Amidated Graphene Oxide–Terpolymer Complex as a High‐Performance Stabilizer for CO <sub>2</sub> Gel Foam Fracturing Fluids

ABSTRACT A composite stabilizer comprising amidated graphene oxide (AGO) and a CP(AM‐AA‐NaAA) terpolymer was developed to enhance the performance of CO 2 gel foam fracturing fluids under harsh reservoir conditions. AGO was synthesized through the amidation of graphene oxide with polyether amine, which expanded its interlayer spacing and improved its dispersibility. The optimized AGO‐enhanced foam system demonstrated outstanding stability and performance: a high foaming volume of 735 mL, an extended half‐life of 1292 s, and superior foam quality of 88.79% at 120°C. The system also exhibited excellent sand‐suspending ability, low surface tension, broad pH tolerance (3–12), and improved shear resistance. This work presents a promising stabilizer strategy for efficient CO 2 fracturing in high‐temperature and high‐salinity unconventional reservoirs.

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Publication Details

Journal
Chemie Ingenieur Technik
Published
2026-03-26
DOI
https://doi.org/10.1002/cite.70092
Primary Topic
Enhanced Oil Recovery Techniques
Type
article
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article

Amidated Graphene Oxide–Terpolymer Complex as a High‐Performance Stabilizer for CO 2 Gel Foam Fracturing Fluids

S. Y. Chen, Jing Zhong, Zheng Wu, Ming Zhou et al.
Chemie Ingenieur Technik
Enhanced Oil Recovery Techniques
article

Amidated Graphene Oxide–Terpolymer Complex as a High‐Performance Stabilizer for CO 2 Gel Foam Fracturing Fluids

S. Y. Chen, Jing Zhong, Zheng Wu, Ming Zhou, Yunyao Wei, Yuchen Jiao
article en

Abstract

ABSTRACT A composite stabilizer comprising amidated graphene oxide (AGO) and a CP(AM‐AA‐NaAA) terpolymer was developed to enhance the performance of CO 2 gel foam fracturing fluids under harsh reservoir conditions. AGO was synthesized through the amidation of graphene oxide with polyether amine, which expanded its interlayer spacing and improved its dispersibility. The optimized AGO‐enhanced foam system demonstrated outstanding stability and performance: a high foaming volume of 735 mL, an extended half‐life of 1292 s, and superior foam quality of 88.79% at 120°C. The system also exhibited excellent sand‐suspending ability, low surface tension, broad pH tolerance (3–12), and improved shear resistance. This work presents a promising stabilizer strategy for efficient CO 2 fracturing in high‐temperature and high‐salinity unconventional reservoirs.

Chemie Ingenieur Technik
Southwest Petroleum University (CN), State Key Laboratory of Oil and Gas Reservoir Geology and Exploitation (CN)
Openalex Percentile: Top 6%
Enhanced Oil Recovery Techniques
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