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Collisions: Crash Course Physics #10



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COLLISIONS! A big part of physics is understanding collisions and how they’re not all the same. Mass, momentum, and many other things dictate how collisions can be unique. In this episode of Crash Course Physics, Shini sits down to lead us through an understanding of collisions. Plus, she brings a long our old friend Sir Isaac Newton.

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22 thoughts on “Collisions: Crash Course Physics #10
  1. Finally! A video I found an actual use for making legitimate use for YouTube's slow-down feature rather than only making people sound drunk. ?

  2. how is it that i can have a teacher tell me something for an entire semester but won't understand it until i watch a 10 minute crash course video? i'm killing this physics final today!

  3. The ball equation on when the ball hits the wall and changes its force in half a second. The equation itself was correct but the answer is 3.125. This is important for people taking the AP Physics C test, for they need you to round to the nearest 3 decimals.

  4. 3:18 That isn't quite true.

    "For this to be a true elastic collision all of the kinetic energy from the white ball would have to be transferred to the red ball."

    For the collision to be elastic, the white ball doesn't necessarily have to transfer all it's kinetic energy to the red and come to a complete stop. The white ball can absolutely still have kinetic energy after the collision so long as the total energy of the system (the sum of the kinetic energies in each ball) is equal to the kinetic energy of the white ball before the collision. True, if the white ball transfers all of it's kinetic energy to the red, the collision is elastic. However, this does not have to be the case for ALL elastic collisions in this scenario.

  5. me: im going to read my barron's book for physics
    me instead: watches physics crash course while debating making brownies

    update: i made the brownies and will be giving them to my classmates tomorrow

  6. Technically, cue balls weigh a half an ounce more than the rest of the billiard balls so in order to stop a cue ball in its tracks, other forces would have to come into play. It's pretty good practice to hit a cue just below center to create a backspin which adds a little more friction to the equation, preventing the cue ball from following the 8-ball in causing you to lose that game where you ran the table on Mick. You won on technicality Mick! I'm still better than you!

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