CENOVUS ENRGY
1. Multiphase Flow metering Project
What: I worked on improving gas flow measurement accuracy at Foster Creek, where the existing vapor flowmeter and test separator setup led to unreliable readings and excessive capital costs.
How: I conducted control valve performance analysis using Excel, Aspen HYSYS, and PARCview to evaluate mass flow conditions and support flowmeter selection. I also assessed flow regimes to ensure the compatibility of different metering technologies with the system.
Why: My work contributed to identifying a more accurate, cost-effective measurement solution, helping significantly reduce projected CAPEX and improve operational efficiency.
2. High-Pressure Tank Optimization Project
What: I worked on optimizing a high-pressure tank system to recover methane that was previously vented to the atmosphere, following new Saskatchewan government regulations limiting methane emissions.
How: I performed detailed backpressure calculations, evaluating Reynolds number, major and minor friction losses, and control valve sizing (CV calculations) for methane and propane. Using engineering assumptions and field photos due to limited system documentation, I also proposed a piping modification to redirect methane to an existing burner in the fuel train for safe combustion.
Why: My work validated that methane recovery was feasible with minimal pressure loss, enabling Cenovus to meet updated regulatory requirements, reduce emissions, and improve overall system efficiency without major infrastructure changes.
3. Asphaltene Stability Testing Development
What: I developed a customized laboratory method to evaluate asphaltene stability in severely cracked, high-coke HDR crude oil, where commercial petroleum labs had failed to produce accurate results.
How: I adapted ASTM D8253 procedures by tailoring dilution and flocculation testing with a heptane-toluene solution, systematically measuring Dilution Ratio (D) and Flocculation Ratio (FR) to calculate p-values. The testing method was validated against extremely degraded crude samples that challenged conventional analysis.
Why: My work enabled reliable stability assessment of upgraded crude to meet pipeline transport requirements, supporting operational decision-making and minimizing risks of asphaltene coagulation during shipment.
CAMECO CORPORATION
At Cameco Corporation, I worked on multiple HVAC engineering projects to improve ventilation, cooling, and system reliability across production and office areas. I conducted heating and cooling load calculations, sized air conditioning units, designed ventilation layouts for industrial storage spaces, and transferred hand-drawn facility layouts into digital form using CAD and SAP. I also updated the Asset Management database to maintain accurate records of HVAC equipment.
One of my key projects involved independently resolving an overheating issue in the plant’s cell room, a critical space for HF gas separation where I diagnosed airflow short-circuits, sized a new dedicated air conditioner, and proposed a glycol cooling solution. My contributions helped reduce plant downtime by 20% during the summer months, supported LEAN process improvements, and enhanced operational safety and system efficiency.
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BOMBARDIER AEROSPACE
At Bombardier, I played a key role in service operations by managing incident workflows to meet and exceed Service Level Agreements (SLAs) and Operational Level Agreements (OLAs). I coordinated directly with process managers to allocate incidents across divisions, ensured accountability through routine follow-ups, and assessed incident severity to prioritize urgent cases. By proactively escalating critical issues and streamlining communication between technical teams and management, I helped reduce average resolution times by 15%. My work strengthened operational responsiveness, enhanced cross-functional collaboration, and contributed to a more efficient incident management process across the organization.
