Rube Goldberg Machine PRESENTED BY: DEAN KIDDER-BUELL, LIZ KING, BENJAMIN KLINGE, MARILYNN HUNT.

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Presentation transcript:

Rube Goldberg Machine PRESENTED BY: DEAN KIDDER-BUELL, LIZ KING, BENJAMIN KLINGE, MARILYNN HUNT

Step one Velocity=change of distance/change of time =1.15 m/s The average velocity of the marble down the screw is 1.15 m/s.

STEP 2 Mechanical advantage=number of pulleys MA= 1 force effort = force load

STEP 3 Work=change in potential energy= change in kinetic energy= energy transferred =0.13J The total energy transferred from our hammer to our small marble is 0.13J

STEP 4 Change in Kinetic Energy = Change in Potential Energy =0.56J The kinetic energy of our marble at the end of the inclined plane is 0.56J

STEP 5 Ideal Mechanical Advantage is equal to the distance of the effort from the fulcrum over the distance of the load from the fulcrum.

STEP 6 Toppling works by the center of gravity of an object being forced over the edge of the bottom. When is reaches this point, it falls over.

STEP 7 +

STEP 8

STEP 9

STEP 10