A solid disk and a wedge of the same mass M are positioned at the top of a ramp with height h, and let go from rest in the Ideal Land of First Year Physics where there is no friction, but there is also rolling without slipping. Which one has the greater translational velocity when it gets to the bottom of the ramp?

A solid disk and a wedge of the same mass M are positioned at the top...
A solid disk and a wedge each have the same mass, M = 2.0 kg. They are positioned at the top of a ramp of length L = 4.0 m, which makes an angle of 300 with the horizontal. Both are let go from rest at the same height. (This takes place in the Ideal Land of First Year Physics where there is no friction, but there is also rolling without slipping.) What is the translational velocity of each one...
A solid sphere, a solid disk, and a thin hoop are all released from rest at the top of the incline (h0 = 20.0 cm). a) Without doing any calculations, decide which object would be spinning the fastest when it gets to the bottom. Explain b) Again, without doing any calculations, decide which object would get to the bottom first. Hint: which one has greater translational speed? Think CoE! c) Assuming all objects are rolling without slipping, have a mass...
A solid sphere, a solid disk, and a thin hoop are all released from rest at the top of the incline (h0 = 20.0 cm). a) Without doing any calculations, decide which object would be spinning the fastest when it gets to the bottom. Explain b) Again, without doing any calculations, decide which object would get to the bottom first. Hint: which one has greater translational speed? Think CoE! c) Assuming all objects are rolling without slipping, have a mass...
A solid sphere, a solid disk, and a thin hoop are all released from rest at the top of the incline (h0 = 20.0 cm). a) Without doing any calculations, decide which object would be spinning the fastest when it gets to the bottom. Explain b) Again, without doing any calculations, decide which object would get to the bottom first. Hint: which one has greater translational speed? Think CoE! c) Assuming all objects are rolling without slipping, have a mass...
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A solid sphere, a solid disk, and a thin hoop are all released from rest at the top of the incline (ho = 20.0 cm). a) Without doing any calculations, decide which object would be spinning the fastest when it gets to the bottom. Explain b) Again, without doing any calculations, decide which objďct would get to the bottom first. Hint: which one has greater translational speed? Think CoE! c) Assuming all objects are rolling without slipping,...
A tire (solid disk) has a mass of 10 kg and a radius of 0.25 m. The tire rests at the top of an incline. When released, the tire rolls without slipping down to the bottom of the incline. The top of the incline is 10 m in height above the bottom of the incline. a) What is the angular velocity of the tire at the bottom of the incline? b) What would the angular velocity at the bottom of...
A solid steel ball with mass = 1.0 kg and radius 0.25 m is held at rest on top of a ramp at height h = 2.0 m. The moment of inertia, I = (2/5)mR2 for a solid sphere. What is the final velocity of its center of mass, vcm, when it gets to the bottom of the ramp?
A uniform solid disk and a uniform hoop are placed side by side at the top of an incline of height h. If they are released from rest and roll without slipping, which object reaches the bottom first? solid disk uniform hoop it's a tie Verify your answer by calculating their speeds when they reach the bottom in terms of h. (Use any variable or symbol stated above along with the following as necessary: g for the acceleration of gravity.)...
A solid homogeneous sphere of mass M = 1.80 kg is released from rest at the top of an incline of height H=1.33 m and rolls without slipping to the bottom. The ramp is at an angle of θ = 26.9o to the horizontal. Calculate the speed of the sphere's CM at the bottom of the incline. Determine the rotational kinetic energy of the sphere at the bottom of the incline.
A solid homogeneous sphere of mass M = 4.70 kg is released from
rest at the top of an incline of height H=1.21 m and rolls without
slipping to the bottom. The ramp is at an angle of θ = 27.7o to the
horizontal.
a) Calculate the speed of the sphere's CM at the bottom of the
incline.
b) Determine the rotational kinetic energy of the sphere at the
bottom of the incline.