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Relevant bibliographies by topics / Progressive Cavity pump

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Academic literature on the topic 'Progressive Cavity pump'

Author: Grafiati

Published: 4 June 2021

Last updated: 5 February 2022

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Journal articles on the topic "Progressive Cavity pump"

1

Ward, Peter R. B., William G. Dunford, and David L. Pulfrey. "Performance of small progressive cavity pumps with solar power." Canadian Journal of Civil Engineering 14, no. 2 (April 1, 1987): 284–87. http://dx.doi.org/10.1139/l87-041.

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A small progressive cavity pump, rated at about 900 W, has been assembled and tested as part of a photovoltaic-cell-powered water pumping system. Torque-speed relationships for the progressive cavity pump, not readily available in published engineering journals, were measured and are presented. The pump was extremely well suited to lifting groundwater for small (domestic) supplies with solar power because it was capable of producing the full design head over a very wide range of speeds. In addition, the progressive cavity pump was robust, and unlike most other positive displacement pumps, would tolerate small concentrations of silt and sand in the water without damage. Very many of these pumps are already in use in parts of Africa and other developing areas, and excellent prospects exist for operating progressive cavity pumps with solar-energy-powered drives. Key words: pump, solar power, groundwater, water, water supply, solar, well, hydrology, hydraulic.

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Karthikeshwaran, Ramasamy. "Progressive Cavity Pump: A Review." Biosciences Biotechnology Research Asia 11, SE (October 30, 2014): 231–37. http://dx.doi.org/10.13005/bbra/1415.

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Mrinal, KR, and Abdus Samad. "Performance prediction of kinetic and screw pumps delivering slurry." Proceedings of the Institution of Mechanical Engineers, Part A: Journal of Power and Energy 232, no. 7 (March 22, 2018): 898–911. http://dx.doi.org/10.1177/0957650918760161.

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Transporting slurry is a difficult task and industries use a kinetic or centrifugal pump or a screw or progressive cavity pump to deliver it. On the other hand, approximation models can help predicting performance and avoiding the expensive experiments of pumps with slurries. In this work, bentonite-based slurries were prepared and pumped by a centrifugal pump and a progressive cavity pump. The experimental facilities were developed in-house and artificial neural network-based approximation models were developed to predict performances. The approximation models say that it can eliminate the expensive testing to draw performance curve a pump. The relative merits of the pumps show that the progressive cavity pump has a better capability to handle the slurries or high viscosity fluids.

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Karthikeshwaran, Ramasamy. "Leakage Analysis of Metal Progressive Cavity Pump." Biosciences Biotechnology Research Asia 11, SE (October 30, 2014): 357–61. http://dx.doi.org/10.13005/bbra/1431.

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Baroiu, Nicuşor, Georgiana-Alexandra Moroşanu, Virgil-Gabriel Teodor, and Nicolae Oancea. "Roller Profiling for Generating the Screw of a Pump with Progressive Cavities." Inventions 6, no. 2 (May 14, 2021): 34. http://dx.doi.org/10.3390/inventions6020034.

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Progressive cavity pumps are used in industry for the circulation of high viscosity fluids, such as crude oil and petroleum products, sewage sludge, oils, salt water, and wastewater. Also known as single screw pumps, these pumps are composed of a single rotor which has the shape of a rounded screw, which moves inside a rubber stator. The stator has an double helical internal surface which, together with the helical surface of the rotor, creates a cavity that moves along the rotor. The movement effect of the cavity inside the stator is the movement of the fluid with a constant flow and high pressure. In this paper, an algorithm for profiling the rollers for generating the helical surface of the pump rotor with progressive cavities is proposed. These rollers are constituted as tools for the plastic deformation of the blank (in case the pump rotor is obtained by volumetric deformation) or for its superficial hardening.

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Mohamed Iyad Al, Naboulsi, Niculae Napoleon Antonescu, Alin Dinita, and Marius Morosanu. "Tribological Characterization of Some Elastomers Used at Progressive Cavity and Piston Pumps." MATEC Web of Conferences 318 (2020): 01016. http://dx.doi.org/10.1051/matecconf/202031801016.

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The progressive cavity pump (PCP) is a positive displacement pump, consisting of a polished helical-shaped rod (rotor) turning inside a helical elastomer (stator). PCP has many advantages, but the pump durability is manly limited by elastomer behavior. At piston pumps (PP) used for drilling mud piston has an elastomer sleeve that also limit the durability. Standards like ISO 15136.1 & 2 for pumps developed by manufactures and users’ committees provides requirements for design, quality design verification etc., but do not define specifically the elastomer for the stator or the metal used for the rotor. Each PCP and PP manufacturer used specific materials at pump construction. The aim of this study was to evaluate the tribological behavior of some elastomers such polybutadiene rubber (BR), polybutadiene acrylonitrile rubber (NBR), polybutadiene acrylonitrile carboxylate (XNBR) and polyamide (PA 6) in couples with hard chromium coated steel, nitride steel and cast iron. Were determined friction coefficients and wear on 2 types of friction couples (plane to plane and shoe to plane) on two tribometers and some mechanical proprieties (Young’s modulus, ultimate tensile strength, elongation, hardness).

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Zhou, Xian Jun, and Zhao Sheng Feng. "Numerical Simulation of Single Metal Progressive Cavity Pump." Advanced Materials Research 655-657 (January 2013): 372–75. http://dx.doi.org/10.4028/www.scientific.net/amr.655-657.372.

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The motion law of single metal progressive cavity pump was studied through motion simulation. Then, the finite element analysis software ANSYS was used to analyze the distribution characteristics and the influencing factors of the contact pressure. It was pointed out that the single metal progressive cavity pump has the ability to withstand high temperature and the differential pressure mainly influences the wear. At last the reasonable range of the clearance was given.

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Smith, Peter Mark. "Progressive cavity pump tubing drain valves: operator-savings illustration." APPEA Journal 60, no. 2 (2020): 677. http://dx.doi.org/10.1071/aj19023.

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Three case studies show how three progressive cavity pump (PCP) operators used Zenith® (Baker Hughes) tubing drain valves to protect problematic PCPs from blockage and damage, reducing downtime and avoiding cost of backflush operations. The efficient solids management system incorporated in the Zenith PCP tubing drain valve (PCP-TDV) reliably safeguards pumping equipment from damage or blockage caused by descending solids when the pump is shut down, eliminating unplanned downtime and costly equipment replacement. Addressing the failings of alternative valves, the Zenith PCP-TDV effectively reduces the requirement for well workover, preventing pump-off, increasing uptime and lift system run-life, even in heavy oil and high viscosity fluid operations. The Zenith PCP-TDV provides an innovative solution to costly pump damage, while preventing recirculation and simplifying backflush operations. The addition of backflush capability is designed to allow the pump rotor to be retracted and reset without running out of hole. A further addition specific to the coal seam gas market is the inclusion of a tubing pressure-activated, single-use locking piston, so as to allow external pressure to be subjected to the PCP-TDV without pumping being open, thus allowing the string to be set with no well fluid ingress into the production string and pump before operation.

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Kawamura, Takeshi. "Energy-saving and High-efficient Progressive Cavity Pump." JAPAN TAPPI JOURNAL 63, no. 8 (2009): 909–12. http://dx.doi.org/10.2524/jtappij.63.909.

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Guo, Zhong Feng, Shan Shan Li, and Hui Guo. "Developing Overview of Progressing Cavity Pump System." Advanced Materials Research 753-755 (August 2013): 2770–73. http://dx.doi.org/10.4028/www.scientific.net/amr.753-755.2770.

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Electrical Submersible-motor-driven Progressive Cavity Pumping (ESPCP) oil extraction technology has the advantages of sample technology and management convenience. ESPCP is suitable for the viscous, containing sand, high gas oil ratio oil extraction. Developing history of ESPCP is introduced and the structure and principle are analyzed. The advantages of ESPCP are compared with other oil extraction technology. At last, developing status is discussed and the developing trend is investigated.

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Dissertations / Theses on the topic "Progressive Cavity pump"

1

Belcher, I. R. "An investigation into the operating characteristics of the progressive cavity pump." Thesis, Cranfield University, 1991. http://ethos.bl.uk/OrderDetails.do?uin=uk.bl.ethos.302742.

