Gyroscope Dynamics

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About Course

Course Description

This program introduces learners to the principles of gyroscope dynamics, including rotational motion, angular momentum, precession, and stabilization mechanisms. Participants will explore mechanical and electronic gyroscopes, understand their applications in robotics, aviation, and consumer electronics, and perform practical exercises to reinforce learning. This course is suitable for students, freshers, working professionals, and educators interested in engineering, robotics, and control systems.


Learning Objectives

By the end of this program, learners will be able to:

  • Understand the fundamentals of gyroscope motion and rotational dynamics.
  • Describe angular momentum, torque, and precession.
  • Identify different types of gyroscopes: mechanical, optical, MEMS-based.
  • Understand applications in drones, navigation, stabilization, and robotics.
  • Perform practical demonstrations and calculations involving gyroscopic motion.
  • Apply knowledge in robotics, aerospace, and educational demonstrations.

Target Audience

  • College Students & Freshers: Build foundational knowledge for engineering and robotics projects.
  • Working Professionals: Upskill for roles in robotics, navigation, aerospace, and automation.
  • Educators: Teach gyroscope principles and applications effectively.
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Course Content

Module 1: Introduction to Gyroscopes
Content to be covered: Definition, history, and importance of gyroscopes, Mechanical vs electronic gyroscopes, Basic concepts: rotational motion, torque, angular momentum, Activity: Observe a mechanical gyroscope in action.

  • Online Live Class: 1.5 Hours
  • Practice/ Doubt: 30 Minutes

Module 2: Rotational Dynamics & Precession
Content to be covered: Angular velocity and angular momentum, Angular velocity and angular momentum, Hands-on: Demonstrate precession using a spinning gyroscope

Module 3: Types of Gyroscopes & Working Principles
Content to be covered: Hands-on: Demonstrate precession using a spinning gyroscope, Optical gyroscopes (FOG – Fiber Optic Gyroscope), MEMS gyroscopes and sensors, Activity: Identify gyroscope types in devices like drones, smartphones, and robots.

Module 4: Gyroscope Applications in Robotics & Drones
Content to be covered: Role in navigation, stabilization, and orientation, Integration with accelerometers for IMU (Inertial Measurement Unit), Hands-on: Explore a drone or robotic device with gyroscopic sensors.

Module 5: Calculations, Measurements & Sensor Data
Content to be covered: Measuring angular momentum, torque, and precession, Understanding gyroscope sensor output (analog vs digital), Hands-on: Record sensor readings and interpret gyroscope data.

Module 6: Capstone Project & Real-World Applications
Content to be covered: Mini-project: Build a simple gyroscope-based stabilization model or simulation, Discussion: Applications in aerospace, automotive, robotics, and VR/AR, Educator module: Tips for teaching gyroscope concepts with demos and labs, Course recap and certificate distribution.

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