Posted by Jon on Monday, March 8, 2010 at 10:28pm.
Use a conservation of energy approach, and include the rotational kinetic energy of the pulley, KEr
KEr = (1/2)I w^2 = (1/4) m V^2
The radius of the pulley will cancel out. m is the mass of the pulley.
potential enegy change
= (1/2)[m1 + m2 + (m/2)] *V^2
I would need to see your figure 10-23 to know how the potential energy is related to the height.
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