A block is attached to a spring and is placed on a horizontal smooth surface as shown in which spring is unstretched. Now the spring is given an initial compression `2x_(0)` an block is released from rest. Collision with the wall `PQ` are elastic.

Find the time period of motion of the block:

A block is attached to a spring and is placed on a horizontal smooth surface as shown in which spring is unstretched. Now the spring is given an initial compression 2x_(0) an block is released from rest. Collision with the wall PQ are elastic. Write its equation of motion indicating position as a function of time:

A block is attached to a spring and is placed on a horizontal smooth surface as shown in which spring is unstretched. Now the spring is given an initial compression 2x_(0) an block is released from rest. Collision with the wall PQ are elastic. Draw x-t (position-time) graph for one period. Treating position of block in unstretched position of spring as origin

A block of mass m is attached with a spring in vertical plane as shown in the figure. If initially spring is in its natural length and the block is released from rest, then maximum extension in the spring will be

In the figure, the block of mass m, attached to the spring of stiffness k is in correct with the completely elastic wall, and the compression in the spring is e. The spring is compressed further by e by displacing the block towards left and is then released. If the collision between the block and the wall is completely eleastic then the time period of oscillation of the block will be

In the figure, the block of mass m, attached to the spring of stiffness k is in correct with the completely elastic wall, and the compression in the spring is e. The spring is compressed further by e by displacing the block towards left and is then released. If the collision between the block and the wall is completely eleastic then the time period of oscillation of the block will be

A block of mass m is attached to a spring of force constant k whose other end is fixed to a horizontal surface. Initially the spring is in its natural length and the block is released from rest. The average force acting on the surface by the spring till the instant when the block has zero acceleration for the first time is

A block of mass m is attached to a spring of force constant k whose other end is fixed to a horizontal surface. Initially the spring is in its natural length and the block is released from rest. The average force acting on the surface by the spring till the instant when the block has zero acceleration for the first time is

A block of mass 100 g attached to a spring of stiffness 100 N//m is lying on a frictionless floor as shown. The block is moved to compress the spring by 10 cm and released. If the collision with the wall is elastic then find the time period of oscillations.

A spring block system is placed on a rough horizontal surface having coefficient of friciton mu . The spring is given initial elongation 3mumg//k (where m=mass of block and k=spring constant) and the block is released from rest. For the subsequent motion, find a. Initial acceleration of block b. Maximum compression in spring c. Maximum speed of the block

A spring block system is placed on a rough horizontal surface having coefficient of friciton mu . The spring is given initial elongation 3mumg//k (where m=mass of block and k=spring constant) and the block is released from rest. For the subsequent motion, find a. Initial acceleration of block b. Maximum compression in spring c. Maximum speed of the block