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.
Two plates of thickness 10 mm each are to be joined by a transverse fillet weld on one side and the resulting structure is loaded as shown in the figure below. If the ultimate tensile strength of the weld material is 150 MPa and the factor of safety to be used is 3, the minimum length of the weld required to ensure that the weld does NOT fail is _____________ mm (rounded off to 2 decimal places).} 
Two plates of thickness 10 mm each are to be joined by a transverse fillet weld on one side and the resulting structure is loaded as shown in the figure below. If the ultimate tensile strength of the weld material is 150 MPa and the factor of safety to be used is 3, the minimum length of the weld required to ensure that the weld does NOT fail is ____________ mm (rounded off to 2 decimal places).

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).
