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didnt work for me

Just enjoy your break

um have a student carry a mass tied to a string. if they walk at a constant pace the pendulum will not move ->inertial f.o.r if the walk at an increasing pace the pendulum should tilt back -> non-inertial f.o.r this is kinda hard to do since it would be hard to walk exactly at a constant pace

the experiment you provided is to calculate g To distinguish inertial and non-inertial frames you would have a pendulum inside a vehicle. Traveling at constant speed (ie non-accelerating) the pendulum will not move ->inertial frame of reference. If the vehicle accelerates the pendulum will move...

wat

iirc I did it this way using T^{2}=\frac{4\pi^{2}L }{g} we get y=T^{2},x=L~and~slope=4\pi ^{2}/g~~~ \mapsto g=4\pi ^{2}/slope plotting T^{2}~and~L should give you a slope of 4 since g\approx \pi ^{2}

Ive heard Dihydrogen Monoxide is a pretty rad drink

so you decide to quote it.... lol

but i gotta say dats some pretty impressive cross eyedness

uhm i think you should remove the pic of her lol

~2 months in and already accepting defeat? potato im disappointed in you

look you were so optimistic, what happened? :/

bro u havent even finished ugrad get on my level first then talk

Phd in Swagology

if this starting and finishing on the ground? or from a cliff? Is the max height of the projectile given?

lol

this is assuming t=21 is time of flight this is assuming t=21 is time to max height so one of them is incorrect irrc or maybe im just derping

oh its a different case then lol

wow square you gotta learn to control yourself