SLB (Schlumberger), Angola.
Received on 01 December 2025; revised on 04 January 2026; accepted on 09 January 2026
Objective: This review evaluates how specialized drilling fluids can reduce the environmental impacts of Arctic oil and gas operations. It examines advancements in biodegradable additives, nano-enhanced stabilizers, low-toxicity synthetic esters, and cold-resilient rheology modifiers, assessing their capacity to address the ecological vulnerabilities of Arctic marine and permafrost systems.
Study Design: Structured as a narrative and thematic review, this study integrates engineering, environmental, and regulatory literature to provide a multidisciplinary assessment of drilling-fluid innovation in ultra-low-temperature environments. The review focuses on operational and ecological challenges unique to the Arctic, including extreme cold, slow biodegradation, and limited waste-treatment capacity.
Methodology: A structured search across Scopus, ScienceDirect, Web of Science, ACS Publications, SpringerLink, MDPI, Frontiers, OnePetro, and Google Scholar identified literature published between 2019 and 2025. 25 peer-reviewed studies met the inclusion criteria and were thematically categorized into seven domains: traditional-fluid limitations, low-temperature rheology, eco-friendly additives, nano-biodegradable systems, Arctic ecotoxicology, waste-management strategies, and integration into Arctic risk-assessment frameworks.
Results: Traditional oil-based and synthetic-based muds show persistent toxicity, low biodegradation, and sediment accumulation in cold ecosystems. Specialized fluids, such as biodegradable water-based systems, nano-enhanced additives, and ester-based formulations, demonstrate improved cold-temperature stability, lower ecotoxicity, and reduced environmental persistence. Waste-management strategies such as cuttings, reinjection and low-impact thermal desorption further mitigate ecological burden. However, regulatory frameworks across Arctic jurisdictions remain inconsistent, and cold-condition ecotoxicity testing is limited.
Conclusions: Specialized drilling fluids offer a viable pathway to reducing Arctic drilling impacts, but broader protection requires harmonized regulations, mandatory low-temperature toxicity testing, and investment in sustainable waste-management. Integrating these innovations into updated Arctic environmental-risk models is essential for safer, more responsible polar operations.
Arctic Drilling Fluids; Environmental Impact; Low-Temperature Rheology; Biodegradable Additives; Nano-Biodegradable Systems; Ecotoxicology; Permafrost Stability; Waste-Management.
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Oladokun Olawale. Minimizing Environmental Impact in Arctic Drilling Through Specialized Fluids. Magna Scientia Advanced Research and Reviews, 2026, 16(1), 017-027. Article DOI: https://doi.org/10.30574/msarr.2026.16.1.0004