Apologies for my misunderstanding. It was that simple, I just had a blind eye to the question. You have fully answered my question.
I sincerely thank anyone who has taken time out of their day to guide my misunderstanding.
Have a great day! :-)
So, I cant just use T = 2π/√(3g) * √(2L), the theoretical gradient being 2π/√(3g) which follows the y=mx+c format like post #6 suggested?
I will be comparing the theoretical gradient to the experimental gradient when I graph √(L) in √(m) in the x-axis against Period T in (s) in the y-axis.
I am supposed to be graphing sqrt(L), not sqrt(2L). Here's an example of "m" being "processed", I am guessing processed just means to separate the equation into y = mx+c structure, where T is period, m is the gradient, x is the independent variable (m), and c is the y-intercept. This example...
Thanks for the further clarification!
I do know how to manipulate that equation in that way, except I am confused on how I can process with T = 2πsqrt(2L/3g), I am not sure how to get rid of the 2 in 2L. I came to this T = 2π/√(3g) * √(2L), but the √(2L) should be √(L) instead.
Initially I went from:
T = 2π√(2L/3g)
T = 2π/√(3g) * √(2L)
To finally this equation:
T = 2π/√(3g) * √(L)
Where 2L becomes L as the 2 is lost. I am not fully sure if this is correct or how to properly get rid of the 2 in 2L.We must follow the rule of y = mx+c whereby y = T, m = the constant...