The equations of motion of the package are "y(t) = h - \\frac{g t^2}{2}", "x(t) = v_0 t", where "h" is the initial altitude, "v_0" - initial velocity of the package.
Equating altitude to zero, one can find the time "T" it will take to reach the ground: "0 = h - \\frac{g T^2}{2} \\Rightarrow T = \\sqrt{\\frac{2 h}{g}}".
Therefore, the horizontal distance before dropping the package should be "L= x(T) = v_0 T = v_0 \\sqrt{\\frac{2 h}{g}} \\approx 2197.8 m".
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