Can all parametric equations be written in Cartesian form?
for example: can x=t^(3) and y=t^(2)+t be written in cartesian form?
\[x=t^{3}\] \[y=t ^{2}+t\]
yh, I suppose you'ld have to differentiate find dy/dx = (dx/dt)*(dt/dy)
you sure? Do you mean differentiate them both, combine the differentials and then integrate to form 1 equation?
\[dy/dx = (dx/dt)*(dt/dy)\] to find the gradient
I know that, but what has that got to do with parmetric equation conversion?
i dont want to find any gradients
by cartesian form what do you mean exactly, what kind of expression would like to see for example, in the equations above \[dy/dx = (dx/dt)/(dt/dy)= 2t ^{2}/2t+1\]
I would like to see a single equation in terms of ys and xs only
or substitute t \[x=t^{3} \therefore t = \sqrt[3]{x} \] \[y=t^{2} +t \therefore y=(\sqrt[3]{x})^{2} +(\sqrt[3]{x}) \] \[y =(x ^{2}+x)^{1/3}\]
I know how to do it, but can ALL parametric equations be put into cartesian?
nice q tho, prolly as long as both x and y terms relate with each other
Join our real-time social learning platform and learn together with your friends!