Physics Formulas- Motion.

Acceleration

$a = \frac{Δ v}{t} = \frac{v_{f} - v_{i}}{t}$

$Δ v = C h a n g e i n v e l o c i t y (m / s)$

$v_{f} = F i n a l V e l o c i t y (m / s)$

$v_{i} = I n i t i a l v e l o c i t y (m / s)$

t = T i m e (s)

Average Velocity

$v_{a v e} = \frac{Δ x}{t}$

$Δ x = C h a n g e i n p o s i t i o n (m)$

$t = T i m e (s)$

Average Velocity

$v_{a v e} = \frac{(v_{i} + v_{f})}{2}$

$v_{i} = I n i t i a l v e l o c i t y (m / s) /math>$

$v_{f} = F i n a l v e l o c i t y (m / s) /math>$

Change in Position

$Δ x = v_{i} t + \frac{1}{2} a t^{2}$

$a = a c c e l e r a t i o n (m / s^{2})$

$v_{i} = I n i t i a l v e l o c i t y (m / s)$

$t = T i m e (s)$

Displacement

$x = (\frac{v_{i} + v_{f}}{2}) t$

$v_{i} = I n i t i a l v e l o c i t y (m / s) /math>$

$v_{f} = F i n a l v e l o c i t y (m / s) /math>$

$t = T i m e (s)$

Final Velocity

$v_{f} = v_{i} + a t$

$a = a c c e l e r a t i o n (m / s^{2})$

$v_{f} = F i n a l v e l o c i t y (m / s) /math>$

$v_{i} = I n i t i a l v e l o c i t y (m / s)$

$t = T i m e (s)$

Final Velocity–Alt Method

Physics Formulas- Motion.

a=Δvt=vf−vit

Δv=Change in velocity (m/s)

vf=Final Velocity (m/s)

vi=Initial velocity (m/s)

vave=Δxt

Δx=Change in position (m)

t=Time (s)

vave=(vi+vf)2

vi=Initial velocity (m/s)/math>

vf=Final velocity (m/s)/math>

Δx=vit+12at2

a=acceleration (m/s2)

vi=Initial velocity (m/s)

t=Time (s)

x=(vi+vf2)t

vi=Initial velocity (m/s)/math>

vf=Final velocity (m/s)/math>

t=Time (s)

vf=vi+at

a=acceleration (m/s2)

vf=Final velocity (m/s)/math>

vi=Initial velocity (m/s)

t=Time (s)

vf2=vi2+2aΔx

a=acceleration (m/s2)

Δx=Change in position (m)

vf=Final velocity (m/s)/math>

vi=Initial velocity (m/s)

$a = \frac{Δ v}{t} = \frac{v_{f} - v_{i}}{t}$

$Δ v = C h a n g e i n v e l o c i t y (m / s)$

$v_{f} = F i n a l V e l o c i t y (m / s)$

$v_{i} = I n i t i a l v e l o c i t y (m / s)$

$v_{a v e} = \frac{Δ x}{t}$

$Δ x = C h a n g e i n p o s i t i o n (m)$

$t = T i m e (s)$

$v_{a v e} = \frac{(v_{i} + v_{f})}{2}$

$v_{i} = I n i t i a l v e l o c i t y (m / s) /math>$

$v_{f} = F i n a l v e l o c i t y (m / s) /math>$

$Δ x = v_{i} t + \frac{1}{2} a t^{2}$

$a = a c c e l e r a t i o n (m / s^{2})$

$v_{i} = I n i t i a l v e l o c i t y (m / s)$

$t = T i m e (s)$

$x = (\frac{v_{i} + v_{f}}{2}) t$

$v_{i} = I n i t i a l v e l o c i t y (m / s) /math>$

$v_{f} = F i n a l v e l o c i t y (m / s) /math>$

$t = T i m e (s)$

$v_{f} = v_{i} + a t$

$a = a c c e l e r a t i o n (m / s^{2})$

$v_{f} = F i n a l v e l o c i t y (m / s) /math>$

$v_{i} = I n i t i a l v e l o c i t y (m / s)$

$t = T i m e (s)$

$v_{f}^{2} = v_{i}^{2} + 2 a Δ x$

$a = a c c e l e r a t i o n (m / s^{2})$

$Δ x = C h a n g e i n p o s i t i o n (m)$

$v_{f} = F i n a l v e l o c i t y (m / s) /math>$

$v_{i} = I n i t i a l v e l o c i t y (m / s)$