It is well known that in a parallel pipeline system if you increase the diameter of those parallel pipes, it increases the capacity of the pipe network. But if we increase the length of the parallel pipes, what will be the impact on the capacity of the system happen? O The flow capacity of the parallel system will remain the same. O The flow capacity of the parallel system will decrease. O The flow capacity of the parallel system will increase. O It is unknown, depends on the parallel pipe diameter.

It is well known that in a parallel pipeline system if you increase the diameter of those parallel pipes, it increases the capacity of the pipe network. But if we increase the length of the parallel pipes, what will be the impact on the capacity of the system happen? O The flow capacity of the parallel system will remain the same. O The flow capacity of the parallel system will decrease. O The flow capacity of the parallel system will increase. O It is unknown, depends on the parallel pipe diameter.

Structural Analysis

6th Edition

ISBN:9781337630931

Author:KASSIMALI, Aslam.

Publisher:KASSIMALI, Aslam.

Chapter2: Loads On Structures

Section: Chapter Questions

Problem 1P

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Similar questions

For pipes in parallel, what condtions must be satisfied? O Flow is the accumulation of the flows throughout each branch pipe Head loss is a sum of the total (major and minor) head loss from entrace to exit The total head loss (major and minor) is equal throughout each branch pipe O The flow through each pipe is the same
ANSWER ASAP PLS.
Two reservoirs, A and B, are connected together by the two pipes with a pump between them. Assuming that the head loss in the pipes is given by hi = 0.015(L/d)(V/2g), where "L" is the length of pipe in feet and "d" is the pipe diameter in feet, determine (a) the velocity in each pipe, (b) the head added by the pump, and (c) the horsepower that must be supplied to the water to pump 2.5 cfs from the lower to the upper reservoir? El 140 ft B A El 90 ft L: = 2000 ft d: = 8 in. El 40 ft --- L; = 1000 ft d: = 8 in.
Solve 2 and 3.
Show step by step solution
Oil of specific gravity 0.802 and kinematic viscosity 0.000186 m /s flows from tank A to tank B through 305 m of new pipe at the rate of 0.089 m3/s. The available head is 0.161 m. What size pipe should be used?
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