An inclined plane is making an angle $\beta$ with horizontal. A projectile is projected from the bottom of the plane with a speed $u$ at an angle $\alpha$ with horizontal then its range $R$ when it strikes the inclined plane is :

Q. An inclined plane is making an angle $\beta$ with horizontal. A projectile is projected from the bottom of the plane with a speed $u$ at an angle $\alpha$ with horizontal then its maximum range $R_{max}$ is

Q. An inclined plane is making an angle $\beta$ with horizontal. A projectile is projected from the bottom of the plane with a speed $u$ at an angle $\alpha$ with horizontal then the time of flight $T$ is:

Q. A projectile is projected with speed $u$ at an angle of ${60}^o$ with horizontal from the foot of an inclined plane. If the projectile hits the inclined plane horizontally, the range on inclined plane will be

Q. An inclined plane makes as angle ${\theta }_0={30}^{\circ }$ with the horizontal. A particle is projected from this plane with a speed of $5\text{m/s}$ at an angle of elevation $\beta ={30}^{\circ }$ with the horizontal as shown in the figure.


Find the range of the particle on the plane when it strikes the plane. (Assume the incline is long enough and $g=10{\text{m/s}}^2$)

Q. An inclined plane makes as angle ${\theta }_0={30}^{\circ }$ with the horizontal. A particle is projected from this plane with a speed of $5\text{m/s}$ at an angle of elevation $\beta ={30}^{\circ }$ with the horizontal as shown in the figure.


Find the range of the particle on the plane when it strikes the plane. (Assume the incline is long enough and $g=10{\text{m/s}}^2$)