Kinetic model: flywheel_1919982
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GUNT Kinetic Model: Flywheel Experimental Unit, Uniformly Accelerated Rotational Motion and Mass Moment of Inertia

The GUNT Kinetic Model: Flywheel Experimental Unit enables basic experiments on uniformly accelerated rotational motion and mass moment of inertia. It demonstrates the resistance of a rigid body to changes in its rotational state using a flywheel, shaft, cable, and weights. The system is designed to be mounted securely to a wall for stable experimentation.

Product Features

  • Explores the mass moment of inertia as a measure of rotational resistance in rigid bodies.
  • Includes a flywheel mounted on a shaft, supported by two bearings to ensure smooth rotation around its centre of gravity.
  • A cable connects the shaft to a set of weights; as the weight descends, it drives the flywheel in uniformly accelerated motion.
  • Time required for the weight to descend is measured for different weights and compared.
  • Allows calculation of the flywheel's mass moment of inertia using measured time, flywheel mass, and acceleration distance.
  • Ideal for foundational physics education on rotational kinematics and dynamics.
  • Unit is designed to be securely fixed to a wall for operational safety and measurement accuracy.

Benefits

  • Provides a clear, hands-on demonstration of basic rotational motion principles.
  • Supports understanding of mass moment of inertia through real-time measurements and calculations.
  • Suitable for physics and mechanical engineering education involving rotational systems.
  • Wall-mount design ensures consistent, stable, and repeatable experiments.

Why Choose the GUNT Kinetic Model: Flywheel Experimental Unit?

This unit is an excellent tool for introducing core concepts of rotational motion, inertia, and acceleration. Designed for reliability and repeatability, it’s ideal for classroom demonstrations and laboratory analysis where a visual and measurable approach to theory is essential.

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