constant velocity infographic

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A summary of the take-home messages of Unit 2 on Constant Velocity. This infographic was made on the Avery template 5164 for Word. It requires 4" x 3.33" shipping labels for print.

TRANSCRIPT

Page 1: Constant Velocity infographic

Constant  Velocity  Model  From  a  position-­‐time  graph,  an  object's  position  can  be  predicted  based  on  its  starting  position,  velocity,  and  time  interval  of  travel  

Buggy Lab

v = ΔxΔt

x = vt + xi

v = viWhen velocity is constant, a graph of velocity v. time will be a horizontal line and the velocity at any time will be equal to the starting velocity

Δx = vt

The object's displacement is equal to the area under the curve

slope =x f − xit f − ti

Constant  Velocity  Model  From  a  position-­‐time  graph,  an  object's  position  can  be  predicted  based  on  its  starting  position,  velocity,  and  time  interval  of  travel  

Buggy Lab

v = ΔxΔt

x = vt + xi

v = viWhen velocity is constant, a graph of velocity v. time will be a horizontal line and the velocity at any time will be equal to the starting velocity

Δx = vt

The object's displacement is equal to the area under the curve

slope =x f − xit f − ti

Constant  Velocity  Model  From  a  position-­‐time  graph,  an  object's  position  can  be  predicted  based  on  its  starting  position,  velocity,  and  time  interval  of  travel  

Buggy Lab

v = ΔxΔt

x = vt + xi

v = viWhen velocity is constant, a graph of velocity v. time will be a horizontal line and the velocity at any time will be equal to the starting velocity

Δx = vt

The object's displacement is equal to the area under the curve

slope =x f − xit f − ti

Constant  Velocity  Model  From  a  position-­‐time  graph,  an  object's  position  can  be  predicted  based  on  its  starting  position,  velocity,  and  time  interval  of  travel  

Buggy Lab

v = ΔxΔt

x = vt + xi

v = viWhen velocity is constant, a graph of velocity v. time will be a horizontal line and the velocity at any time will be equal to the starting velocity

Δx = vt

The object's displacement is equal to the area under the curve

slope =x f − xit f − ti

Constant  Velocity  Model  From  a  position-­‐time  graph,  an  object's  position  can  be  predicted  based  on  its  starting  position,  velocity,  and  time  interval  of  travel  

Buggy Lab

v = ΔxΔt

x = vt + xi

v = viWhen velocity is constant, a graph of velocity v. time will be a horizontal line and the velocity at any time will be equal to the starting velocity

Δx = vt

The object's displacement is equal to the area under the curve

slope =x f − xit f − ti

Constant  Velocity  Model  From  a  position-­‐time  graph,  an  object's  position  can  be  predicted  based  on  its  starting  position,  velocity,  and  time  interval  of  travel  

Buggy Lab

v = ΔxΔt

x = vt + xi

v = viWhen velocity is constant, a graph of velocity v. time will be a horizontal line and the velocity at any time will be equal to the starting velocity

Δx = vt

The object's displacement is equal to the area under the curve

slope =x f − xit f − ti