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The equations, parameters, data quality controls and supporting technical methods used to quantify methane reductions from pneumatic device projects for Alberta offsets.
Once a pneumatic device emission reduction project is defined, its offsets depend on getting the numbers right. This course explains which sources and sinks are included in or excluded from quantification and why, then works through the emission reduction equations for high to low vent and electrification projects, instrument gas to instrument air conversions and vent gas capture and destruction. It covers vented gas volumes from operating hours and vent rates, pump stroke based estimates, methane and carbon dioxide composition and density, global warming potential (GWP), electricity emissions from grid, on-site fossil fuel and renewable supply, and destruction efficiency for captured gas.
The course then turns to the data quality expected for verification to a reasonable level of assurance: project, baseline and project condition documentation, record retention, and quality assurance and quality control (QA/QC) practices, with attestations ruled out as evidence. The technical material explains the gas equivalency ratio used to convert metered instrument air into the methane that would have been vented, based on flow coefficient and choked flow, and the leak discount rate applied where devices are not regularly inspected. It closes with device inventory requirements, field vent rate sampling methods and meter types, rules for developing emission factors, the use of manufacturer specified vent rates and baseline selection for greenfield sites.
What Will Be Covered:
Inclusion and exclusion of sources and sinks and the reasoning behind each decision
Emission reduction equations for each project type, including aggregated projects
Key parameters: operating hours, vent rates, pump strokes, gas composition, density and global warming potential
Electricity and fuel extraction emissions and destruction efficiency for vent gas capture
Project documentation, record keeping and quality assurance and quality control requirements
The gas equivalency ratio between instrument air and methane, flow coefficient and choked flow
Leak discount rates tied to years since last inspection
Device inventory data needed to track conversions, decommissioning and pressures
Field vent rate sampling, meter types, emission factor development and manufacturer specified vent rates
Baseline development for greenfield electric pump and controller installations
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The Global Engineering Excellence Institute (GEEI) is a leading provider of Continuing Professional Development (CPD) courses designed to meet the evolving needs of engineers worldwide. Established in 2010, GEEI has a proven track record of delivering high-quality, industry-relevant training that empowers engineering professionals to stay at the forefront of technological advancements and best practices. Our comprehensive course offerings cover a wide range of disciplines, including civil, mechanical, electrical, and software engineering, ensuring that our learners receive the most up-to-date and practical knowledge. With a focus on practical application, GEEI's courses are developed by industry experts and are recognized by leading engineering bodies globally. We are committed to fostering a culture of continuous learning and professional growth, helping engineers achieve their career goals and contribute to the advancement of the engineering profession.
Professional development requirements vary by profession, country, and regulatory body. Before enrolling, review the course details and confirm that the content, learning format, and any listed credits meet your specific requirements. You are responsible for confirming eligibility with your regulator or professional association and keeping the records required for reporting.