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Whittaker, Lucy Victoria. "Evaluation and analysis of wear in progressive cavity pumps." Thesis, University of Hull, 2003. http://hydra.hull.ac.uk/resources/hull:5492.

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Progressive cavity pumps are used in the transportion of slurries. The pumping element consists of a single helical rotor, which intermeshes with a double helical resilient stator, to create the moving cavities that transport the slurry. Both components suffer from weaL at different rates, due to relative sliding movement of the rotor to the stator, and the presence of the abrasives carried within the slurry. for a pump manufacturer to remain active in the market they must provide the customer with optimised material selection, for both wearing parts, at a competitive price. Wear is not an intrinsic material property and its value is dependent upon the conditions within each individual tribological system. In order to improve or optimise the wear life of a system, it is first vital to understand the complexity of the mechanisms that generate the material loss. This thesis achieves this goal, with specific reference to a pumping system, by analysing the wear mechanisms of the pumping element components in progressive cavity pumps and evaluating how the wear severity changes with the system parameters. The in-depth study has enabled a new wear model to be proposed which describes how the behaviour of the abrasive particles contribute to the wearing process, in the pumping element of a progressive cavity pump. Hard particle laboratory wear tests were reviewed and assessed to determine their suitability for assessing the wear performance of rotor and stator materials. It was concluded that no one standard laboratory test was suitable and recommendations are given for two tribometers which specifically meet the tribological needs of the pumping system

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Dall'Acqua, Daniel. "Thermo-mechanical modelling of progressing cavity pumps and positive displacement motors." Thesis, National Library of Canada = Bibliothèque nationale du Canada, 2000. http://www.collectionscanada.ca/obj/s4/f2/dsk1/tape4/PQDD_0003/MQ59796.pdf.

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Azevedo, Victor Wagner Freire de. "Simula??o do escoamento multif?sico no interior de bombas de cavidades progressivas met?licas." Universidade Federal do Rio Grande do Norte, 2012. http://repositorio.ufrn.br:8080/jspui/handle/123456789/15688.

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The progressing cavity pumping (PCP) is one of the most applied oil lift methods nowadays in oil extraction due to its ability to pump heavy and high gas fraction flows. The computational modeling of PCPs appears as a tool to help experiments with the pump and therefore, obtain precisely the pump operational variables, contributing to pump s project and field operation otimization in the respectively situation. A computational model for multiphase flow inside a metallic stator PCP which consider the relative motion between rotor and stator was developed in the present work. In such model, the gas-liquid bubbly flow pattern was considered, which is a very common situation in practice. The Eulerian-Eulerian approach, considering the homogeneous and inhomogeneous models, was employed and gas was treated taking into account an ideal gas state. The effects of the different gas volume fractions in pump volumetric eficiency, pressure distribution, power, slippage flow rate and volumetric flow rate were analyzed. The results shown that the developed model is capable of reproducing pump dynamic behaviour under the multiphase flow conditions early performed in experimental works
O bombeio por cavidades progressivas (BCP) ? um dos m?todos de eleva??o artificial mais utilizados atualmente pela ind?stria do petr?leo devido ? sua capacidade de atuar em reservat?rios de ?leos pesados e com elevada fra??o de g?s. A modelagem computacional de BCPs surge como uma ferramenta para auxiliar os experimentos com a bomba e assim obter com precis?o as suas vari?veis de opera??o, o que contribui para a otimiza??o do projeto e da opera??o da bomba na situa??o a qual se encontra. Um modelo computacional do escoamento multif?sico no interior de uma BCP de estator met?lico que considera o movimento relativo entre o rotor e o estator foi desenvolvido no presente trabalho. Em tal modelo, o escoamento g?s-l?quido no padr?o de bolhas foi considerado, o que ? uma situa??o muito comum na pr?tica. A abordagem Euleriana- Euleriana, considerando o modelo homog?neo e n?o-homog?neo, foi empregada e o g?s foi tratado levando em considera??o um estado de gas ideal. Os efeitos das diferentes fra??es de g?s na efici?ncia da bomba, distribui??o de press?o, pot?ncia, taxa de escorregamento e vaz?o volum?trica foram analisados. Os resultados mostraram que o modelo desenvolvido ? capaz de reproduzir o comportamento din?mico da BCP sob as condi??es de escoamento multif?sico previamente realizados em trabalhos experimentais

