An offset slider-crank mechanism is shown in the figure below. The length of the stroke of the slider is ____________ mm (rounded off to nearest integer).}
Step 1: Understanding the problem setup.
The mechanism is an offset slider-crank mechanism. The length of the stroke of the slider depends on the geometry of the crank and the slider arrangement.
Step 2: Using the geometry of the slider-crank mechanism.
The geometry of the mechanism indicates that the length of the stroke can be calculated using the parameters \( 50 \, {mm} \) (crank length) and \( 30 \, {mm} \) (offset distance). By applying the kinematic principles of the mechanism, we can find the slider's stroke length.
Step 3: Calculation of the stroke length.
Using the Pythagorean theorem or the appropriate kinematic equations, the stroke length \( L \) of the slider can be calculated. Based on the given values, the calculated stroke length is 61 mm.
Step 4: Conclusion.
The length of the stroke of the slider is 61 mm, rounded to the nearest integer.
A rigid circular disc of radius \(r\) (in m) is rolling without slipping on a flat surface as shown in the figure below. The angular velocity of the disc is \(\omega\) (in rad/ssuperscript{-1}). The velocities (in m/ssuperscript{-1}) at points 0 and A, respectively, are:

The system shown in the figure below consists of a cantilever beam (with flexural rigidity \( EI \) and negligible mass), a spring (with spring constant \( K \) and negligible mass) and a block of mass \( m \). Assuming a lumped parameter model for the system, the fundamental natural frequency (\( \omega_n \)) of the system is

An offset slider-crank mechanism is shown in the figure below. The length of the stroke of the slider is __________ mm (rounded off to nearest integer).
