Let $\left(x_0, y_0\right)$ be the solution of the following equations $(2 x)^{\ln 2} =(3 y)^{\ln 3}$ $3^{\ln x} =2^{\ln y}$ . Then $x_0$ is
$\frac{1}{6}$
$\frac{1}{3}$
$\frac{1}{2}$
$6$
If ${\log _7}2 = m,$ then ${\log _{49}}28$ is equal to
The set of real values of $x$ for which ${\log _{0.2}}{{x + 2} \over x} \le 1$ is
For $y = {\log _a}x$ to be defined $'a'$ must be
The number of real values of the parameter $k$ for which ${({\log _{16}}x)^2} - {\log _{16}}x + {\log _{16}}k = 0$ with real coefficients will have exactly one solution is
The set of real values of $x$ for which ${2^{{{\log }_{\sqrt 2 }}(x - 1)}} > x + 5$ is