Step-by-step explanation:
Given that,
Diameter = 10 cm
Distance = 2 m
Speed

Speed

Pressure in main pipe
(I). We need to calculate the diameter
Using equation of continuity





(II). We need to calculate the pressure the gauge pressure
Using Bernoulli equation




(III). If it is possible to carry water to a faucet 17 m above ground,
Using Bernoulli equation


Here,

Put the value in the equation


Hence, This is required solution.