lukus09
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i know how to plot horizontal dispacement (x axis) against vertical displacement (y axis) but i want to plot displacement (x axis) vs theta (y axis)?
The discussion revolves around plotting displacement against the angle of projection (theta) for projectile motion, particularly considering the effects of drag. Participants explore the relationship between total range and the angle of projection, as well as the underlying physics principles involved.
The discussion is active, with participants providing insights into the modeling of projectile motion with drag and exploring the implications of different approaches. There is a mix of understanding regarding the foundational physics concepts, and some participants are seeking clarification on how to integrate their existing knowledge with the new considerations of drag.
Some participants express uncertainty about their prior knowledge of projectile motion, specifically whether it was treated mathematically or conceptually. There are also mentions of specific data points and their relevance to determining angles from displacement graphs.
Gib Z said:For a single given theta, the displacement still varies over time. Perhaps you mean total range?
If you want to plot Range on the x-axis and angle of projection on the y axis, first you have to find an equation that relates them.
Gib Z said:For a single given theta, the displacement still varies over time. Perhaps you mean total range?
If you want to plot Range on the x-axis and angle of projection on the y axis, first you have to find an equation that relates them.
Gib Z said:Okay in response to the personal message, you have no done drag, although you have done projectile motion in a vaccum. Now I'm guessing I am safe in assuming that this was projectile motion in 2 dimensions, but I now need to know, did you receive a basic physics treatment of it ( just using the basic equations, v= u + at, v^2 = u^2 + 2as, etc etc) or a mathematical treatment of it, using calculus to derive the equations from knowing the acceleration and substituting in initial conditions? You will need a good knowledge of the second one to incorporate drag.