At a hydroelectric power plant, the water pressure head is at a height of 300 m and the water flow available is `100m^(3)s^(-1)`. If the turbine generator efficiency is 60%, estimate the electric power available from the plant `(g=9.8ms^(-2))`.

At a hydroelectric power plant, the water pressure head is at a height of 300 m and the water flow available is 100 m^(3) s^(-1) . If the turbine generator efficiency is 60%, estimate the electric power available from the plant (g = 9.8 ms^(-2)) .

At a hydroelectric power plant, the water pressure head is at a height of 300 m and the water flow available is 100 m^(3) s^(-1) . If the turbine generator efficiency is 60%, estimate the electric power available from the plant (g = 9.8 ms^(-2)) .

At a hydroelectric power plant, the water pressure head is at a height of 300 m and the water flow available is 100 m^3s^-1 . If the turbine generator efficiency is 60%, estimate the electric power available from the plant (g = 9.8 ms^-2) .

At a hydroelectric power plant, the water pressure head is at a height of 300 m and the water flow available is 100 m^3 s^(-1) . If the turbine generator efficiency is 60%, estimate the electric power available from the plant (g = 9.8 ms^(-2)) .

At a hydroelectric power plant, the water pressure head is at a height of 300 m and the water flow available is 100 m^3 s^-1 . If the turbine generator efficiency is 60%, estimate the electric power available from the plant (g=9.8 ms^-2)

In Koyna hydroelectric power station, water stored at a height of 600 metre fall on the turbine blades and the water flow avilable is 100 m^(3)//s . The efficiency of the turbine generator is 50%. What is the power available from the power station? [g=10 m//s^(2)]

A hydroelectric power plant produces energy from flowing water.

In a hydroelectric power plant more electrical power can be generated if water falls a greater height because :