
$h _1+ h _2=0.68$ $. . . . . . .(2)$
$\Rightarrow P _0+\rho_{ k } g (0.1)+\rho_\pi g \left( h _1-0.1\right)\left[\rho_{ k }=\text { density of kerosene } \ \rho_{ w }=\text { density of water }\right]$
$-\rho_\pi gh _2= P _0$
$\Rightarrow \rho_{ k } g (0.1)+\rho_\pi gh _1-\rho_\pi g \times(0.1)$
$=\rho_\pi gh _2$
$\Rightarrow 800 \times 10 \times 0.1+1000 \times 10 \times h _1$
$-1000 \times 10 \times 0.1=1000 \times 10 \times h _2$
$\Rightarrow 10000\left( h _1- h _2\right)=200$
$\Rightarrow h _1- h _2=0.02$ $. . . . . . .(2)$
$\Rightarrow h_1=0.35$
$\Rightarrow h_2=0.33$
So, $\frac{ h _1}{ h _2}=\frac{35}{33}$

$(A)$ $d_Ad_F$ $(B)$ $d_B > d_F$ $(C)$ $d_A>d_F$ $(D)$ $d_A+d_B=2 d_F$
Statement $I :$ Pressure in a reservoir of water is same at all points at the same level of water.
Statement $II :$ The pressure applied to enclosed water is transmitted in all directions equally.
In the light of the above statements, choose the correct answer from the options given below:
