Consider the following piping system of 1-nominal schedule 40 galvanized steel that conveys water with a volumetric flow rate of 15gpm. 1. basket strainer 2.1'-0" 3.0-9° 4.3-0 5.1'-1' 6.1'-6" 7.0-10° 8.1'-2" LR 9.3-1" 10.1'-5" 11.2-1" 12.45° ells 10 (12) 11 All fittings in the system are threaded. The loss coefficient for the basket strainer can be approximated with K-1.3. As the engineer on the job, you are tasked the conduct the following calculations and analyses: Determine the total pressure drop (in lbf/ft² and psi as well as in ft of head) in the piping system from beginning to end.

Consider the following piping system of 1-nominal schedule 40 galvanized steel that conveys water with a volumetric flow rate of 15gpm. 1. basket strainer 2.1'-0" 3.0-9° 4.3-0 5.1'-1' 6.1'-6" 7.0-10° 8.1'-2" LR 9.3-1" 10.1'-5" 11.2-1" 12.45° ells 10 (12) 11 All fittings in the system are threaded. The loss coefficient for the basket strainer can be approximated with K-1.3. As the engineer on the job, you are tasked the conduct the following calculations and analyses: Determine the total pressure drop (in lbf/ft² and psi as well as in ft of head) in the piping system from beginning to end.

Refrigeration and Air Conditioning Technology (MindTap Course List)

8th Edition

ISBN:9781305578296

Author:John Tomczyk, Eugene Silberstein, Bill Whitman, Bill Johnson

Publisher:John Tomczyk, Eugene Silberstein, Bill Whitman, Bill Johnson

Chapter8: Leak Detection, System Evacuation, And System Cleanup

Section: Chapter Questions

Problem 2RQ: Name and briefly describe the six classes of leaks.

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Consider the following piping system of 1-nominal schedule 40 galvanized steel that
conveys water with a volumetric flow rate of 15gpm.
1. basket
strainer
2.1'-0"
3.0-9°
4.3-0
5.1'-1'
6.1'-6"
7.0-10°
8.1'-2"
LR
9.3-1"
10.1'-5"
11.2-1"
12.45° ells
10
(12)
11
All fittings in the system are threaded. The loss coefficient for the basket strainer can be
approximated with K-1.3. As the engineer on the job, you are tasked the conduct the
following calculations and analyses:
Determine the total pressure drop (in lbf/ft² and psi as well as in ft of head) in the
piping system from beginning to end.

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