Mathematical model of controllers for progressive cavity pumps

被引:2
|
作者
Bernardo Ceballos, Juan [1 ]
Andres Vivas, Oscar [1 ]
机构
[1] Univ Cauca, Dept Elect, Popayan, Cauca, Colombia
来源
UIS INGENIERIAS | 2019年 / 18卷 / 02期
关键词
fuzzy logic; Kalman filter; linear quadratic regulator; oil production; progressive cavity pump;
D O I
10.18273/revuin.v18n2-2019002
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Progressive Cavity Pumps (PCP) is an artificial fluid lift method widely used in oil wells of Colombia, Canada and Venezuela, where the pump is driven by a rod connected to the motor located at the surface. Efficiency in energy production is critical, and the current control techniques used are based on discrete changes, seeking for an operational point. This approach can be improved, and optimization techniques proposed are presented in this paper. Strategies of control based on continuous adjustments of motor speed and fuzzy logic together with a downhole pressure sensor are simulated for this nonlinear system. Utilization of Kalman filtering, for estimation of the fluid level in wells that are not instrumented, is proposed. Linear Quadratic Regulator (LQR) also is used to optimize production performance. Results show good performance compared with current techniques.
引用
收藏
页码:17 / 29
页数:13
相关论文
共 50 条
  • [31] Valveless flow control: The paradigm shift from centrifugals and control valves to progressive cavity pumps
    Heigl, David
    Dewell, Kathryn
    JOURNAL AMERICAN WATER WORKS ASSOCIATION, 2014, 106 (03): : 51 - 56
  • [32] Interference recommendation for the pump sizing process in progressive cavity pumps using graph neural networks
    Leandro Starke
    Aurélio Faustino Hoppe
    Andreza Sartori
    Stefano Frizzo Stefenon
    Juan Francisco De Paz Santana
    Valderi Reis Quietinho Leithardt
    Scientific Reports, 13
  • [33] Valveless flow control: The paradigm shift from centrifugals and control valves to progressive cavity pumps
    Heigl, David
    Dewell, Kathryn
    Journal - American Water Works Association, 2014, 106 (03): : 51 - 56
  • [34] Search for limits of complex cavity model by progressive simplification
    Todeschini, F.
    Bertrand, A.
    Ramos, M.
    2014 IEEE INTERNATIONAL SYMPOSIUM ON ELECTROMAGNETIC COMPATIBILITY (EMC), 2014, : 787 - 791
  • [35] A computational model for the flow within rigid stator progressing cavity pumps
    Paladino, Emilio E.
    Lima, Joao A.
    Pessoa, Paulo A. S.
    Almeida, Rairam F. C.
    JOURNAL OF PETROLEUM SCIENCE AND ENGINEERING, 2011, 78 (01) : 178 - 192
  • [36] Mathematical Model of Cavity Closure on a Compressible Gas Jet
    Chen, Wei-Qi
    Chuan Bo Li Xue/Journal of Ship Mechanics, 2022, 26 (12): : 1737 - 1748
  • [37] Mathematical model and dynamic characteristics of Helmholtz resonator cavity
    Radin, Danila
    Makaryants, Georgy
    Borisov, Dmitriy
    2020 INTERNATIONAL CONFERENCE ON DYNAMICS AND VIBROACOUSTICS OF MACHINES (DVM), 2020,
  • [38] The Energetics of High Frequency Discharge in Electrocytes: A Mathematical Model with Explicit Pumps
    Joos, Bela
    Markham, Michael R.
    Lewis, John E.
    Morris, Catherine E.
    BIOPHYSICAL JOURNAL, 2015, 108 (02) : 153A - 154A
  • [39] PUMPS IN ROCK CAVITY TANKS
    SVENSSON, KG
    PUMPS AND THEIR APPLICATIONS, 1972, (64): : 16 - &
  • [40] Protecting progressing cavity pumps
    Moyno Industrial Products, Springfield, United States
    Plant Eng (Barrington Ill), 3 (3pp):