- ✓$0$
- B$-1$
- C$6\,\,\log {_e}\,2$
- D$6$
==> $y' = 3{x^2}\log {\log _e}\,(1 + x) + \frac{{{x^3}}}{{1 + x}}.\frac{1}{{{{\log }_e}(1 + x)}}$
==> $y'' = 6x\log {\log _e}(1 + x) + \frac{{3{x^2}}}{{{{\log }_e}(1 + x)}}.\frac{1}{{(1 + x)}}$
$ - \frac{{{x^3}}}{{{{(1 + x)}^2}{{\log }_e}(1 + x)}} - \frac{{{x^3}}}{{{{(1 + x)}^2}}}.\frac{1}{{{{[{{\log }_e}(1 + x)]}^2}}} + \frac{{3{x^2}}}{{(1 + x){{\log }_e}(1 + x)}}$
==> $y''(0) = 0$.
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$P$ (computer turns out to be defective given that it is produced in plant $T_1$ )
$=10 P\left(\right.$ computer turns out to be defective given that it is produced in plant $\left.T_2\right)$,
where $P(E)$ denotes the probability of an event $E$. A computer produced in the factory is randomly selected and it does not turn out to be defective. Then the probability that it is produced in plant $T_2$ is