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Almeida, Rairam Francelino Cunha de. "Simula??o computacional da intera??o fluido-estrutura em bombas de cavidades progressivas." Universidade Federal do Rio Grande do Norte, 2010. http://repositorio.ufrn.br:8080/jspui/handle/123456789/15618.

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The pumping through progressing cavities system has been more and more employed in the petroleum industry. This occurs because of its capacity of elevation of highly viscous oils or fluids with great concentration of sand or other solid particles. A Progressing Cavity Pump (PCP) consists, basically, of a rotor - a metallic device similar to an eccentric screw, and a stator - a steel tube internally covered by a double helix, which may be rigid or deformable/elastomeric. In general, it is submitted to a combination of well pressure with the pressure generated by the pumping process itself. In elastomeric PCPs, this combined effort compresses the stator and generates, or enlarges, the clearance existing between the rotor and the stator, thus reducing the closing effect between their cavities. Such opening of the sealing region produces what is known as fluid slip or slippage, reducing the efficiency of the PCP pumping system. Therefore, this research aims to develop a transient three-dimensional computational model that, based on single-lobe PCP kinematics, is able to simulate the fluid-structure interaction that occurs in the interior of metallic and elastomeric PCPs. The main goal is to evaluate the dynamic characteristics of PCP s efficiency based on detailed and instantaneous information of velocity, pressure and deformation fields in their interior. To reach these goals (development and use of the model), it was also necessary the development of a methodology for generation of dynamic, mobile and deformable, computational meshes representing fluid and structural regions of a PCP. This additional intermediary step has been characterized as the biggest challenge for the elaboration and running of the computational model due to the complex kinematic and critical geometry of this type of pump (different helix angles between rotor and stator as well as large length scale aspect ratios). The processes of dynamic generation of meshes and of simultaneous evaluation of the deformations suffered by the elastomer are fulfilled through subroutines written in Fortan 90 language that dynamically interact with the CFX/ANSYS fluid dynamic software. Since a structural elastic linear model is employed to evaluate elastomer deformations, it is not necessary to use any CAE package for structural analysis. However, an initial proposal for dynamic simulation using hyperelastic models through ANSYS software is also presented in this research. Validation of the results produced with the present methodology (mesh generation, flow simulation in metallic PCPs and simulation of fluid-structure interaction in elastomeric PCPs) is obtained through comparison with experimental results reported by the literature. It is expected that the development and application of such a computational model may provide better details of the dynamics of the flow within metallic and elastomeric PCPs, so that better control systems may be implemented in the artificial elevation area by PCP
O sistema de bombeamento por cavidades progressivas est? sendo cada vez mais empregado na ind?stria do petr?leo, devido ? sua capacidade de eleva??o de ?leos altamente viscosos ou de fluidos com grandes concentra??es de areia ou outras part?culas s?lidas. Uma Bomba de Cavidades Progressivas (BCP) ? composta, basicamente, por um rotor - uma pe?a met?lica de forma semelhante a um parafuso exc?ntrico, e um estator - um tubo de a?o revestido internamente por uma h?lice dupla, a qual pode ser r?gida ou deform?vel/elastom?rica. Em geral, uma BCP ? submetida a uma combina??o de press?o do po?o com press?o gerada pelo pr?prio processo de bombeio. Em BCPs elastom?ricas, essa combina??o de esfor?os comprime o estator, gerando ou aumentando a folga existente entre o rotor e o estator, reduzindo, portanto, o efeito de veda??o entre suas cavidades. Tal abertura da regi?o de selagem produz o que ? conhecido como escorregamento do fluido, diminuindo, com isso, a efici?ncia de sistema de bombeio por BCP. Dessa maneira, este trabalho se prop?e a desenvolver um modelo computacional tridimensional transiente do processo din?mico da intera??o fluido-estrutural (FSI) que ocorre no interior de BCPs met?licas e elastom?ricas. O objetivo principal ? avaliar, a partir do uso do modelo desenvolvido, as caracter?sticas din?micas de efici?ncia de bombeio por BCPs, em fun??o de informa??es locais e instant?neas detalhadas dos campos de velocidade, press?o e deforma??o no seu interior. Para o alcance de tais metas (desenvolvimento e uso do modelo), fez-se necess?rio o desenvolvimento de uma metodologia pr?pria para gera??o de malhas computacionais din?micas, m?veis e deform?veis, representando as regi?es fluida e estrutural de uma BCP. Tal procedimento caracterizou-se como o maior desafio para a elabora??o do modelo computacional, devido ? cinem?tica complexa e ? geometria cr?tica desse tipo de bomba (?ngulos de h?lice diferentes entre rotor e estator e grandes diferen?as de escala de comprimento). Os processos de gera??o din?mica das malhas e de avalia??o simult?nea das deforma??es sofridas pelo elast?mero s?o realizados atrav?s de sub-rotinas em linguagem Fortran 90, as quais interagem dinamicamente com o software de din?mica dos fluidos computacional CFX/ANSYS. Desde que o modelo linear el?stico ? empregado para avaliar as deforma??es elastom?ricas, n?o ? necess?rio usar nenhum software para an?lise estrutural. Entretanto, uma proposta inicial para simula??o din?mica no ANSYS empregando-se modelos constitutivos hiper-el?sticos para o elast?mero ? tamb?m apresentada no presente trabalho. A valida??o dos resultados produzidos com a presente metodologia (gera??o de malha, simula??o do escoamento em BCPs met?licas e simula??o da intera??o fluido-estrutural em BCPs elastom?ricas) ? obtida atrav?s da compara??o com resultados experimentais reportados pela literatura. Vislumbra-se que o desenvolvimento e aplica??o de tal ferramenta computacional poder?o fornecer maiores detalhes da din?mica do escoamento no interior de BCPs met?licas e elastom?ricas, de maneira que melhores sistemas de controle possam ser implementados na ?rea de eleva??o artificial por BCPs

