A body of mass 5 kg is projected up an inclined plane at 30 degree with the horizontal with an initial velocity of 6 metre per second if the frictional force opposing is motion 4.5 Newton then calculate the distance travelled by the body before coming to rest.

Q. A block slides down a rough inclined plane of slope angle $\theta$ with a constant velocity. It is then projected up the same plane with an initial velocity v. The distance travelled by the block up the plane before coming to rest is

Q. A body of mass $2kg$ is projected with an initial velocity of $5m{s}^{-1}$ along a rough horizontal table.The magnitude of work done on the body by the frictional forces before it is brought to rest is:

Q. A body of mass $m$ is pushed with the initial velocity $v_0$ up an inclined plane set at an angle $\alpha$ to the horizontal. The friction coefficient is equal to $k$. What distance will the body cover before it stops and what work do the friction forces perform over this distance?

Q. A body of mass $m_1$ projected vertically upwards with an initial velocity u reaches a maximum height h. Another body of mass $m_2$ is projected along an inclined plane making an angle ${30}^0$ with the horizontal and with speed u. The maximum distance travelled along the incline is

Q. A block of mass $m$ slides down an inclined plane of slope angle $\theta$ with constant velocity. Now, same block is projected up an inclined plane with an initial velocity $u$. If the coefficient of kinetic friction between the block and the plane is $\mu$, the distance up to which the block will rise up the plane, before coming to rest is :-