Calculate the distance travelled by a 50-kg crate at s when pulled by the force N as shown below. The coefficient of kinetic friction between the crate and the ground is .  Assume the crate starts from the rest at s.

The conveyor belt is moving at 4 m/s. If the coefficient of static friction between the conveyor and the 10-kg package is , determine the shortest time the belt can stop so that the package does not slide on the belt.

The small 2 kg block A slides down the curved path and passes the lowest point B with a speed of 4 m/s. If the radius of curvature of the path at B is 1.5 m, determine the normal force N exerted on the block by the path at this point. (g=9.81 m/s²)

A body rotating around a fixed axis with increasing tangential velocity will experience:

The 2-kg block B and 15-kg cylinder A are connected to a light cord that passes through a hole in the centre of the smooth (frictionless) table as shown in the figure. If the block is given a speed of m/s, it is just enough to keep it moving in a circle at constant speed.

Determine the radius r\) of the circular path along which it travels.

A block of mass 10 kg is moving up a curved frictionless slope of radius 5m. Which of the following free body diagrams should be used to most easily determine the correct radial acceleration from the equations of motion?

Which of the following statements regarding rotational motion are correct? 

Calculate the distance travelled by a 50-kg crate at s when pulled by the force N as shown below. The coefficient of kinetic friction between the crate and the ground is .  Assume the crate starts from the rest at s.

The conveyor belt is moving at 4 m/s. If the coefficient of static friction between the conveyor and the 10-kg package is , determine the shortest time the belt can stop so that the package does not slide on the belt.

b) What is the equation of motion of the airliner in the x-direction?