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Development of six machine learning models for pump intake pressure calculations in esp wells / By Mohamed Hamdy Mohamed Ibrahim El-Sersy; Under the Supervision of Prof. Dr. Mohamed Helmy Sayyouh, Prof. Dr. Ahmed Hamdy El-Banbi, Prof. Dr. Mahmoud Abu El Ela

By: Contributor(s): Material type: TextTextLanguage: English Summary language: English Spoken language: Arabic Producer: 2023Description: 117 pages : illustrations ; 30 cm. + CDContent type:
  • text
Media type:
  • Unmediated
Carrier type:
  • volume
Other title:
  • تطوير ست نماذج للتعلم الآلي للتنبؤ بضغط سحب المضخة في الابار التي تستخدم طرق الرفع بالمضخات الغاطسة [Added title page title]
Subject(s): DDC classification:
  • 622.18
Available additional physical forms:
  • Issued also as CD
Dissertation note: Thesis (M.Sc.)-Cairo University, 2023. Summary: The pump intake pressure (PIP) is a crucial parameter for optimizing the performance improvement of pumped oil wells. Recently, Electrical submersible pump (ESP) systems have usually adopted downhole gauges to evaluate PIP. In this study, six new models (Linear Regression (LR) model, Polynomial Regression (PR) model, Decision Tree (DT) model, Random Forest (RF) model, Support Vector Machine (SVM) model, and finally, Artificial Neural Network (ANN) model) were developed based on machine learning algorithms and Artificial Intelligence (AI) techniques to predict pump intake pressure (PIP) from readily available data, and field measurements in ESP pumped wells. A database of 2352 field data points was collected from 105 ESP wells to develop the six new models. The data was split into 60% (1411 data points) for training and 40% (941 data points) for testing. The developed models rely on the following measurements as input parameters: wellhead pressure, total production rate, water cut, oil gravity, pump setting depth, the net liquid above the pump, tubing size, casing size, and casing pressure. The models' accuracies were compared against each other. Then, the developed models were compared against the accuracy of previous correlations and actual readings obtained from ESP downhole pressure sensors. The results indicate that the accuracy of the ANN model is significantly higher than that of the other developed machine learning models and the previously available correlations. Using the ANN model, the Average Mean Absolute Error (AMAE) comparing the calculated and the measured PIP is 11.93% and 12.33% for the training and testing data, respectively. These results demonstrate the strength of the developed model to predict the PIP with better accuracy and without the need for a downhole pressure sensor.Summary: تم استنباط ستة نماذج جديدة وهي نموذج الانحدار الخطي ونموذج الانحدار متعدد الحدود ونموذج شجرة القرار ونموذج الغابة العشوائية ونموذج آلة المتجهات الداعم وأخيراً نموذج الشبكة العصبية الاصطناعية. تم تطوير هذه النماذج استنادًا إلى خوارزميات التعلم الآلي وتقنيات الذكاء الاصطناعي، للتنبؤ بضغط سحب المضخة من القياسات الحقلية المتاحة بسهولة وبيانات الآبار التي تستعمل المضخات الغاطسة الكهربائية
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Thesis Thesis قاعة الرسائل الجامعية - الدور الاول المكتبة المركزبة الجديدة - جامعة القاهرة Cai01 13 12 M.Sc 2023 Mo.D (Browse shelf(Opens below)) Not for loan 01010110088359000

Thesis (M.Sc.)-Cairo University, 2023.

Bibliography: pages 66-69.

The pump intake pressure (PIP) is a crucial parameter for optimizing
the performance improvement of pumped oil wells. Recently, Electrical
submersible pump (ESP) systems have usually adopted downhole gauges to
evaluate PIP. In this study, six new models (Linear Regression (LR) model,
Polynomial Regression (PR) model, Decision Tree (DT) model, Random Forest
(RF) model, Support Vector Machine (SVM) model, and finally, Artificial Neural
Network (ANN) model) were developed based on machine learning algorithms
and Artificial Intelligence (AI) techniques to predict pump intake pressure (PIP)
from readily available data, and field measurements in ESP pumped wells.
A database of 2352 field data points was collected from 105 ESP wells to
develop the six new models. The data was split into 60% (1411 data points) for
training and 40% (941 data points) for testing. The developed models rely on
the following measurements as input parameters: wellhead pressure, total
production rate, water cut, oil gravity, pump setting depth, the net liquid above
the pump, tubing size, casing size, and casing pressure.



The models' accuracies were compared against each other. Then, the
developed models were compared against the accuracy of previous
correlations and actual readings obtained from ESP downhole pressure
sensors. The results indicate that the accuracy of the ANN model is significantly
higher than that of the other developed machine learning models and the
previously available correlations. Using the ANN model, the Average Mean
Absolute Error (AMAE) comparing the calculated and the measured PIP is
11.93% and 12.33% for the training and testing data, respectively. These
results demonstrate the strength of the developed model to predict the PIP with
better accuracy and without the need for a downhole pressure sensor.

تم استنباط ستة نماذج جديدة وهي نموذج الانحدار الخطي ونموذج الانحدار متعدد الحدود ونموذج شجرة القرار ونموذج الغابة العشوائية ونموذج آلة المتجهات الداعم وأخيراً نموذج الشبكة العصبية الاصطناعية. تم تطوير هذه النماذج استنادًا إلى خوارزميات التعلم الآلي وتقنيات الذكاء الاصطناعي، للتنبؤ بضغط سحب المضخة من القياسات الحقلية المتاحة بسهولة وبيانات الآبار التي تستعمل المضخات الغاطسة الكهربائية

Issued also as CD

Text in English and abstract in Arabic & English.

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