As shown , a small body of mass `50 g` placed over a larger mass `1950 g` whosw surface is horizontal near the smaller mass and gradually curves to become vertical. The smaller mass is pushed on the longer one at a speed `20 m//s` and the system is left to itself. All surfaces are smooth. Find the speed of the larger block when the smaller block is moving on the vertical part.

Figure shows a small body of mass m placed over a larger mass M whose surface is horizontal near the smaller mass and gradually curves to become verticle. The smaller mass is pushed on the longer on at a speed v and the system is left to itself. Assume thast all the surfaces are frictionless. a. find teh speed of the larger block when the smaller block is sliding on the vertical part. b. find the speed of the smaller mass when it breaks off the larger mas at height h. c. find the maximum height (from the ground) that the smaller mass seconds. d show that the smaller mass will again land on the bigger one. Find the distane traversed by the bigger block during the time when the smaller block was in its flight under gravity.

Figure shows a small body of mass m placed over a larger mass M whose surface is horizontal near the smaller mass and gradually curves to become verticle. The smaller mass is pushed on the longer on at a speed v and the system is left to itself. Assume thast all the surfaces are frictionless. a. find teh speed of the larger block when the smaller block is sliding on the vertical part. b. find the speed of the smaller mass when it breaks off the larger mas at height h. c. find the maximum height (from the ground) that the smaller mass seconds. d show that the smaller mass will again land on the bigger one. Find the distane traversed by the bigger block during the time when the smaller block was in its flight under gravity.

Assuming all the surfaces to be smooth, find the acceleration of the triangular block of mass M when the block of mass m slides on it.

A block of mass m is placed on a triangular block of mass M(M = 2m) , as shown. All surfaces are smooth. Calculate the velocity of triangular block when the smaller block reaches at bottom.

A block of mass m is placed on a triangular block of mass M(M = 2m) , as shown. All surfaces are smooth. Calculate the velocity of triangular block when the smaller block reaches at bottom.

Consider the situation as shown in the figure. All the surface are smooth and the string and pulley are light. Find the mass of the hanging block which will prevent the smaller block form slipping over the triangular block.

Consider the situation as shown in the figure. All the surface are smooth and the string and pulley are light. Find the mass of the hanging block which will prevent the smaller block form slipping over the triangular block.

Figure shows a small block of mass m which is started with a speed v on the horizontal part of the bigger block of mas m placed on a horizontal floor. The curved part of the surface shown is semicircular. All the surfaces are frictionless. Find the speed of the bigger block when the smaller block reaches the point A of the surface.

Figure shows a small block of mass m which is started with a speed v on the horizontal part of the bigger block of mas m placed on a horizontal floor. The curved part of the surface shown is semicircular. All the surfaces are frictionless. Find the speed of the bigger block when the smaller block reaches the point A of the surface.

Figure shows a small block of mass m which is started with a speed v on the horizontal part of the bigger block of mas m placed on a horizontal floor. The curved part of the surface shown is semicircular. All the surfaces are frictionless. Find the speed of the bigger block when the smaller block reaches the point A of the surface.