Data-Driven Methodologies for Enhancing Efficiency and Accuracy in Wireline Formation Testing

Wireline Formation Testing (WFT) is essential for eval- uating petroleum reservoirs, providing critical data such as pressure and permeability to guide reservoir manage- ment and operational strategies. However, challenges remain in conducting these tests efficiently, particularly in determining pressure stabilization, which is often as- sessed subjectively and inconsistently. This paper intro- duces a novel methodology that combines mathemati- cal modeling, optimization, and data science to address these challenges, reducing operational time and enhanc- ing data reliability. Two models are developed: a simple analytical model and a more complex approach that ac- counts for pressure transients in greater detail, both op- timized using nonlinear regression. Quality factors (qf), derived from pressure buildup curves, are introduced to categorize tests and predict stabilization times. Addi- tionally, the methodology incorporates a survival analy- sis framework to dynamically estimate stabilization win- dows. The results highlight substantial operational ef- ficiency gains, achieving an average 75% reduction in overall buildup time. The predictive models achieved high accuracy, with R2 values exceeding 0.97 and mean pressure differences below 1 psi across most categories of pre-tests. This structured data-driven approach pro- vides robust support for real-time decision-making, en- hancing the efficiency and sustainability of WFT opera- tions.

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Publication Details

Published
2025-05-17
DOI
https://doi.org/10.30632/spwla-2025-0018
Primary Topic
Hydraulic and Pneumatic Systems
Type
article
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article

Data-Driven Methodologies for Enhancing Efficiency and Accuracy in Wireline Formation Testing

Marcela Azevedo Magalhães, Marcos Kalinowski, Lucas Abreu Blanes de Oliveira
Hydraulic and Pneumatic Systems
article

Data-Driven Methodologies for Enhancing Efficiency and Accuracy in Wireline Formation Testing

Marcela Azevedo Magalhães, Marcos Kalinowski, Lucas Abreu Blanes de Oliveira
article en

Abstract

Wireline Formation Testing (WFT) is essential for eval- uating petroleum reservoirs, providing critical data such as pressure and permeability to guide reservoir manage- ment and operational strategies. However, challenges remain in conducting these tests efficiently, particularly in determining pressure stabilization, which is often as- sessed subjectively and inconsistently. This paper intro- duces a novel methodology that combines mathemati- cal modeling, optimization, and data science to address these challenges, reducing operational time and enhanc- ing data reliability. Two models are developed: a simple analytical model and a more complex approach that ac- counts for pressure transients in greater detail, both op- timized using nonlinear regression. Quality factors (qf), derived from pressure buildup curves, are introduced to categorize tests and predict stabilization times. Addi- tionally, the methodology incorporates a survival analy- sis framework to dynamically estimate stabilization win- dows. The results highlight substantial operational ef- ficiency gains, achieving an average 75% reduction in overall buildup time. The predictive models achieved high accuracy, with R2 values exceeding 0.97 and mean pressure differences below 1 psi across most categories of pre-tests. This structured data-driven approach pro- vides robust support for real-time decision-making, en- hancing the efficiency and sustainability of WFT opera- tions.

Openalex Percentile: Top 71%
Hydraulic and Pneumatic Systems
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