Flywheel Torque Calculator

What is Flywheel Torque and Why Should You Care?

Ever wondered how mechanical energy is stored and released in various engineering applications? Well, that's the magic of flywheels, and specifically, understanding Flywheel Torque. Flywheel Torque, measured in Newton-meters (N-m), is crucial for systems requiring energy storage and smooth power delivery, such as engines, power grids, and even aircraft.

So, why should you care? Knowing how to calculate Flywheel Torque helps in optimizing performance and efficiency, ensuring your system runs like a well-oiled machine.

How to Calculate Flywheel Torque

Calculating Flywheel Torque might sound daunting, but it's as easy as pie once you get the hang of it. Here's the formula:

[T_{fw} = \frac{\text{Flywheel Mass (kg)} \cdot \text{Radius (m)}^2}{2 \cdot \text{Angular Acceleration (rad/s}^2\text{)}}]

Where:

• Tfw is the Flywheel Torque (N-m)
• Flywheel Mass (kg) is the mass of the flywheel
• Radius (m) is the radius of the flywheel
• Angular Acceleration (rad/s²) is the rate of change of angular velocity

Essentially, you'll multiply the flywheel mass by the radius squared and then divide by 2 times the angular acceleration.

Calculation Example

Let's run through a hypothetical example to nail this down.

Given values:

• Flywheel Mass: 25 kg
• Radius: 4 m
• Angular Acceleration: 3 rad/s²

Now, plug these values into the formula:

[T_{fw} = \frac{25 \cdot 4^2}{2 \cdot 3}]

Simplify that:

[T_{fw} = \frac{25 \cdot 16}{6} = \frac{400}{6} = 66.67 \text{ N-m}]

And there you have it! The Flywheel Torque in this example is 66.67 N-m.

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