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Solve for X using Vi, Vf, and t
x=1/2(vi+vf)t
Solve for x using Vi, t, and a
x=Vi(t)+1/2a(t²)
Solve for x using Vf, Vi, and a
x=(Vf²-Vi²)/2a
Solve for t using x, Vi, and Vf
t=(2x)/(Vi+Vf)
Solve for t using Vf, Vi, and a
t=(Vf-Vi)/a
Solve for Vi using x, t, and Vf
Vi=((2x)/t)-Vf
Solve for Vi using Vf, a, and t
Vi=Vf-at
Solve for Vi using x, a, and t
Vi=(x-1/2a(t²))/t
Solve for Vi using Vf, a, and x
Vi=√Vf²-(2ax)
Solve for Vf using x, t, and Vi
Vf=((2x)/t)-Vi
Solve for Vf using Vi, a, and t
Vf=Vi+at
Solve for Vf using Vi, a, and x
Vf=√Vi²+(2ax)
Solve for a using Vf, Vi, t
a=(Vf-Vi)/t
Solve for a using x, Vi, and t
a=(2(x-Vit))/t²
Solve for a using Vf, Vi, and x
a=(Vf²-Vi²)/2x
Average velocity over the same distance
=(2(Vi)(Vf))/(Vi+Vf)
Component of vector formula
(X2-X1, Y2-Y1)
(Dropped) How far it will fall, find y using g and t
y=-1/2g(t²)
(Dropped) Velocity after any given time, find Vf using g and t
Vf=-gt
(Dropped) time it takes to fall given the distance, find t using y and g
t=√(-2y)/g
(thrown) Height of a thrown object in a given time, find h using Vi, t, and g
h=Vit-1/2g(t²)
(thrown) Velocity after a given time, find Vf using Vi, g, and t
Vf=Vi-gt
(thrown) find t using Vf, Vi, and g
t=(Vf-Vi)/-g