A Permeability Prediction Model of Single-Peak NMR T2 Distribution in Tight Sandstones: A Case Study on the Huangliu Formation, Yinggehai Basin, China

Tight sandstone reservoirs have low porosity, low permeability, and a complex pore structure. The seepage from tight sandstones is a key factor in evaluating the oil and gas accumulation in these reservoirs. Therefore, reservoir permeability prediction has become the focus of researchers. Using nucl...

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Veröffentlicht in:Mathematical geosciences 2024-08, Vol.56 (6), p.1303-1333
Hauptverfasser: Zhao, Jing, Huang, Zhilong, Dong, Jin, Zhang, Jingyuan, Wang, Rui, Ma, Chonglin, Deng, Guangjun, Xu, Maguang
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container_issue 6
container_start_page 1303
container_title Mathematical geosciences
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creator Zhao, Jing
Huang, Zhilong
Dong, Jin
Zhang, Jingyuan
Wang, Rui
Ma, Chonglin
Deng, Guangjun
Xu, Maguang
description Tight sandstone reservoirs have low porosity, low permeability, and a complex pore structure. The seepage from tight sandstones is a key factor in evaluating the oil and gas accumulation in these reservoirs. Therefore, reservoir permeability prediction has become the focus of researchers. Using nuclear magnetic resonance (NMR), high-pressure mercury injection, scanning electron microscopy, and other experimental methods, scholars have established various permeability prediction models, which have obvious advantages and disadvantages. However, there is less research conducted on predicting the permeability of tight sandstone reservoirs according to their single-peak NMR T 2 distribution. Based on NMR experiments and the bimodal Gaussian density formula, this study identified the criteria for determining the types of reservoir pore structures with single-peak NMR T 2 distribution and established the parameters ( η 1 and η 2 ) that can be used in the evaluation of reservoir pore structure. A novel model for predicting the permeability of tight sandstone reservoirs was established using η 1 and η 2 . The results of the prediction model proposed in this study were found to be superior to the results of eight permeability prediction models established by other scholars in the studied case of the Huangliu Formation. However, permeability prediction models established using the NMR experimental results of different sources were found to be ineffective. Additionally, the new model is suitable for use with sandstone reservoirs with both single-peak and double-peak NMR T 2 distributions in the studied case of the Yanchang Formation. Logging curves can be used to predict η 1 and η 2 , and the permeability of a single well of a tight sandstone reservoir. The study findings would be useful for predicting tight sandstone reservoir permeability.
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subjects Chemistry and Earth Sciences
Computer Science
Earth and Environmental Science
Earth Sciences
Electron microscopy
Experimental methods
Geotechnical Engineering & Applied Earth Sciences
Hydrogeology
Magnetic permeability
Magnetic resonance
Membrane permeability
Mercury
NMR
Normal distribution
Nuclear magnetic resonance
Parameter identification
Permeability
Physics
Porosity
Prediction models
Predictions
Research methodology
Reservoirs
Sandstone
Scanning electron microscopy
Sedimentary rocks
Seepage
Statistics for Engineering
title A Permeability Prediction Model of Single-Peak NMR T2 Distribution in Tight Sandstones: A Case Study on the Huangliu Formation, Yinggehai Basin, China
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