Does newtons law holds good for rotary motion?

Answer 1

Yes, if you apply it to every individual particle, or use integration.

However, for practical calculations, it is often convenient to consider rotary motion separately. There is a rotational equivalent of Newton's Second Law (force = mass x acceleration), where you replace the force with a torque, the mass with the moment of inertia, and the acceleration with angular acceleration.

The moment of inertia for objects of different forms are calculated through integration.

Yes, if you apply it to every individual particle, or use integration.

However, for practical calculations, it is often convenient to consider rotary motion separately. There is a rotational equivalent of Newton's Second Law (force = mass x acceleration), where you replace the force with a torque, the mass with the moment of inertia, and the acceleration with angular acceleration.

The moment of inertia for objects of different forms are calculated through integration.

Yes, if you apply it to every individual particle, or use integration.

However, for practical calculations, it is often convenient to consider rotary motion separately. There is a rotational equivalent of Newton's Second Law (force = mass x acceleration), where you replace the force with a torque, the mass with the moment of inertia, and the acceleration with angular acceleration.

The moment of inertia for objects of different forms are calculated through integration.

Yes, if you apply it to every individual particle, or use integration.

However, for practical calculations, it is often convenient to consider rotary motion separately. There is a rotational equivalent of Newton's Second Law (force = mass x acceleration), where you replace the force with a torque, the mass with the moment of inertia, and the acceleration with angular acceleration.

The moment of inertia for objects of different forms are calculated through integration.

Answer 2

Yes, if you apply it to every individual particle, or use integration.

However, for practical calculations, it is often convenient to consider rotary motion separately. There is a rotational equivalent of Newton's Second Law (force = mass x acceleration), where you replace the force with a torque, the mass with the moment of inertia, and the acceleration with angular acceleration.

The moment of inertia for objects of different forms are calculated through integration.

Answer 3

No, Newton's laws of motion are specifically formulated for linear motion. For rotary motion, we use the principles of angular momentum and torque, which are described by rotational dynamics instead.