Example 4 A typical differential manometer is attached to two sections A and B in a horizontal pipe through which water is flowing at a steady rate (Fig. 2.26). The deflection of mercury in the manometer is 0.6 m with the level nearer A being the lower one as shown in the figure. Calculate the difference in pressure between Sections A and B. Take the densities of water and mercury as 1000 kg/m and 13570 kg/m³ respectively. E F 0.6 m D GC Mercury Water A B
Example 4 A typical differential manometer is attached to two sections A and B in a horizontal pipe through which water is flowing at a steady rate (Fig. 2.26). The deflection of mercury in the manometer is 0.6 m with the level nearer A being the lower one as shown in the figure. Calculate the difference in pressure between Sections A and B. Take the densities of water and mercury as 1000 kg/m and 13570 kg/m³ respectively. E F 0.6 m D GC Mercury Water A B
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
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Problem 1.1MA
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![Example 4
A typical differential manometer is attached to two sections A and B
in a horizontal pipe through which water is flowing at a steady rate (Fig. 2.26). The
deflection of mercury in the manometer is 0.6 m with the level nearer A being the lower
one as shown in the figure. Calculate the difference in pressure between Sections A and
B. Take the densities of water and mercury as 1000 kg/m and 13570 kg/m³ respectively.
EF
0.6 m
D
C
Mercury
Water
A
В](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F807c0a44-7f0b-42c1-b15a-d504372ebd20%2Fff4707a7-32e2-4c56-8a88-891553d55ecb%2Flztfi7x_processed.jpeg&w=3840&q=75)
Transcribed Image Text:Example 4
A typical differential manometer is attached to two sections A and B
in a horizontal pipe through which water is flowing at a steady rate (Fig. 2.26). The
deflection of mercury in the manometer is 0.6 m with the level nearer A being the lower
one as shown in the figure. Calculate the difference in pressure between Sections A and
B. Take the densities of water and mercury as 1000 kg/m and 13570 kg/m³ respectively.
EF
0.6 m
D
C
Mercury
Water
A
В
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