The more elevated the launcher is the shorter the range of the launcher to the ball.
Hope it helps :)
first angle projection and third angle projection.
We convert inches to mm sizes. 1 inch = 25.4 mm
Orthographic drawings are typically projected at a right angle, meaning the projection lines are perpendicular to the drawing plane. This method allows for the accurate representation of the dimensions and shapes of an object without distortion. Common views in orthographic projection include the front, top, and side views, which are aligned to provide a comprehensive understanding of the object's geometry.
The main advantage of oblique projection over isometric projection is its ability to represent an object's depth more intuitively, allowing for a clearer visualization of features that might be obscured in isometric views. In oblique projection, the front face of the object is shown in true scale, while the depth is represented at an angle, making it easier to depict complex shapes and provide a sense of perspective. This can enhance understanding, especially for technical illustrations and architectural drawings.
Oblique projection is a type of graphical projection used to represent three-dimensional objects in two dimensions. The key principles include projecting the object onto a plane using parallel lines that are not perpendicular to the projection plane. Typically, the front face of the object is shown in its true shape and size, while the depth is represented at an angle (often 30 or 45 degrees) to create a sense of depth. This method allows for a clear depiction of the object's dimensions and features without the distortion that can occur in perspective drawings.
"the higher the altitude the lower the range "
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.
Max height H = u2 sin2@ / 2g So as we increase the angle of projection, then max height too increases and its value will be just u2/2g when it is projected vertically upwards ie @ = 90 deg
The angle of projection significantly affects the time of flight of a projectile. As the angle increases from 0° to 90°, the time of flight initially increases, reaching a maximum at 45°. Beyond this angle, the time of flight decreases as the angle approaches 90°, because while the vertical component of the velocity increases, the horizontal component decreases, resulting in a shorter range and less overall time in the air. Thus, for a given initial speed, the optimal angle for maximizing time of flight is 90°, but the optimal angle for maximizing range is 45°.
the angkle of projection is an angle and the projection
first angle projection and third angle projection.
Neglecting term "opposite".. In third angle projection, what we see are what are we going to draw
In a first angle projection, the object stands in between the observer and the plane of projection. In a third angle project, the object and the plane of projection is interchanged.
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The range of projectile is maximum when the angle of projection is 45 Degrees.
third angle
thrid angle projection is officially used in Australia, for a fact, not lying!!