An experimental system consists of the solid cylinder of mass m and radius R that is able to rotate around its axis and is attached to the ceiling as shown. Two blocks of masses m1 and m2 are connected by a light, non-stretchable rope as shown. There is no slippage of the rope on the cylinder. Find the angular acceleration 'a' of the cylinder and the ratio of tension forces T1/T2 of the vertical portions of the rope while the blocks are moving. What is this ratio if mass of the cylinder m=0?
here is the pic for it attached
-T1+m1*g= m1* a..........(i) T1-m2*g=m2*a..........(ii) you'll get a= (m1-m2)/(m1+m2) now find the tension substituting the value of a and then torque= force(tension)* radius= moment of inertia * angular acceleration.... from this equation you'll get angular acceleration
\[\tau= i *\alpha = force*r\]
I got \[\alpha=(2F)/(mR)\] (of the cylinder) where i'm given 'm' and 'R'. but how can i relate it to Tension from the rope?
here force = tension acting in the rope
and you can find tension from the above equation
thank you!!
anytime
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