do not get the same post. good feedback if satisfy.

4. Selecting other materials aside from solid sphere, would you obtain the same relationships for the angular acceleration, linear acceleration, summation of torque and moment of inertia considering the three conditions in Table 4.1, T 4.2 and Table 4.3?

Table 4.1 keeping the pulley radiys and pulling force constant while varying the pull mass

T 4.2 keeping the pulley mass and pulling force constant with varying pulley radius

Table 4.3 keeping the pulley radius and pulley mass constant while varying the pulling force

4.1

Trial PULLEY PULLEY PULLING {T (N.m)u(rad. }a(mf} Rotational RADIUS MASS (kg) FORCE inertia (I) (m) (N) Kg. 1 1.5 5 30 45 10 15 11.25 2 1.5 5 30 45 8.33 12.5 13.5 3 1.5 7 311 45 7.14 10.71 15.75 4 1.5 3 3o 45 5.25 9.35 13 5 1.5 9 3o 45 5.55 5.33 20.25 Table 4.2 ~ keeping the pulley mass and pulling force constant with varying pulley radius TRIAL PULLEY PULLEY PULLING ET (H.111) a (H1152) Rotationa RADIUS MASS FORCE (rad 52) I inertia {ml (kg) (N) [1] Kg. m2 Pulley Pulley Pulling Rotational Trial Radius Mass Force ET (N.m) a (rad.s2 ) a (m/s2 ) inertia (1) (m) (kg) (N) Kg.m2 2 5 10 20 2.5 5 50 2 2 15 30 3.75 7.5 112. 3 2 20 40 5 10 200 2 5 25 60 6.25 12.5 30 60 7.5 15