Let radius for the particle of mass M = OB = r and for the particle of mass m = OC = R
Let linear velocity for a particle of mass M = v1 and for the particle of mass m = v2
Let angular velocity for the particle having mass M = and for the particle having mass m=
Let Time period for the particle having mass M = T1 and for the particle having mass m = T2
\(T_1 = \frac{2\pi r}{v_1} \quad \text{and} \quad T_2 = \frac{2\pi R}{v_2}\)
Given: T1 = T2
\(⇒\)\(\frac{2\pi r}{v_1} = \frac{2\pi R}{v_2}\)
\(⇒\)\(\frac{r}{v_1} = \frac{R}{v_2}\)
\(⇒\)\(\frac{v_1}{r} = \frac{v_2}{R}\)
The above equation generated is the formula for angular velocity. hence:
\(⇒ \omega_1=\omega_2\)
\(⇒\frac{\omega_1}{\omega_2}=\frac{1}{1}\)
Therefore, the ratio of the angular velocity will be 1:1.
Therefore, the correct option is (C) : 1.
A string of length \( L \) is fixed at one end and carries a mass of \( M \) at the other end. The mass makes \( \frac{3}{\pi} \) rotations per second about the vertical axis passing through the end of the string as shown. The tension in the string is ________________ ML.
AB is a part of an electrical circuit (see figure). The potential difference \(V_A - V_B\), at the instant when current \(i = 2\) A and is increasing at a rate of 1 amp/second is: