1. Consider a solid sphere and a solid disk with the same radius and thesame mass. Explain why the solid disk has a greater moment of inertiathan the solid sphere, even though it has the same overall mass andradius.2. Calculate the moment of inertia for a solid cylinder with a mass of 100 gand a radius of 4.0 cm.3. In this question you will do some algebra to determine two relations thatyou will need for Part 2 of this lab. Write down Eq. 11 twice. In the firststatement, set the rotational kinetic energy term equal to zero(i.e. -lw? = 0) - call this your "No Krot model". Leave the second as it iswritten in Eq. 11- call this your "Krot model". For both models, solve for vin terms of g, h, and a. In the Krot model, you will need to use I = kMR?(Eq. 3) and w = V/r. The solution for the Krot model will have a k term aswell.Once you have solved for v, use the kinematic relation, v = at,and the trigonometric relationship, h = L sin 0, solve for t forboth models separately.NOTE: L is the length of the incline plane.NOTE: a is different for the two models (refer to the"Rotational Mechanics" discussion in the introduction):In the "No Krot model", a = g sin 0 (remember the Newton's 2nd Lawlab)In the "Krot model", a is given by equation 8These two solutions represent the predicted time it will take an objectto descend a height, h, down an inclined plane when you assume allkinetic energy in the system is translational (No Krot model) and whenyou assume the kinetic energy is distributed between translational androtational motion (Krot model).

Hello, Since your question has more than one part to solve. As per the honor code, I have solved the…

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1. Consider a solid sphere and a solid disk with the same radius and the same mass. Explain why the solid disk has a greater moment of inertia than the solid sphere, even though it has the same overall mass and radius.