(b). Figure 1 shows a reticulation system. Estimate the flow rate in each pipeline using Hardy-Cross Method and Hazen-William formula up to two iterations. Adopt Hazen-William coefficient, C, as 100. The lengths and diameters for pipes AB, BC, CD, and AD are as follows: Pipe AB: length = 950 m and diameter = 250 mm Pipe BC: length = 750 m and diameter = 200 mm Pipe CD: length = 750 m and diameter = 200 mm Pipe AD: length = 900 m and diameter = 250 mm 40 L/s 40 L/s C B D A Figure 1: Reticulation system 50 L/s 130 L/s

(b). Figure 1 shows a reticulation system. Estimate the flow rate in each pipeline using Hardy-Cross Method and Hazen-William formula up to two iterations. Adopt Hazen-William coefficient, C, as 100. The lengths and diameters for pipes AB, BC, CD, and AD are as follows: Pipe AB: length = 950 m and diameter = 250 mm Pipe BC: length = 750 m and diameter = 200 mm Pipe CD: length = 750 m and diameter = 200 mm Pipe AD: length = 900 m and diameter = 250 mm 40 L/s 40 L/s C B D A Figure 1: Reticulation system 50 L/s 130 L/s

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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Question

(b). Figure 1 shows a reticulation system. Estimate the flow rate in each
pipeline using Hardy-Cross Method and Hazen-William formula up to two
iterations. Adopt Hazen-William coefficient, C, as 100. The lengths and
diameters for pipes AB, BC, CD, and AD are as follows:
Pipe AB: length = 950 m and diameter = 250 mm
Pipe BC: length = 750 m and diameter = 200 mm
Pipe CD: length = 750 m and diameter = 200 mm
Pipe AD: length = 900 m and diameter = 250 mm
40 L/s
40 L/s
C
B
D
Figure 1: Reticulation system
50 L/s
130 L/s

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