360886 A hole is made at the bottom of the tank filled with water
\(\left( {density = 1000kg/{m^3}} \right)\). If the total pressure at the bottom of the tank is three atomspheres ( 1 atmosphere \( = {10^5}\;N/{m^2}\) ), then the velocity of efflux is

360887 A wide vessel with a small hole in the bottom is filled with water and kerosene. Neglecting viscosity, the velocity of water flow \(v\) if the thickness of water layer is \(h_{1}\) and that of kerosene layer is \(h_{2}\) is (density of water is \({\rho _1}\;g\) / cc and that of kerosene is \(\left. {{\rho _2}\;g/cc} \right)\left( {{\rho _1} > {\rho _2}} \right)\)

360888 There are two identical small holes on the opposite sides of a tank containing a liquid. The tank is open at the top. The difference in height between the two holes is \(h\). As the liquid comes out of the two holes, the tank will experience a net horizontal force proportional to

360889 If a small orifice is made at a height of \(0.25\,m\) from the ground, the horizontal range of water stream will be

360890 The pressure of water in a pipe when tap is closed is \(5.5 \times {10^5}\;N/{m^2}\). When tap gets open, pressure reduces to \(5 \times {10^5}\;N/{m^2}\). The velocity with which water comes out on opening the tap is

360886 A hole is made at the bottom of the tank filled with water
\(\left( {density = 1000kg/{m^3}} \right)\). If the total pressure at the bottom of the tank is three atomspheres ( 1 atmosphere \( = {10^5}\;N/{m^2}\) ), then the velocity of efflux is

360887 A wide vessel with a small hole in the bottom is filled with water and kerosene. Neglecting viscosity, the velocity of water flow \(v\) if the thickness of water layer is \(h_{1}\) and that of kerosene layer is \(h_{2}\) is (density of water is \({\rho _1}\;g\) / cc and that of kerosene is \(\left. {{\rho _2}\;g/cc} \right)\left( {{\rho _1} > {\rho _2}} \right)\)

360888 There are two identical small holes on the opposite sides of a tank containing a liquid. The tank is open at the top. The difference in height between the two holes is \(h\). As the liquid comes out of the two holes, the tank will experience a net horizontal force proportional to

360889 If a small orifice is made at a height of \(0.25\,m\) from the ground, the horizontal range of water stream will be

360890 The pressure of water in a pipe when tap is closed is \(5.5 \times {10^5}\;N/{m^2}\). When tap gets open, pressure reduces to \(5 \times {10^5}\;N/{m^2}\). The velocity with which water comes out on opening the tap is

360886 A hole is made at the bottom of the tank filled with water
\(\left( {density = 1000kg/{m^3}} \right)\). If the total pressure at the bottom of the tank is three atomspheres ( 1 atmosphere \( = {10^5}\;N/{m^2}\) ), then the velocity of efflux is

360887 A wide vessel with a small hole in the bottom is filled with water and kerosene. Neglecting viscosity, the velocity of water flow \(v\) if the thickness of water layer is \(h_{1}\) and that of kerosene layer is \(h_{2}\) is (density of water is \({\rho _1}\;g\) / cc and that of kerosene is \(\left. {{\rho _2}\;g/cc} \right)\left( {{\rho _1} > {\rho _2}} \right)\)

360888 There are two identical small holes on the opposite sides of a tank containing a liquid. The tank is open at the top. The difference in height between the two holes is \(h\). As the liquid comes out of the two holes, the tank will experience a net horizontal force proportional to

360889 If a small orifice is made at a height of \(0.25\,m\) from the ground, the horizontal range of water stream will be

360890 The pressure of water in a pipe when tap is closed is \(5.5 \times {10^5}\;N/{m^2}\). When tap gets open, pressure reduces to \(5 \times {10^5}\;N/{m^2}\). The velocity with which water comes out on opening the tap is

360886 A hole is made at the bottom of the tank filled with water
\(\left( {density = 1000kg/{m^3}} \right)\). If the total pressure at the bottom of the tank is three atomspheres ( 1 atmosphere \( = {10^5}\;N/{m^2}\) ), then the velocity of efflux is

360887 A wide vessel with a small hole in the bottom is filled with water and kerosene. Neglecting viscosity, the velocity of water flow \(v\) if the thickness of water layer is \(h_{1}\) and that of kerosene layer is \(h_{2}\) is (density of water is \({\rho _1}\;g\) / cc and that of kerosene is \(\left. {{\rho _2}\;g/cc} \right)\left( {{\rho _1} > {\rho _2}} \right)\)

360888 There are two identical small holes on the opposite sides of a tank containing a liquid. The tank is open at the top. The difference in height between the two holes is \(h\). As the liquid comes out of the two holes, the tank will experience a net horizontal force proportional to

360889 If a small orifice is made at a height of \(0.25\,m\) from the ground, the horizontal range of water stream will be

360890 The pressure of water in a pipe when tap is closed is \(5.5 \times {10^5}\;N/{m^2}\). When tap gets open, pressure reduces to \(5 \times {10^5}\;N/{m^2}\). The velocity with which water comes out on opening the tap is

360886 A hole is made at the bottom of the tank filled with water
\(\left( {density = 1000kg/{m^3}} \right)\). If the total pressure at the bottom of the tank is three atomspheres ( 1 atmosphere \( = {10^5}\;N/{m^2}\) ), then the velocity of efflux is

360887 A wide vessel with a small hole in the bottom is filled with water and kerosene. Neglecting viscosity, the velocity of water flow \(v\) if the thickness of water layer is \(h_{1}\) and that of kerosene layer is \(h_{2}\) is (density of water is \({\rho _1}\;g\) / cc and that of kerosene is \(\left. {{\rho _2}\;g/cc} \right)\left( {{\rho _1} > {\rho _2}} \right)\)

360888 There are two identical small holes on the opposite sides of a tank containing a liquid. The tank is open at the top. The difference in height between the two holes is \(h\). As the liquid comes out of the two holes, the tank will experience a net horizontal force proportional to

360889 If a small orifice is made at a height of \(0.25\,m\) from the ground, the horizontal range of water stream will be

360890 The pressure of water in a pipe when tap is closed is \(5.5 \times {10^5}\;N/{m^2}\). When tap gets open, pressure reduces to \(5 \times {10^5}\;N/{m^2}\). The velocity with which water comes out on opening the tap is