Methane Emissions Reduction Strategies for Safer and More Efficient Petroleum Production Operations

Abstract

This paper develops an integrated measurement-to-mitigation architecture that links methane control with safety, reliability, and resource conservation. The study responds to the problem that methane losses arise from fugitive leaks, vents, pneumatic devices, tanks, compressors, incomplete combustion, maintenance activity, and abnormal operations. It uses an integrative conceptual review of scholarly and professional literature published to date. The framework organizes eight decision functions: source inventory development, measurement technology selection, emission quantification, risk and abatement ranking, repair and replacement planning, verification of reduction, data-quality assurance, management review. It applies those functions across well sites, gathering systems, processing facilities, compressor stations, storage assets, transmission and distribution interfaces. The analysis treats uncertainty, process safety, reliability, environmental performance, resource efficiency, economics, and organizational control as connected requirements. The proposed architecture links a system definition, evidence register, model assumptions, intervention portfolio, verification plan, and learning cycle. Its central proposition is that detect, quantify, prioritize, prevent, and verify methane reductions while protecting process safety and production continuity when decisions preserve traceability from measured conditions to selected actions and verified outcomes. The paper offers testable propositions, an implementation roadmap, asset-specific application protocols, and a research agenda. The framework supports case-study testing and quantitative extension without claiming universal performance before field validation.