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| List-$I$ | List-$II$ |
| $A$. $|k^{-1} A^{-1}|$ | $I$. $BA^k + A^kB$ |
| $B$. $|\text{Adj}(A^{-1})|$ | $II$. $\frac{B\text{Adj}(B)}{|B|}$ |
| $C$. $BAB^{-1} = I \Rightarrow BA^kB^{-1} =$ | $III$. $\frac{1}{|B|^3|A|}$ |
| $D$. $\text{Adj}(\text{Adj}(A^{-1})) =$ | $IV$. $\frac{1}{|A|}(A^{-1})$ |
| $V$. $\frac{1}{|A|^2}$ |
Let $A=\left[\begin{array}{ll}0 & 1 \\ 0 & 0\end{array}\right],$ show that $(a \mathrm{I}+b \mathrm{A})^{n}=a^{n} \mathrm{I}+n a^{n-1} b \mathrm{A},$ where $\mathrm{I}$ is the identity matrix of order $2$ and $n \in \mathrm{N}$.
| Column $I$ | Column $II$ |
| $(A)$ The set $\{\operatorname{Re}(\frac{2 i z}{1-z^2}): |z|=1, z \neq \pm 1\}$ is | $(p)$ $(-\infty,-1) \cup(1, \infty)$ |
| $(B)$ The domain of $f(x)=\sin ^{-1}(\frac{8(3)^{x-2}}{1-3^{2(x-1)}})$ is | $(q)$ $(-\infty, 0) \cup(0, \infty)$ |
| $(C)$ If $f(\theta)=\left|\begin{array}{ccc}1 & \tan \theta & 1 \\ -\tan \theta & 1 & \tan \theta \\ -1 & -\tan \theta & 1\end{array}\right|$,then the set $\{f(\theta): 0 \leq \theta < \frac{\pi}{2}\}$ is | $(r)$ $[2, \infty)$ |
| $(D)$ If $f(x)=x^{3 / 2}(3 x-10), x \geq 0$,then $f(x)$ is increasing in | $(s)$ $(-\infty,-1] \cup[1, \infty)$ |
| $(t)$ $(-\infty, 0] \cup[2, \infty)$ |
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