Improving Fault Behaviour Predictions using Empirical Rules for QC and Modelling of Fault Populations

Summary Faults are crucial in subsurface processes, affecting hydrocarbon accumulation, well planning, containment risks, and drilling safety. Accurate fault interpretation is essential, as errors can lead to unreliable subsurface predictions. While deep learning has improved fault interpretation, its effectiveness relies on geologically realistic training data and fault surface extractions. We analyzed 4,754 faults from 44 3D seismic volumes across diverse geologic settings. Statistical compilations of fault dimensions, ambiguity, and density—relative to seismic volume quality—enable three key applications: Quality control of manual interpretations. Creation of realistic datasets for deep learning. Guidance for extracting discrete fault surfaces from inference volumes. These volume-based tools, independent of horizon interpretations, enhance fault analysis accuracy, supporting safer and more efficient subsurface operations.

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Published
2025-01-01
DOI
https://doi.org/10.3997/2214-4609.202532022
Primary Topic
Fault Detection and Control Systems
Type
article
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article

Improving Fault Behaviour Predictions using Empirical Rules for QC and Modelling of Fault Populations

Pedram Zarian, John Solum
Fault Detection and Control Systems
article

Improving Fault Behaviour Predictions using Empirical Rules for QC and Modelling of Fault Populations

Pedram Zarian, John Solum
article en

Abstract

Summary Faults are crucial in subsurface processes, affecting hydrocarbon accumulation, well planning, containment risks, and drilling safety. Accurate fault interpretation is essential, as errors can lead to unreliable subsurface predictions. While deep learning has improved fault interpretation, its effectiveness relies on geologically realistic training data and fault surface extractions. We analyzed 4,754 faults from 44 3D seismic volumes across diverse geologic settings. Statistical compilations of fault dimensions, ambiguity, and density—relative to seismic volume quality—enable three key applications: Quality control of manual interpretations. Creation of realistic datasets for deep learning. Guidance for extracting discrete fault surfaces from inference volumes. These volume-based tools, independent of horizon interpretations, enhance fault analysis accuracy, supporting safer and more efficient subsurface operations.

Shell (Netherlands) (NL)
Climate action
Openalex Percentile: Top 77%
Fault Detection and Control Systems
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Improving Fault Behaviour Predictions using Empirical Rules for QC and Modelling of Fault Populations — Pedram Zarian, John Solum · (2025) | TGRS Research Map | TGRS