75.96... degrees from the horizontal.
Let the projectile be launched with speed v at an angle θ degrees above the horizontal. Then its vertical speed component is v sin θ, and its horizontal component is v cos θ.
The time of flight is t = 2 v sin θ / g, so that the range R is given by
R = v t cos θ = 2 v^2 sin θ cos θ / g.
The maximum height is given by H = (v sin θ)^2 / (2 g).
(You may think of this is as merely an application of the standard result that, dropping from rest in the second half of the flight, the downward speed u = v sin θ must be related to the downward acceleration a and distance d travelled by u^2 = 2ad. In this context, where a = g and d = H, that is equivalent to the conservation of kinetic plus potential energy, of course.)
If R = H, then v^2 sin^2 θ / (2 g) = 2 v^2 sin θ cos θ / g.
Therefore sin θ / cos θ = tan θ = 4.
Thus θ = arctan (4) = 75.96... degrees.
Live long and prosper.
EDIT : Note that the following answer contains a small error --- the formula presented for the maximum height H lacks the divisor 2 that it should properly have. Only with its incusion could one obtain the general result that
tan θ = 4H/R.
The horizontal distance will be doubled.
90
its 45 degree
area=(1/2)*base*height
The area of a right angle is nothing bro, if you mean the area of a right angle triangle then uts simple formula is : 1/2×Base×Height(Perpendicular of the right angled triangle) Alternative method: Heron's formula!
The range of projectile is maximum when the angle of projection is 45 Degrees.
45 degrees.
15.42 degrees
projection speed projection angle projection height
The maximum height of a projectile depends on its initial velocity and launch angle. In ideal conditions, the maximum height occurs when the launch angle is 45 degrees, reaching a height equal to half the maximum range of the projectile.
The angle of projection affects the maximum height by determining the vertical and horizontal components of the initial velocity. At 90 degrees (vertical), all the initial velocity is vertical which results in maximum height. As the angle decreases from 90 degrees, the vertical component decreases, leading to a lower maximum height.
Changing the angle of projection affects the magnitude of range, maximum height, and time of flight. A higher angle will decrease the range and increase the maximum height while maintaining the time of flight. A lower angle will increase the range and decrease the maximum height while also maintaining the time of flight.
The range of a projectile is influenced by both the initial velocity and launch angle, while the height of the projectile is affected by the launch angle and initial height. Increasing the launch angle typically decreases the range but increases the maximum height of the projectile.
The launch angle and initial speed of a projectile are both factors that determine the range and height of the projectile. A higher launch angle with the same initial speed will typically result in a longer range but lower maximum height. Conversely, a lower launch angle with the same initial speed will result in a shorter range but a higher maximum height.
To determine the maximum height reached in projectile motion, you can use the formula: textMaximum height left(fracv02 sin2(theta)2gright) where ( v0 ) is the initial velocity, ( theta ) is the launch angle, and ( g ) is the acceleration due to gravity. By plugging in these values, you can calculate the maximum height the projectile reaches.
The angle of projection in projectile motion is determined by using the formula: arctan(vy / vx), where is the angle of projection, vy is the vertical component of the initial velocity, and vx is the horizontal component of the initial velocity.
"the higher the altitude the lower the range "