Applications of Bernoulli’s theorem can be seen in:

A cylindrical container containing water has a small hole at height of $H=8 \mathrm{cm}$ from the bottom and at a depth of $2 \mathrm{cm}$ from the top surface of the liquid. The maximum horizontal distance travelled by the water before it hits the ground $\left(x\right)$ is

In the diagram shown, the difference in the two tubes of the manometer is $5 \mathrm{cm}$, the cross-section of the tube at $A$ and $B$ is $6 {\mathrm{mm}}^2$ and $10 {\mathrm{mm}}^2$ respectively. The rate at which water flows through the tube is $\left(g=10 \mathrm{m} {\mathrm{s}}^{-2}\right)$

An incompressible liquid flows through a horizontal tube as shown in the following fig. Then the velocity v of the fluid is

A small hole is made at the bottom of a symmetrical jar as shown in figure. A liquid is filled into the jar upto a certain height. The rate of descension of liquid is independent of the level of the liquid in the jar. Then the surface of the jar is a surface of revolution of the curve -

As shown in the figure a liquid of density $\rho$ is standing in a sealed container to a height $h$. The container contains compressed air at a gauge pressure of $p$. The horizontal outlet pipe has a cross-sectional area$\frac{A}{2}$at $E$. Find the correct options.