Let $\mathrm{ABC}$ be an equilateral triangle. A new triangle is formed by joining the middle points of all sides of the triangle $\mathrm{ABC}$ and the same process is repeated infinitely many times. If $\mathrm{P}$ is the sum of perimeters and $Q$ is be the sum of areas of all the triangles formed in this process, then:
$\mathrm{P}^2=36 \sqrt{3} \mathrm{Q}$
$\mathrm{P}^2=6 \sqrt{3} \mathrm{Q}$
$P=36 \sqrt{3} Q^2$
$\mathrm{P}^2=72 \sqrt{3} \mathrm{Q}$
Let $S_1$ be the sum of areas of the squares whose sides are parallel to coordinate axes. Let $S_2$ be the sum of areas of the slanted squares as shown in the figure. Then, $\frac{S_1}{S_2}$ is equal to
The numbers $(\sqrt 2 + 1),\;1,\;(\sqrt 2 - 1)$ will be in
If $a,\;b,\;c$ are ${p^{th}},\;{q^{th}}$ and ${r^{th}}$ terms of a $G.P.$, then ${\left( {\frac{c}{b}} \right)^p}{\left( {\frac{b}{a}} \right)^r}{\left( {\frac{a}{c}} \right)^q}$ is equal to
The product $(32)(32)^{1/6}(32)^{1/36} ...... to\,\, \infty $ is
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