An aeroplane, when it is vertically above the point $A$ on the ground, drops a bomb which hits target $B$ on the ground. If the plane is moving at a height of $1.96km$ from the ground with a speed of $300m/s$, then distance between $A$ and $B$ is (neglecting air resistance)

Q. An aeroplane is flying horizontally with a velocity of $600\text{km/hr}$ and at a height of $2,000\text{m}$. When it is vertically above a point $A$ on the ground, a bomb is released from it. The bomb strikes the ground at point $B$. The distance $AB$ (in kilometer) is (neglecting air resistance, take
$g=10{\text{m/s}}^2$ )

Q. An aeroplane is travelling horizontally at a height of $2000\text{m}$ from the ground. The aeroplane, when at a point $\text{P}$, drops a bomb to hit a stationary target $Q$ on the ground. In order that the bomb hits the target, what angle $\theta$ must the line $\text{PQ}$ make with the vertical ?
$[g=10{\text{m/s}}^2]$

Q. An aeroplane is travelling horizontally at a height of $2000\text{m}$ from the ground. The aeroplane, when at a point P, drops a bomb to hit a stationary target Q on the ground. In order that the bomb hits the target, what angle $\theta$ must the line PQ make with the vertical ? $[g=10m{s}^{-2}]$

Q.

An aeroplane is flying horizontally with a velocity of 600 km/h at a height of 1960 m. When it is vertically above a point A on the ground, a bomb is released from it. The bomb strikes the ground at point B. The distance AB is

Q. An aeroplane is travelling horizontally at a height of $2000\text{m}$ from the ground. The aeroplane, when at a point P, drops a bomb to hit a stationary target Q on the ground. In order that the bomb hits the target, what angle $\theta$ must the line PQ make with the vertical ? $[g=10m{s}^{-2}]$