "evolve" designs based on real-world physics. Learn the principles of topology optimization and setting up a generative study in CAD software like Autodesk Fusion 360.

2
Session 2: From AI Concept to CAD Model

Take the organic output of the generative AI and learn how to convert it into a clean, manufacturable CAD model, refining surfaces and adding connection points for assembly.

3
Session 3: 3D Printing Masterclass

Dive deep into the mechanics of 3D printing. Learn about slicing software (e.g., Cura), material properties (PLA vs. PETG vs. ABS), and optimizing print settings for strength and speed.

4
Session 4: Fabrication & Assembly

Print your AI-designed gripper. Learn post-processing techniques and assemble the final component with any necessary electronics or hardware like servos and fasteners.

5
Session 5: Real-World Testing & Showcase

Mount your gripper to a test rig or robotic arm and evaluate its performance against your initial design goals. Document the results and present your findings, comparing the AI-generated design to a human-designed alternative.

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Build Your Advantage

Our project-based workshops are designed to give you a tangible, verifiable edge. Enroll now to secure your spot and start building your future.