Machine Learning and Deep Learning - Enhanced Production Decline Curve Analysis for Improved Oil Recovery Forecasting

This study outlines a comprehensive methodological framework aimed at improving the accuracy and predictive power of decline curve analysis (DCA) in hydrocarbon reservoir forecasting.Traditional DCA methods, while widely used, often lack the flexibility to adapt to complex reservoir behaviors, especially in unconventional formations.The enhanced framework integrates statistical, empirical and machine learning techniques to overcome these limitations.Key components include data preprocessing, model selection (e.g., Arps, modified hyperbolic, Duong), hybrid model integration and validation through real field data.The approach also emphasizes uncertainty quantification and sensitivity analysis to ensure robust forecasting.By refining the decline curve modeling process, this framework supports more reliable reserve estimation and production planning, ultimately aiding decision-making in reservoir engineering and asset management.

Authors

Publication Details

Journal
SCIENTIFIC WORK
Published
2025-06-22
DOI
https://doi.org/10.36719/2663-4619/118/185-188
Primary Topic
Reservoir Engineering and Simulation Methods
Type
article
Field-Weighted Citation Impact
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article

Machine Learning and Deep Learning - Enhanced Production Decline Curve Analysis for Improved Oil Recovery Forecasting

Agil Ismayilzadeh
SCIENTIFIC WORK
Reservoir Engineering and Simulation Methods
article

Machine Learning and Deep Learning - Enhanced Production Decline Curve Analysis for Improved Oil Recovery Forecasting

Agil Ismayilzadeh
article en

Abstract

This study outlines a comprehensive methodological framework aimed at improving the accuracy and predictive power of decline curve analysis (DCA) in hydrocarbon reservoir forecasting.Traditional DCA methods, while widely used, often lack the flexibility to adapt to complex reservoir behaviors, especially in unconventional formations.The enhanced framework integrates statistical, empirical and machine learning techniques to overcome these limitations.Key components include data preprocessing, model selection (e.g., Arps, modified hyperbolic, Duong), hybrid model integration and validation through real field data.The approach also emphasizes uncertainty quantification and sensitivity analysis to ensure robust forecasting.By refining the decline curve modeling process, this framework supports more reliable reserve estimation and production planning, ultimately aiding decision-making in reservoir engineering and asset management.

SCIENTIFIC WORKVol. 19(6)
Openalex Percentile: Top 81%
Reservoir Engineering and Simulation Methods
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