Simulation of Electromagnetic Wave Resistivity Logging While Drilling Based on the Physical-Informed Neural Network

In order to simulate the response of electromagnetic wave resistivity logging while drilling efficiently in complex media and accelerate the inversion of logging data, the physical-informed neural network (PINN) is used to simulate the response of electromagnetic wave resistivity logging while drill...

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Main Authors: LIU Yang, WANG Jian, XU Delong
Format: Article
Language:zho
Published: Editorial Office of Well Logging Technology 2023-12-01
Series:Cejing jishu
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Online Access:https://www.cnpcwlt.com/#/digest?ArticleID=5538
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author LIU Yang
WANG Jian
XU Delong
author_facet LIU Yang
WANG Jian
XU Delong
author_sort LIU Yang
collection DOAJ
description In order to simulate the response of electromagnetic wave resistivity logging while drilling efficiently in complex media and accelerate the inversion of logging data, the physical-informed neural network (PINN) is used to simulate the response of electromagnetic wave resistivity logging while drilling. PINN incorporates the governing equation into the loss function and transforms the problem of solving partial differential equation into optimization problem. PINN realizes the solution of partial differential equation. In numerical examples, the scattered field is obtained by PINN method. The influence of sampling method, activation function and network architecture on the accuracy of PINN results are studied. The PINN method is used to calculate the response of electromagnetic wave resistivity logging while drilling in high resistivity and intrusive formation models. The numerical results show that the response of electromagnetic wave logging while drilling based on PINN simulation is consistent with the finite element results. This method can be used to accurately solve the response of electromagnetic wave resistivity logging while drilling.
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publishDate 2023-12-01
publisher Editorial Office of Well Logging Technology
record_format Article
series Cejing jishu
spelling doaj-art-9be3e694e5ec4062910f083f1cdd6d8d2025-08-20T02:33:23ZzhoEditorial Office of Well Logging TechnologyCejing jishu1004-13382023-12-0147665366110.16489/j.issn.1004-1338.2023.06.0021004-1338(2023)06-0653-09Simulation of Electromagnetic Wave Resistivity Logging While Drilling Based on the Physical-Informed Neural NetworkLIU Yang0WANG Jian1XU Delong2China State Key Laboratory of Acoustics, Institute of Acoustics, Chinese Academy of Sciences, Beijing 100190, ChinaChina State Key Laboratory of Acoustics, Institute of Acoustics, Chinese Academy of Sciences, Beijing 100190, ChinaChina State Key Laboratory of Acoustics, Institute of Acoustics, Chinese Academy of Sciences, Beijing 100190, ChinaIn order to simulate the response of electromagnetic wave resistivity logging while drilling efficiently in complex media and accelerate the inversion of logging data, the physical-informed neural network (PINN) is used to simulate the response of electromagnetic wave resistivity logging while drilling. PINN incorporates the governing equation into the loss function and transforms the problem of solving partial differential equation into optimization problem. PINN realizes the solution of partial differential equation. In numerical examples, the scattered field is obtained by PINN method. The influence of sampling method, activation function and network architecture on the accuracy of PINN results are studied. The PINN method is used to calculate the response of electromagnetic wave resistivity logging while drilling in high resistivity and intrusive formation models. The numerical results show that the response of electromagnetic wave logging while drilling based on PINN simulation is consistent with the finite element results. This method can be used to accurately solve the response of electromagnetic wave resistivity logging while drilling.https://www.cnpcwlt.com/#/digest?ArticleID=5538physics-informed neural networkelectromagnetic wave resistivity logging while drillinglogging responseelectromagnetic field simulation
spellingShingle LIU Yang
WANG Jian
XU Delong
Simulation of Electromagnetic Wave Resistivity Logging While Drilling Based on the Physical-Informed Neural Network
Cejing jishu
physics-informed neural network
electromagnetic wave resistivity logging while drilling
logging response
electromagnetic field simulation
title Simulation of Electromagnetic Wave Resistivity Logging While Drilling Based on the Physical-Informed Neural Network
title_full Simulation of Electromagnetic Wave Resistivity Logging While Drilling Based on the Physical-Informed Neural Network
title_fullStr Simulation of Electromagnetic Wave Resistivity Logging While Drilling Based on the Physical-Informed Neural Network
title_full_unstemmed Simulation of Electromagnetic Wave Resistivity Logging While Drilling Based on the Physical-Informed Neural Network
title_short Simulation of Electromagnetic Wave Resistivity Logging While Drilling Based on the Physical-Informed Neural Network
title_sort simulation of electromagnetic wave resistivity logging while drilling based on the physical informed neural network
topic physics-informed neural network
electromagnetic wave resistivity logging while drilling
logging response
electromagnetic field simulation
url https://www.cnpcwlt.com/#/digest?ArticleID=5538
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AT wangjian simulationofelectromagneticwaveresistivityloggingwhiledrillingbasedonthephysicalinformedneuralnetwork
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