Methane Emissions Quantification and Resulting Methane Emissions Reduction in the Permian Basin Enabled by Automated Unmanned Systems

Author:

Churchill Jason1,Wise Brenda1ORCID,Cooper Iain2ORCID,Smith Brendan3ORCID

Affiliation:

1. PetroLegacy Energy

2. SeekOps Inc (Corresponding author)

3. SeekOps Inc

Abstract

Summary Traditional methods for monitoring emissions from production operations have typically used optical gas imaging cameras or Method 21 systems, based on an intermittent basis to determine and document methane gas leaks, which are then subsequently identified for repair under the US Code of Federal Regulations (2017). These optical gas imaging emissions monitoring surveys can have a subjective bias, are highly conditional on the skill of the camera operator, and are an inexact method of measuring the quantity of the leak rate. With a renewed industry emphasis on methane emissions measurement and reduction, this paper describes a case study using a high-sensitivity sensor technology (laser absorption spectrometry) specifically targeting methane emissions, the unique capabilities engendered by its deployment on unmanned aerial systems (UAS), the leveraging of automation in field-operation and data analysis, and the system’s successful utilizationin enabling emissions limitations over several production sites in the Permian Basin. The use of automation enabled categorization of the leak type and intensity, and triage according to leak rate, facilitating prompt remedial action and directly limiting emissions. By automating the comprehensive flight paths specific to equipment groups (e.g., compressors, tanks, and flares), targeted repeat surveys confirmed that specific leaks were fixed, emphasizing a general downward trend in overall site- and asset-level emissions. These surveys were completed in 22.5 minutes, on average, at each of the five sites. Additionally, the use of high-resolution UAS-generated orthomosaic maps enabled the direct placement of emissions data into the context of the operations at the time of the survey, facilitating the generation of automated actionable reports, helping direct repair teams, and resulting in effective and necessary fixes. Furthermore, the campaign validated that following the set up of the initial survey, subsequent regular, repeat surveys could be commissioned at the “push of a button,” yielding reliable, actionable emissions data, with a direct impact on both environmental (6% reduction in emissions) and financial impact.

Publisher

Society of Petroleum Engineers (SPE)

Subject

Energy Engineering and Power Technology,Fuel Technology,General Earth and Planetary Sciences,General Environmental Science

Reference18 articles.

1. Field Trial of Methane Emission Quantification Technologies;Allen,2020

2. Quantifying Regional Methane Emissions in the New Mexico Permian Basin with a Comprehensive Aerial Survey;Chen;Environ Sci Technol,2022

3. A Study of A Miniature TDLAS System Onboard Two Unmanned Aircraft to Independently Quantify Methane Emissions from Oil and Gas Production Assets and Other Industrial Emitters;Corbett;Atmos,2022

4. EPA . 2017. Method 21 – Determination of Volatile Organic Compound Leaks. Environmental Protection Agency. https://www.epa.gov/sites/default/files/2017-08/documents/method_21.pdf.

5. EPA . 2021. Recommended Procedures for Development of Emissions Factors and Use of the WebFIRE Database. Environmental Protection Agency. https://www.epa.gov/system/files/documents/2021-11/final-webfire-procedures-document_nov-2021.pdf.

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