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Narayanan, Shankar Bhaskaran. "Fluid Dynamic and Performance Behavior of Multiphase Progressive Cavity Pumps." Thesis, 2011. http://hdl.handle.net/1969.1/ETD-TAMU-2011-08-9693.

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It is common for an oil well to produce a mixture of hydrocarbons that flash when exposed to atmospheric pressure. The separation of oil and gas mixtures on site may prove expensive and lead to higher infrastructure and maintenance costs as well. A multiphase pump offers a good alternative with a lower capital cost and increased overall production. A Progressive Cavity Pump (PCP) is a positive displacement pump type that can be used to pump a wide range of multiphase mixtures, including high viscosity fluids with entrained gas and solid particles in suspension. Despite its advantages, a PCP has a reduced ability to handle high gas-liquid ratios due to limitations of its elastomeric stator material required to overcome thermo and mechanical effects. Also the efficiency decreases significantly with increases in gas volume fractions and reduced differential pressures. The current study focuses on studying the behavior of this unique pump in a wide range of GVFs and studying the effect of this ratio on overall efficiency, temperature and pressure distribution on the stator. The pump exhibits vibration issues at specific differential pressures and they have been studied in this work. This can be of critical value as severe vibration issues can damage the pump components such as couplings and bearings leading to high maintenance costs. Another important issue addressed by this research is the behavior of this pump in transient conditions. Oil well production is highly unpredictable with unexpected rises and drops in GVFs. These transient conditions have been simulated by varying the GVF over wide ranges and studying the pump's behavior in terms of load, temperature rises and instantaneous pressure profiles on the pump stator. This thesis provides a comprehensive study of this pump, its operating ranges and behavior in off-design conditions to assist oil and gas exploration ventures in making an informed choice in pump selection for their applications based on field conditions.

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Glier, Michael W. "An Experimental Examination of a Progressing Cavity Pump Operating at Very High Gas Volume Fractions." Thesis, 2011. http://hdl.handle.net/1969.1/ETD-TAMU-2011-05-9238.

