Given that the velocity of the center of mass (VCM) is:
\( V_{\text{CM}} = 2R \omega \)
At the point of contact, we have:
\( V_{\text{CM}} = \omega_0 R \Rightarrow \omega_0 = 2 \omega \)
Now, the angular momentum of disk B with respect to the center of disk A is calculated as:
\( L = \left( \frac{MR^2}{2} \right) (\omega_0) + M (2R \omega) (2R) \)
Substitute the values of \( \omega_0 \) and simplify:
\( L = \left( \frac{MR^2}{2} \right) (2\omega) + 4MR^2 \omega \)
\( L = 5MR^2 \omega \) and hence, \( n = 5 \).
Two identical concave mirrors each of focal length $ f $ are facing each other as shown. A glass slab of thickness $ t $ and refractive index $ n_0 $ is placed equidistant from both mirrors on the principal axis. A monochromatic point source $ S $ is placed at the center of the slab. For the image to be formed on $ S $ itself, which of the following distances between the two mirrors is/are correct:
The major products obtained from the reactions in List-II are the reactants for the named reactions mentioned in List-I. Match each entry in List-I with the appropriate entry in List-II and choose the correct option.
Rotational motion can be defined as the motion of an object around a circular path, in a fixed orbit.
The wheel or rotor of a motor, which appears in rotation motion problems, is a common example of the rotational motion of a rigid body.
Other examples: