Answer:
Step-by-step explanation:
From the given information;
There is no change or any difference in velocity in between the inlet and the outlet.
Therefore by using Bernoulli's equation, we have:

By dividing like terms on both sides, the equation is reduced to:

where;





The required power input can be determined by using the formula:

Assuming the missing pump efficiency = 70% and the flow rate Q= 1.34
Then:


P = 175.594 hp