Seismic Prediction of Porosity in the Norne Field: Utilizing Support Vector Regression and Empirical Models Driven by Bayesian Linearized Inversion

This work aims to improve the characterization of petrophysical properties by accurately estimating subsurface porosity using seismic and well data. The study includes Bayesian Linearized Inversion to obtain elastic parameters (e.g., compressional e shear wave velocities and densities). This reduces...

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Main Authors: Jorge A. Teruya Monroe, Jose J. S. de Figueiredo, Carlos E. S. Amanajas
Format: Article
Language:English
Published: MDPI AG 2025-01-01
Series:Applied Sciences
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Online Access:https://www.mdpi.com/2076-3417/15/2/616
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author Jorge A. Teruya Monroe
Jose J. S. de Figueiredo
Carlos E. S. Amanajas
author_facet Jorge A. Teruya Monroe
Jose J. S. de Figueiredo
Carlos E. S. Amanajas
author_sort Jorge A. Teruya Monroe
collection DOAJ
description This work aims to improve the characterization of petrophysical properties by accurately estimating subsurface porosity using seismic and well data. The study includes Bayesian Linearized Inversion to obtain elastic parameters (e.g., compressional e shear wave velocities and densities). This reduces processing uncertainty and provides a reliable substitute for the standard Amplitude versus Offset inversion method. Furthermore, incorporating sparse spike wavelets with Bayesian Linearized Inversion refines the inversion output, facilitating the extraction of petrophysical properties. Combined with log data from seventeen wells, these inverted parameters serve as inputs for two porosity prediction models: the empirical Han’s equation and a more adaptable Support Vector Regression model, the latter demonstrating superior precision in most cases due to its flexible fitting and calibration capabilities. Results from the Norne field in the North Sea confirm the approach’s viability, with the Support Vector Regression model achieving a significant Pearson correlation coefficient of 90% in porosity prediction, underscoring the potential of machine learning techniques in improving subsurface exploration results.
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spelling doaj-art-524ea8a3e2ea4cb1a7c5aace56bf7fb92025-01-24T13:20:04ZengMDPI AGApplied Sciences2076-34172025-01-0115261610.3390/app15020616Seismic Prediction of Porosity in the Norne Field: Utilizing Support Vector Regression and Empirical Models Driven by Bayesian Linearized InversionJorge A. Teruya Monroe0Jose J. S. de Figueiredo1Carlos E. S. Amanajas2Programa de Pós-Graduação em Geofísica, Universidade Federal do Pará, Rua Augusto Correa, 01, Belém 66075-110, PA, BrazilPrograma de Pós-Graduação em Geofísica, Universidade Federal do Pará, Rua Augusto Correa, 01, Belém 66075-110, PA, BrazilPrograma de Pós-Graduação em Geofísica, Universidade Federal do Pará, Rua Augusto Correa, 01, Belém 66075-110, PA, BrazilThis work aims to improve the characterization of petrophysical properties by accurately estimating subsurface porosity using seismic and well data. The study includes Bayesian Linearized Inversion to obtain elastic parameters (e.g., compressional e shear wave velocities and densities). This reduces processing uncertainty and provides a reliable substitute for the standard Amplitude versus Offset inversion method. Furthermore, incorporating sparse spike wavelets with Bayesian Linearized Inversion refines the inversion output, facilitating the extraction of petrophysical properties. Combined with log data from seventeen wells, these inverted parameters serve as inputs for two porosity prediction models: the empirical Han’s equation and a more adaptable Support Vector Regression model, the latter demonstrating superior precision in most cases due to its flexible fitting and calibration capabilities. Results from the Norne field in the North Sea confirm the approach’s viability, with the Support Vector Regression model achieving a significant Pearson correlation coefficient of 90% in porosity prediction, underscoring the potential of machine learning techniques in improving subsurface exploration results.https://www.mdpi.com/2076-3417/15/2/616Bayesian linearized inversionporositymachine learning
spellingShingle Jorge A. Teruya Monroe
Jose J. S. de Figueiredo
Carlos E. S. Amanajas
Seismic Prediction of Porosity in the Norne Field: Utilizing Support Vector Regression and Empirical Models Driven by Bayesian Linearized Inversion
Applied Sciences
Bayesian linearized inversion
porosity
machine learning
title Seismic Prediction of Porosity in the Norne Field: Utilizing Support Vector Regression and Empirical Models Driven by Bayesian Linearized Inversion
title_full Seismic Prediction of Porosity in the Norne Field: Utilizing Support Vector Regression and Empirical Models Driven by Bayesian Linearized Inversion
title_fullStr Seismic Prediction of Porosity in the Norne Field: Utilizing Support Vector Regression and Empirical Models Driven by Bayesian Linearized Inversion
title_full_unstemmed Seismic Prediction of Porosity in the Norne Field: Utilizing Support Vector Regression and Empirical Models Driven by Bayesian Linearized Inversion
title_short Seismic Prediction of Porosity in the Norne Field: Utilizing Support Vector Regression and Empirical Models Driven by Bayesian Linearized Inversion
title_sort seismic prediction of porosity in the norne field utilizing support vector regression and empirical models driven by bayesian linearized inversion
topic Bayesian linearized inversion
porosity
machine learning
url https://www.mdpi.com/2076-3417/15/2/616
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AT josejsdefigueiredo seismicpredictionofporosityinthenornefieldutilizingsupportvectorregressionandempiricalmodelsdrivenbybayesianlinearizedinversion
AT carlosesamanajas seismicpredictionofporosityinthenornefieldutilizingsupportvectorregressionandempiricalmodelsdrivenbybayesianlinearizedinversion