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The progressing cavity pump is a type of positive displacement pump that is capable of moving nearly any fluid. This type of pump transports fluids in a series of discrete cavities formed by the helical geometries of its rigid rotor and elastomeric stator. With appropriate materials for the rotor and stator, this pump can move combinations of liquids, suspended solids, and gasses equally well. Because of its versatility, the progressing cavity pump is widely used in the oil industry to transport mixtures of oil, water, and sediment; this investigation was prompted by a desire to extend the use of progressing cavity pumps to wet gas pumping applications. One of the progressing cavity pump's limitations is that the friction between the rotor and stator can generate enough heat to damage the rotor if the pump is not lubricated and cooled by the process fluid. Conventional wisdom dictates that this type of pump will overheat if it pumps only gas, with no liquid in the process fluid. If a progressing cavity pump is used to boost the output from a wet gas well, it could potentially be damaged if the well's output is too dry for an extended period of time. This project seeks to determine how a progressing cavity pump behaves when operating at gas volume fractions between 0.90 and 0.98. A progressing cavity pump manufactured by seepex, model no. BN 130-12, is tested at half and full speed using air-water mixtures with gas volume fractions of 0.90, 0.92, 0.94, 0.96, and 0.98. The pump's inlet and outlet conditions are controlled to produce suction pressures of 15, 30, and 45 psi and outlet pressures 0, 30, 60, 90, 120, and 150 psi higher than the inlet pressure. A series of thermocouples, pressure transducers, and turbine flow meters measures the pump's inlet and outlet conditions, the flow rates of water and air entering the pump, and pressures and temperatures at four positions within the pump's stator. Over all test conditions, the maximum recorded temperature of the pump stator did not exceed the maximum safe rubber temperature specified by the manufacturer. The pump’s flow rate is independent of both the fluid's gas volume fraction and the pressure difference across the pump, but it increases slightly with the pump's suction pressure. The pump's mechanical load, however, is dependent only on the pressure difference across the pump and increases linearly with that parameter. Pressure measurements within the stator demonstrated that the leakage between the pump's cavities increases with the fluids gas volume fraction, indicating that liquid inside the pump improves its sealing capability. However, those same measurements failed to detect any appreciable leakage between the two pressure taps nearest the pump's inlet. This last observation suggests that the pump could be shortened by as much as 25 percent without losing any performance in the range of tested conditions; shortening the pump should increase its efficiency by decreasing its frictional mechanical load.

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Books on the topic "Progressive Cavity pump"

1

Cholet, Henri. Progressing cavity pumps. Paris: Éditions Technip, 1997.

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Revard, James M. The progressing cavity pump handbook. Tulsa, OK: PennWell Pub., 1995.

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Nelik, Lev. Progressing cavity pumps, downhole pumps, and mudmotors. Houston, Tex: Gulf Pub. Co., 2005.

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Gulf Pump Guides: Progressing Cavity Pumps, Downhole Pumps and Mudmotors. Elsevier, 2005. http://dx.doi.org/10.1016/c2013-0-15501-8.

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Gulf Pump Guides: Progressing Cavity Pumps, Downhole Pumps And Mudmotors (Gulf Pump Guides). Gulf Publishing Company, 2005.

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Saveth, Kenneth. Progressing Cavity Pumps: Theory and Operations. Elsevier Science & Technology Books, 2020.

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Book chapters on the topic "Progressive Cavity pump"

1

Nguyen, Tan. "Progressing Cavity Pump." In Artificial Lift Methods, 181–226. Cham: Springer International Publishing, 2020. http://dx.doi.org/10.1007/978-3-030-40720-9_4.

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"Progressive Cavity Pump Testing." In Positive Displacement Pumps, 31–35. Hoboken, NJ, USA: John Wiley & Sons, Inc., 2010. http://dx.doi.org/10.1002/9780470924754.ch6.

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Nelik, Lev, and Jim Brennan. "PROGRESSING CAVITY PUMP STARTUPS." In Gulf Pump Guides: Progressing Cavity Pumps, Downhole Pumps and Mudmotors, 191–203. Elsevier, 2005. http://dx.doi.org/10.1016/b978-0-9765113-1-1.50017-0.

