A hockey player hits a stationary ball, of mass 0.2 kg. The contact time between the stick and the ball is 0.15s and the force exerted on the ball by the stick is 60 N. Find the speed with which the ball leaves the stick.

A hockey player hits a stationary ball, of mass 0.2 kg. The contact time between the stick and the ball is 0.15s and the force exerted on the ball by the stick is 60 N. Find the speed with which the ball leaves the stick.

A hockey player hits a stationary ball, of mass 0.2 kg. The contact time between the stick and the ball is 0.15s and the force exerted on the ball by the stick is 60 N. Find the speed with which the ball leaves the stick.

A runaway sledge of mass 10 kg travelling at 15 m s reaches a horizontal snow field. It travels in a straight line before it comes to rest. Given that the force of friction slowing the sledge down has magnitude 60 N, calculate how far the sledge travels in the snow field.

A runaway sledge of mass 10 kg travelling at 15 m s reaches a horizontal snow field. It travels in a straight line before it comes to rest. Given that the force of friction slowing the sledge down has magnitude 60 N, calculate how far the sledge travels in the snow field.

A runaway sledge of mass 10 kg travelling at 15 m s reaches a horizontal snow field. It travels in a straight line before it comes to rest. Given that the force of friction slowing the sledge down has magnitude 60 N, calculate how far the sledge travels in the snow field.

A particle P of mass m kg is moving in a straight line with constant deceleration. It passes point A with speed 6 ms and point B with speed 3.6 m s. Given that the distance between A and B is 12 m, calculate, in terms of m, the magnitude of the force resisting the motion of P.

A particle P of mass m kg is moving in a straight line with constant deceleration. It passes point A with speed 6 ms and point B with speed 3.6 m s. Given that the distance between A and B is 12 m, calculate, in terms of m, the magnitude of the force resisting the motion of P.

A particle P of mass m kg is moving in a straight line with constant deceleration. It passes point A with speed 6 ms and point B with speed 3.6 m s. Given that the distance between A and B is 12 m, calculate, in terms of m, the magnitude of the force resisting the motion of P.

Two children are sliding a box to each other on a frozen lake. The box, of mass 0.4 kg, leaves one child with speed 5 ms and reaches the other, who is 8 m away, after 2.5s. Calculate the deceleration of the box, and find the frictional force resisting the motion of the box.

Two children are sliding a box to each other on a frozen lake. The box, of mass 0.4 kg, leaves one child with speed 5 ms and reaches the other, who is 8 m away, after 2.5s. Calculate the deceleration of the box, and find the frictional force resisting the motion of the box.

Two children are sliding a box to each other on a frozen lake. The box, of mass 0.4 kg, leaves one child with speed 5 ms and reaches the other, who is 8 m away, after 2.5s. Calculate the deceleration of the box, and find the frictional force resisting the motion of the box.

A van is pulling a broken-down car of mass 1200 kg along a straight horizontal road. The only force acting on the car which affects the motion of the car is the tension in the horizontal towbar. Calculate the acceleration of the car when the tension is 750 N.

A van is pulling a broken-down car of mass 1200 kg along a straight horizontal road. The only force acting on the car which affects the motion of the car is the tension in the horizontal towbar. Calculate the acceleration of the car when the tension is 750 N.

A van is pulling a broken-down car of mass 1200 kg along a straight horizontal road. The only force acting on the car which affects the motion of the car is the tension in the horizontal towbar. Calculate the acceleration of the car when the tension is 750 N.