Deciphering Shale Gas Production Dynamics: A Fractal Theory Approach

Shale gas production dynamics display strong heterogeneity and nonlinearity, posing challenges to conventional analytical methods. This study applies fractal theory to analyze long-term production data from 178 global shale gas fields by calculating Hurst exponent (H) and fractal dimension (D). Results show 60.7% of fields are suitable for fractal analysis, with H values of 0.64–0.92 and D values of 1.0–1.9, indicating significant long-term memory and structural complexity. Cluster analysis reveals two distinct production patterns: stable trend (13.0%) and fluctuating trend (87.0%). Key innovations include: (1) extending fractal theory from static reservoir characterization to dynamic production analysis; (2) establishing a fractal-based production classification system; and (3) defining applicability conditions for fractal analysis in shale gas evaluation. This study demonstrates fractal theory’s effectiveness as a quantitative tool for production dynamics analysis, EUR estimation, and development strategy optimization.

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Publication Details

Journal
Fractal and Fractional
Published
2025-11-07
DOI
https://doi.org/10.3390/fractalfract9110719
Primary Topic
Hydrocarbon exploration and reservoir analysis
Type
article
Field-Weighted Citation Impact
0.00

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article

Deciphering Shale Gas Production Dynamics: A Fractal Theory Approach

Lingfeng Zhao, Baolei Liu, Liang Zhao, Xinyi Zhang
Fractal and Fractional
Hydrocarbon exploration and reservoir analysis
article

Deciphering Shale Gas Production Dynamics: A Fractal Theory Approach

Lingfeng Zhao, Baolei Liu, Liang Zhao, Xinyi Zhang
article en

Abstract

Shale gas production dynamics display strong heterogeneity and nonlinearity, posing challenges to conventional analytical methods. This study applies fractal theory to analyze long-term production data from 178 global shale gas fields by calculating Hurst exponent (H) and fractal dimension (D). Results show 60.7% of fields are suitable for fractal analysis, with H values of 0.64–0.92 and D values of 1.0–1.9, indicating significant long-term memory and structural complexity. Cluster analysis reveals two distinct production patterns: stable trend (13.0%) and fluctuating trend (87.0%). Key innovations include: (1) extending fractal theory from static reservoir characterization to dynamic production analysis; (2) establishing a fractal-based production classification system; and (3) defining applicability conditions for fractal analysis in shale gas evaluation. This study demonstrates fractal theory’s effectiveness as a quantitative tool for production dynamics analysis, EUR estimation, and development strategy optimization.

Fractal and FractionalVol. 9(11)
Yangtze University (CN), Research Institute of Petroleum Exploration and Development (CN)
National Natural Science Foundation of China, National Science and Technology Major Project
Openalex Percentile: Top 62%
Hydrocarbon exploration and reservoir analysis
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Deciphering Shale Gas Production Dynamics: A Fractal Theory Approach — Lingfeng Zhao, Baolei Liu, et al. · Fractal and Fractional (2025) | TGRS Research Map | TGRS