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what happens when you slowly pulled the cardboard?
When I slowly pulled the cardboard, the coin placed on top of the cardboard remained at rest but was dragged along with cardboard. Explanation: That is because, the coin was dragged by the force in the surface of the cardboard called friction.
What happen when you slowly fulled the cardboard and it have a coin in top?
the coin will at rest because you slowly pull the cardboard
What happene when you pulling the cardboard?
When I slowly pulled the cardboard, the coin placed on top of the cardboard remained at rest but was dragged along with cardboard. Explanation: That is because, the coin was dragged by the force in the surface of the cardboard called friction.
When the cardboard is at rest how do the magnitudes and directions of the pair of forces acting on it?
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When the cardboard is at rest how do magnitudes and directions of the pair of forces acting on it?
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When the cardboard is at rest how do the magnitudes and directions of the pair forces acting on it compare?
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When the cardboard is at rest how do the magnitudes and directions of the pair of forces acting on it compare?
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When the cardboard is at rest how the magnitudes and directions of the pair of forces acting on it compare?
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When the cardboard is at rest how do magnitudes and directions of the pair of forces acting on it compare?
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When the cardboard is at rest now the magnitudes and directions of the pair of forces acting on it compare?
you will know the answer if you visualize it
When the cardboard is at rest how would you compare the magnitudes and directions of the pair of forces acting on it?
Since the cardboard is at rest we know that it is not experiencing any acceleration, hence, the net forces acting on it add up to zero (in magnitude and direction). Force equals mass times acceleration.
When the cardboard is at rest how do the magnitudes and directions of the pair of force acting on it compare?
For any object to be at rest the Forces acting on it must be EQUAL in magnitude and OPPOSITE in direction.
