A body of mass 1 kg rests on a horizontal floor with which it has a coefficient of static friction `(1)/(sqrt(3))`. It is desired to make the body move by applying the minimum possible force FN. The value of F will be ________. (Round off to the Nearest Integer)
[Take `g=10ms^(-2)`]

A blocky of mass m rests on a horizotal floor with which it has a coefficient of static friction mu. It is desired to make the body move by applying the minimum possible force F. Find the magnitude of F and the direction in which it has be applies.

A particle of mass m rests on a horizontal floor with which it has a coefficient of static friction mu . It is desired to make the body move by applying the minimum possible force F. Find the magnitude of F and the direction in which it has to be applied.

A body of mass m rests on a horizontal rough platform. Coefficient of static friction is u. Calculate the minimum possible force required to move the body along the platform.

A block of mass m rests on a horizontal floor for which coefficient of friction is mu . Find the magnitude and the direction of force that should be applied to just move the block so that the applied force is minimum.

A body of mass Mis kept on a rough horizontal surface with friction coefficient = mu . A person is trying to pull the body by applying a horizontal force but the body is not moving. The force by the surface on A is F where

Two blocks ( m = 0.5 kg and M = 4.5 kg) are arranged on a horizontal frictionless table as shown in figure. The coefficient of static friction between the two blocks is (3)/( 7) . Then the maximum horizontal force that can be applied on the larger block move together is "_____________" N. ( Round off to the Nearest Integer ) [Take as 9.8 ms^(-2) ]

An ice cart of mass 60 kg rests on a horizontal snow patch with coefficient of static friction 1/3. Assuming that there is no vertical acceleration, then the magnitude of the maximum horizontal force required to move the ice cart is (g = 9.8 ms^(-2) )