Discussion :: Hydraulics and Fluid Mechanics - Section 2 (Q.No.3)
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Qasim Zafer said: (Feb 21, 2014) | |
Because each pipe is impose some friction force. Which is slow down the flow of the liquid at each part of the series of pipe. |
Pragya Singh said: (Nov 12, 2016) | |
What is head loss? |
Neeraj said: (Jan 15, 2017) | |
Head is an available amount of energy which gives a potential energy or impulse momentum to turbine or any moving device if head loss or total head reduce so energy is reduced, the total energy is head form p/ρg +V2/2G+z. |
Abd said: (Jul 12, 2017) | |
What happens if they are parallel? |
Pushp Raj said: (Apr 3, 2018) | |
It is same in each pipe. |
Ram Prasanna said: (Dec 19, 2018) | |
The correct Option is A. Series systems " the flow rate through the entire system remains constant, the total head loss, this case is equal to the sum of the head losses in individual pipes, parallel pipe system " head loss is the same in each pipe, and the total flow rate is the sum of the flow rates in individual pipes. |
Sabarinath R said: (Sep 21, 2019) | |
When pipes are connected in series: Q = Q1 = Q2 = Q3. H = H1+H2+H3. When pipes are in parallel: H = H1 + H2 + H3. Q = Q1 + Q2 + Q3. |
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