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Nelik, Lev, and Jim Brennan. "BENEFITS OF PROGRESSING CAVITY PUMPS." In Gulf Pump Guides: Progressing Cavity Pumps, Downhole Pumps and Mudmotors, 1–3. Elsevier, 2005. http://dx.doi.org/10.1016/b978-0-9765113-1-1.50008-x.

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Nelik, Lev, and Jim Brennan. "PROGRESSING CAVITY PUMP OVERHAUL GUIDE." In Gulf Pump Guides: Progressing Cavity Pumps, Downhole Pumps and Mudmotors, 205–9. Elsevier, 2005. http://dx.doi.org/10.1016/b978-0-9765113-1-1.50018-2.

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Nelik, Lev, and Jim Brennan. "PROGRESSING CAVITY PUMP SELECTION AND SIZING." In Gulf Pump Guides: Progressing Cavity Pumps, Downhole Pumps and Mudmotors, 177–90. Elsevier, 2005. http://dx.doi.org/10.1016/b978-0-9765113-1-1.50016-9.

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Lea, James, Henry Nickens, and Michael Wells. "Progressive Cavity Pumps." In Gas Well Deliquification, 251–69. Elsevier, 2003. http://dx.doi.org/10.1016/b978-075067724-0/50013-2.

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Lea, James F., Henry V. Nickens, and Mike R. Wells. "PROGRESSING CAVITY PUMPS." In Gas Well Deliquification, 383–403. Elsevier, 2008. http://dx.doi.org/10.1016/b978-075068280-0.50014-7.

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Lea, James F., and Lynn Rowlan. "Progressing cavity pumps." In Gas Well Deliquification, 151–65. Elsevier, 2019. http://dx.doi.org/10.1016/b978-0-12-815897-5.00009-3.

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"Front Matter." In Gulf Pump Guides: Progressing Cavity Pumps, Downhole Pumps and Mudmotors, iii. Elsevier, 2005. http://dx.doi.org/10.1016/b978-0-9765113-1-1.50001-7.

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Conference papers on the topic "Progressive Cavity pump"

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Zhou, Desheng, and Hong Yuan. "Design of Progressive Cavity Pump Wells." In SPE Progressing Cavity Pumps Conference. Society of Petroleum Engineers, 2008. http://dx.doi.org/10.2118/113324-ms.

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Wang, Haiwen, and Daoyong Yang. "Reliability Improvement of Progressive Cavity Pump in A Deep Heavy Oil Reservoir." In SPE Progressing Cavity Pumps Conference. Society of Petroleum Engineers, 2010. http://dx.doi.org/10.2118/137271-ms.

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Iguaran, Marco, Leonardo Suarez, Juan Paz, Martin Altube, Ariel Nicoletti, and Mario Bustamante. "Progressive Cavity Pump Self Optimising System Argentina Field." In International Petroleum Technology Conference. IPTC, 2021. http://dx.doi.org/10.2523/iptc-21827-ms.

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Abstract One of the greatest challenges for wells using an artificial lift system (ALS) is the ability to optimize production while minimizing expenditure. This process involves a perfect balance between effective oil production management, extending ALS longevity, and ensuring energy efficiency, to produce the lowest operational cost. In oil fields under secondary recovery and mature or depleting conditions, production optimization involves continuous monitoring and surveillance of operational variables affecting changes in flow rates caused by surface and subsurface conditions, such as water injection, pressures, obstructions, etc. To achieve the desired goal of a properly optimized process, strong technical expertise is required almost continuously. Based on years of experience in ALS monitoring, surveillance and optimization, various tools and software have been developed to assist in parameter monitoring. Traditionally, the well optimization of progressive cavity pumps (PCP's) is completed on a daily or weekly basis through the analysis of continuous monitoring and surveillance data by a technical expert. As an alternative, downhole (DH) gauges have been installed to directly measure the exploitation conditions, however, such gauges can be costly relative to the production lifting method. To improve the process, well optimization control units have been produced to maximize oil production using algorithms. These systems take advantage of surface variables such as velocity, current, torque, flow rate, and wellhead and casing pressures to respond to changes in operational conditions, ensuring maximum system uptime and reducing intervention costs by increasing the mean runtime between failures. This paper will focus on the well monitoring and optimization system implemented in a YPF well in Neuquen, Argentina. The theoretical bases, concerns, benefits and results will be discussed throughout. The evaluated well used a surface flow meter to allow the system to converge to an optimal flow rate by changing velocity while considering system performance in terms of submergence, torque, current, and wear between the tubing and rod string at high operating speeds. Post-implementation, by optimizing the flow rate, the oil production doubled while reducing the manhours required, ultimately increasing profit while reducing operational costs. The results of implementing this well monitoring and optimization system have been validated through field trial, creating a trusted method to extend throughout Argentina fields and aiding production engineers in their optimization targets.

