If two forces of equal magnitude act on an object that is hinged at a pivot, the force acting farther from the pivot must produce the greater torque about the pivot. If two forces of equal magnitude act on an object that is hinged at a pivot, the force acting farther from the pivot must produce the greater torque about the pivot. unable to decide without knowing the shape of the object false true Request Answer

The statement is false

Explanation:

To explain this, in addition to distance from the pivot, we must consider the angle at which the force is acting. Now, only the components perpendicular to the line from the point of action to the pivot matter.

For example, let's say we have a vertical pole hinged at the base and there is an 8N force halfway up and perpendicular to the pole.

It will create a torque of 8N*L/2 which can be simllified to 4N*L

Also, there is an 8N force at the top acting at 15º from the pole.

It creates a torque of 8N*sin15º*L = 2.07N*L

From the two values, we can see that the force at the greater distance does not necessarily produce the greatest torque.

Thus, the statement is false

33: i think it’s b

one person pulls 90n one way and the other has 100n pulling the other way.

so the net force = 90 - 100 = -10n,

or the ans can be 10n if the picture shows -90n and 100n instead.