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Pipeline Pumping and Compression Systems: A Practical Approach
By
M. Mohitpour
M. Mohitpour
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K. K. Botros
K. K. Botros
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T. Van Hardeveld
T. Van Hardeveld
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ISBN-10:
0791802786
ISBN:
9780791802786
No. of Pages:
500
Publisher:
ASME Press
Publication date:
2008

Flow and acoustic phenomena associated with various mechanical components in compressions and pumping systems have been the subject of considerable effort over the past few decades [1–15]. Research efforts concentrated on three main topics: (i) pulsation transmission characteristics of various pipeline elements, such as orifice plate, valves, compressors and branches; (ii) pulsation generation whether it's flow-induced or resulting from reciprocating machines; and (iii) methods to suppress these pulsations by means of passive elements (such as pulsation bottles, mufflers, Helmholtz resonators, or side branch resonators) or actively by active control (e.g., active control of incipient surge in centrifugal compressor). Flow-generated pulsations in pipeline facilities can be broad-band or single-tone with amplitude levels over 20 times higher than the dynamic pressure in main pipe [1]. Such a high level of pulsation disturbs flow measurements [9, 10, 13] and causes vibration of the piping elements. The latter can result in fatigue and serious accidents.

This chapter briefly presents the current knowledge of technology in this field and the basis of numerical analyses that are often conduced during the design phase of the compression and pumping systems. Examples are taken from meter stations, reciprocating compressor stations, and a pressure-regulating station.

10.1 Introduction
10.2 Pulsation Transmission Through Piping Elements
10.2.1 Acoustic Transfer Matrix for a Pipe Element
10.2.2 Acoustic Transfer Matrix for a Throttle Element
10.2.3 Acoustic Transfer Matrix for a Volume Element
10.2.4 Acoustic Transfer Matrix for a Centrifugal Compressor
10.3 Pulsation Generation
10.3.1 Flow-Generated Pulsation from Throttling Elements
10.3.2 Flow-Generated Single-Tone Pulsation from Closed End Side Branch
10.3.3 Pulsation Generated by Reciprocating Compressors and Pumps
10.4 Solution Techniques
10.5 Acoustic Boundary Conditions and Resonance
10.6 Techniques for Pulsation Suppression
10.6.1 Reactive Silencers
10.6.2 Spoilers for Pulsation Suppression at Source
10.6.3 Suppression of Noise from Blowdown Stacks
10.7 Liquid Versus Gas Applications
10.8 Standards and Guidelines
10.8.1 API 618 Standard
10.8.2 API 674 Standard
10.8.3 Shaking Forces Arising form Pressure Pulsation
10.9 Case Study Examples
10.9.1 Case Study #1: Single-Source Pulsation
10.9.2 Case Study #2: Multiple Source Pulsation
10.9.3 Case Study #3: Pulsation Generated by a Reciprocating Compressor
10.9.4 Case Study #4: Pulsation Generated by Plunger Pumps
References
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