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Jun, Zhu, Jiang Min Zheng, and Xu Xiu Fen. "Progressive Cavity Pump-Jet Pump Production Method for Lateral Directional Drilling Well." In SPE Asia Pacific Oil and Gas Conference and Exhibition. Society of Petroleum Engineers, 1999. http://dx.doi.org/10.2118/54361-ms.

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Rodríguez Luna, Marco Antonio, and Jorge Luis Morales De La Mora. "First All Metal Progressive Cavity Pump Experience in Mexico." In SPE International Heavy Oil Conference and Exhibition. Society of Petroleum Engineers, 2018. http://dx.doi.org/10.2118/193699-ms.

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Mena, L., and S. Klein. "Surface Axial Load Based Progressive Cavity Pump Optimization System." In Latin American and Caribbean Petroleum Engineering Conference. Society of Petroleum Engineers, 1999. http://dx.doi.org/10.2118/53962-ms.

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Sultan, A., M. Khalil, I. Attar, N. Gazi, and S. Al-Sabea. "Effective Insertable Progressive Cavity Pump Anchor Optimizes Workover Costs." In Abu Dhabi International Petroleum Exhibition & Conference. Society of Petroleum Engineers, 2017. http://dx.doi.org/10.2118/188459-ms.

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Mrinal, K. R., Md Hamid Siddique, and Abdus Samad. "A Transient 3D CFD Model of a Progressive Cavity Pump." In ASME Turbo Expo 2016: Turbomachinery Technical Conference and Exposition. American Society of Mechanical Engineers, 2016. http://dx.doi.org/10.1115/gt2016-56599.

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A progressive cavity pump (PCP) is a positive displacement pump and has been used as an artificial lift method in the oil and gas industry for pumping fluid with solid content and high viscosity. In a PCP, a single-lobe rotor rotates inside a double-lobe stator. Articles on computational works for flows through a PCP are limited because of transient behavior of flow, complex geometry and moving boundaries. In this paper, a 3D CFD model has been developed to predict the flow variables at different operating conditions. The flow is considered as incompressible, single phase, transient, and turbulent. The dynamic mesh model in Ansys-Fluent for the rotor mesh movement is used, and a user defined function (UDF) written in C language defines the rotor’s hypocycloid path. The mesh deformation is done with spring based smoothing and local remeshing technique. The computational results are compared with the experiment results available in the literature. Thepump gives maximum flowrate at zero differential pressure.

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Ernst, Terry, Frank Santiago, Harry Schulz, Frank Bustamante, Juan Biternas, Jesus Borjas, Benigno Montilla, Jesus Molina, and John Bernard. "Back Spin Control in Progressive Cavity Pump for Oil Well." In 2006 IEEE/PES Transmission & Distribution Conference and Exposition: Latin America. IEEE, 2006. http://dx.doi.org/10.1109/tdcla.2006.311587.

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Yusuf, Zulkarnaen, and Dyah Rini Ratnaningsih. "Sand handling using progressive cavity pump (PCP) in mangga field." In 2ND INTERNATIONAL CONFERENCE ON EARTH SCIENCE, MINERAL, AND ENERGY. AIP Publishing, 2020. http://dx.doi.org/10.1063/5.0006852.

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