solve.

Consider the slider-crank mechanism shown in Fig. 1.16 with the crank rotating at a constant angular velocity $?$ . Use a graphical procedure to find the lengths of the crank and the connecting rod to maximize the velocity of the slider at a crank angle of $? = 3 0^{?}$ for $? = 100 rad / s$ . The mechanism has to satisfy Groshof's criterion $l ? 2.5 r$ to ensure $36 0^{?}$ rotation of the crank. Additional constraints on the mechanism are given by $0.5 ? r ? 10, 2.5 ? l ? 25$ , and $10 ? x ? 20$ . Figure 1.16 Slider-crank mechanism.

Question

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solve.

Consider the slider-crank mechanism shown in Fig. 1.16 with the crank rotating at a constant angular velocity

?

. Use a graphical procedure to find the lengths of the crank and the connecting rod to maximize the velocity of the slider at a crank angle of

? = 3 0^{?}

for

? = 100 rad / s

. The mechanism has to satisfy Groshof's criterion

l ? 2.5 r

to ensure

36 0^{?}

rotation of the crank. Additional constraints on the mechanism are given by

0.5 ? r ? 10, 2.5 ? l ? 25

, and

10 ? x ? 20

. Figure 1.16 Slider-crank mechanism.

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This an additional answer to -     solve.  Consider the slider-crank mechanism shown in Fig. 1.16 with the crank rotating at a cons

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