Optimized algorithm for multipoint geostatistical facies modeling based on a deep feedforward neural network.

Reservoir facies modeling is an important way to express the sedimentary characteristics of the target area. Conventional deterministic modeling, target-based stochastic simulation, and two-point geostatistical stochastic modeling methods are difficult to characterize the complex sedimentary microfa...

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Autores principales: Jianpeng Yao, Wenling Liu, Qingbin Liu, Yuyang Liu, Xiaodong Chen, Mao Pan
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Lenguaje:EN
Publicado: Public Library of Science (PLoS) 2021
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Acceso en línea:https://doaj.org/article/9ec93d9dff5e4ee192b3d66fc3ce013d
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spelling oai:doaj.org-article:9ec93d9dff5e4ee192b3d66fc3ce013d2021-12-02T20:10:17ZOptimized algorithm for multipoint geostatistical facies modeling based on a deep feedforward neural network.1932-620310.1371/journal.pone.0253174https://doaj.org/article/9ec93d9dff5e4ee192b3d66fc3ce013d2021-01-01T00:00:00Zhttps://doi.org/10.1371/journal.pone.0253174https://doaj.org/toc/1932-6203Reservoir facies modeling is an important way to express the sedimentary characteristics of the target area. Conventional deterministic modeling, target-based stochastic simulation, and two-point geostatistical stochastic modeling methods are difficult to characterize the complex sedimentary microfacies structure. Multi-point geostatistics (MPG) method can learn a priori geological model and can realize multi-point correlation simulation in space, while deep neural network can express nonlinear relationship well. This article comprehensively utilizes the advantages of the two to try to optimize the multi-point geostatistical reservoir facies modeling algorithm based on the Deep Forward Neural Network (DFNN). Through the optimization design of the multi-grid training data organization form and repeated simulation of grid nodes, the simulation results of diverse modeling algorithm parameters, data conditions and deposition types of sedimentary microfacies models were compared. The results show that by optimizing the organization of multi-grid training data and repeated simulation of nodes, it is easier to obtain a random simulation close to the real target, and the simulation of sedimentary microfacies of different scales and different sedimentary types can be performed.Jianpeng YaoWenling LiuQingbin LiuYuyang LiuXiaodong ChenMao PanPublic Library of Science (PLoS)articleMedicineRScienceQENPLoS ONE, Vol 16, Iss 6, p e0253174 (2021)
institution DOAJ
collection DOAJ
language EN
topic Medicine
R
Science
Q
spellingShingle Medicine
R
Science
Q
Jianpeng Yao
Wenling Liu
Qingbin Liu
Yuyang Liu
Xiaodong Chen
Mao Pan
Optimized algorithm for multipoint geostatistical facies modeling based on a deep feedforward neural network.
description Reservoir facies modeling is an important way to express the sedimentary characteristics of the target area. Conventional deterministic modeling, target-based stochastic simulation, and two-point geostatistical stochastic modeling methods are difficult to characterize the complex sedimentary microfacies structure. Multi-point geostatistics (MPG) method can learn a priori geological model and can realize multi-point correlation simulation in space, while deep neural network can express nonlinear relationship well. This article comprehensively utilizes the advantages of the two to try to optimize the multi-point geostatistical reservoir facies modeling algorithm based on the Deep Forward Neural Network (DFNN). Through the optimization design of the multi-grid training data organization form and repeated simulation of grid nodes, the simulation results of diverse modeling algorithm parameters, data conditions and deposition types of sedimentary microfacies models were compared. The results show that by optimizing the organization of multi-grid training data and repeated simulation of nodes, it is easier to obtain a random simulation close to the real target, and the simulation of sedimentary microfacies of different scales and different sedimentary types can be performed.
format article
author Jianpeng Yao
Wenling Liu
Qingbin Liu
Yuyang Liu
Xiaodong Chen
Mao Pan
author_facet Jianpeng Yao
Wenling Liu
Qingbin Liu
Yuyang Liu
Xiaodong Chen
Mao Pan
author_sort Jianpeng Yao
title Optimized algorithm for multipoint geostatistical facies modeling based on a deep feedforward neural network.
title_short Optimized algorithm for multipoint geostatistical facies modeling based on a deep feedforward neural network.
title_full Optimized algorithm for multipoint geostatistical facies modeling based on a deep feedforward neural network.
title_fullStr Optimized algorithm for multipoint geostatistical facies modeling based on a deep feedforward neural network.
title_full_unstemmed Optimized algorithm for multipoint geostatistical facies modeling based on a deep feedforward neural network.
title_sort optimized algorithm for multipoint geostatistical facies modeling based on a deep feedforward neural network.
publisher Public Library of Science (PLoS)
publishDate 2021
url https://doaj.org/article/9ec93d9dff5e4ee192b3d66fc3ce013d
work_keys_str_mv AT jianpengyao optimizedalgorithmformultipointgeostatisticalfaciesmodelingbasedonadeepfeedforwardneuralnetwork
AT wenlingliu optimizedalgorithmformultipointgeostatisticalfaciesmodelingbasedonadeepfeedforwardneuralnetwork
AT qingbinliu optimizedalgorithmformultipointgeostatisticalfaciesmodelingbasedonadeepfeedforwardneuralnetwork
AT yuyangliu optimizedalgorithmformultipointgeostatisticalfaciesmodelingbasedonadeepfeedforwardneuralnetwork
AT xiaodongchen optimizedalgorithmformultipointgeostatisticalfaciesmodelingbasedonadeepfeedforwardneuralnetwork
AT maopan optimizedalgorithmformultipointgeostatisticalfaciesmodelingbasedonadeepfeedforwardneuralnetwork
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