3) A bicycle wheel has a mass of 1.0 kg, a radius of 0.35 m, and a rotational inertia of0.1225 kg-m². The wheel is spun up to a rotational velocity of 6 radians per secondand then placed on the ground and released, allowing it to roll away. Assuming noenergy is lost to internal energy in this process, draw an energy bar chart for thisprocess and use it to determine the linear and rotational velocity of the wheel once itis released.Ability A4: Is able to use representations other than math/words to solve problemsNeeds WorkInadequateAdequateAll relevant representationswere used correctly to solvethe problem and the waysthey were used are clearlyexplained.AdequateBar chart is properlylabeled and has energybars of appropriatemagnitudes. The system isclearly identified.All relevant representationswere used to solve theproblems, but minor errorswere made or details of howthey were used are omitted.Not all relevantrepresentations were usedor representations wereused incorrectly to solve theproblem.Ability A8: Is able to construct an energy bar chartNeeds WorkBar chart has the energybars drawn correctly, butsome labels are missing orthe system is not identified.The bar chart matches theprocess described withsome other representation.InadequateBar chart is either missingenergy values, bars drawndo not show theconservation of energy orare drawn in the wrongplaces. Bars could also belabeled incorrectly. Thesystem is not identified.MissingRepresentations beyondmath/words may be presentbut were not used to thesolve of the problem.MissingNo representation isconstructed.

Given that:Mass of bycycle: m=1.0 kgRadius, r=0.35 mRotational innertia, I=0.1225 kg.m2Rotational…

Answered: A bicycle wheel has a mass of 1.0 kg, a…

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