2. Derive an expression for the moment of inertia of the rod+ball system, given that a rod rotating about its end has a moment of inertia of ML, where M is its mass and L is its total length. Your expression should depend on m, M, and L only. I=((M/3)+m)+L^2 3. Using the other definition of angular momentum, L = Io, write an expression for the final momentum of the rod+ball system after the collision in terms of m, M, L,'and o. (3mv)/(M+3m)L %3D 4. Using your expression from step 1 and 3, using conseryation of angular momentum to solve for an expression for the final angular velocity of the rod+ball system after the collision (answer should be in terms of v, m, M, and L) only.

2. Derive an expression for the moment of inertia of the rod+ball system, given that a rod rotating about its end has a moment of inertia of ML, where M is its mass and L is its total length. Your expression should depend on m, M, and L only. I=((M/3)+m)+L^2 3. Using the other definition of angular momentum, L = Io, write an expression for the final momentum of the rod+ball system after the collision in terms of m, M, L,'and o. (3mv)/(M+3m)L %3D 4. Using your expression from step 1 and 3, using conseryation of angular momentum to solve for an expression for the final angular velocity of the rod+ball system after the collision (answer should be in terms of v, m, M, and L) only.