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Two blocks are free to slide along the frictionless wooden track shown below. The block of mass m1 = 4.97 kg is released from the position shown, at height h = 5.00 m above the flat part of the track. Protruding from its front end is the north pole of a strong magnet, which repels the north pole of an identical magnet embedded in the back end of the block of mass m2 = 9.20 kg, initially at rest. The two blocks never touch. Calculate the maximum height to which m1 rises after the elastic collision. m

Two blocks are free to slide along the frictionless wooden track shown below. The block of mass m1 = 4.97 kg is released from the position shown, at height h = 5.00 m above the flat part of the track. Protruding from its front end is the north pole of a strong magnet, which repels the north pole of an identical magnet embedded in the back end of the block of mass m2 = 9.20 kg, initially at rest. The two blocks never touch. Calculate the maximum height to which m1 rises after the elastic collision. m

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Two blocks are free to slide along the frictionless wooden track shown below. The block of mass m 1 = 4.97 k g is released from the position shown, at height h = 5.00 m above the flat part of the track. Protruding from its front end is the north pole of a strong magnet, which repels the north pole of an identical magnet embedded in the back end of the block of mass m 2 = 9.20 k g , initially at rest. The two blocks never touch. Calculate the maximum height to which m 1 rises after the elastic collision. ◻ m (i)

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