7-37 and 7-39

In Problems 7-37 through 7-40, determine whether the given transfer function is stable, unstable, or marginally stable. (None represents driving-point impedance functions.) $7 - 37 7 - 38 7 - 39 G (s) = \frac{20 ( s ^{2} + 16 ) ( s + 4 )}{( s ^{2} + 3 s + 2 ) ( s ^{2} + 6 s + 25 )} G (s) = \frac{100 s ( s - 2 )}{( s ^{2} + 16 ) ( s ^{2} + 6 s + 8 )} G (s) = \frac{2 s ( s + 4 )}{s ^{2} + s - 2}$

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7-37 and 7-39
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In Problems 7-37 through 7-40, determine whether the given transfer function is stable, unstable, or marginally stable. (None represents driving-point impedance functions.)

7 - 37 7 - 38 7 - 39 G (s) = \frac{20 ( s ^{2} + 16 ) ( s + 4 )}{( s ^{2} + 3 s + 2 ) ( s ^{2} + 6 s + 25 )} G (s) = \frac{100 s ( s - 2 )}{( s ^{2} + 16 ) ( s ^{2} + 6 s + 8 )} G (s) = \frac{2 s ( s + 4 )}{s ^{2} + s - 2}

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