The Mid-Level Turbine Performance Engineer is responsible for analyzing, monitoring, and optimizing the performance of gas and steam turbines, ensuring optimal efficiency, reliability, and regulatory compliance. This role involves hands-on performance data interpretation, root cause analysis, and active support of maintenance and operations teams during both steady-state operations and transient conditions.
Monitor turbine KPIs such as power output, heat rate, efficiency, fuel consumption, and emissions.
Identify trends, anomalies, and degradation in real-time and historical performance data.
Collaborate with operations to align performance with production goals.
Support troubleshooting efforts for performance-related issues (e.g., power loss, compressor fouling, exhaust temperature spread).
Perform diagnostic evaluations of data to recommend operational adjustments or maintenance.
Interface with OEM and controls engineers for performance-related tuning.
Assist in the planning and execution of ASME PTC performance tests.
Analyze and validate test data against design curves and OEM guarantees.
Create performance reports and dashboards for internal and client stakeholders.
Use tools like Thermoflow, GateCycle, PI System, and OEM platforms for simulation and monitoring.
Maintain and improve predictive models based on site-specific operating conditions.
Support the development of KPIs and analytics dashboards for performance tracking.
Provide insights to maintenance teams during outages and help assess the performance impact of component repairs or replacements.
Assist in planning compressor water washes, filter replacements, and turbine tuning activities based on performance diagnostics.
Turbine Types:
Gas turbines: GE Frame/LM, Siemens SGT, Mitsubishi, Solar Turbines
Steam turbines: condensing, extraction, backpressure units
Combined-cycle (CCPP), cogeneration, and open-cycle systems
Performance Metrics:
Heat Rate (kJ/kWh), thermal efficiency, net output, specific fuel consumption
Vibration patterns, exhaust gas temperature deviation, and NOx/CO emissions
Time-based performance degradation and start-stop impact
Tools & Systems:
PI System / SCADA historians
Thermodynamic modeling (Thermoflow, GateCycle)
OEM systems (GE APM, Siemens Omnivise, Mitsubishi TOMONI)
Standards & Methodologies:
ASME PTC 22 (Gas Turbines), PTC 6 (Steam Turbines)
API 616/617 for turbomachinery
Basic knowledge of ISO 2314 and ISO 3977 (performance and acceptance testing)
Education:
Bachelor’s Degree in Mechanical, Power, or Energy Engineering (Master’s preferred for fast-track growth)
Experience:
3–8 years of relevant experience in turbine operations, performance monitoring, or energy systems analysis
Technical Skills:
Understanding of Brayton and Rankine cycles
Proficiency in Excel, PI System, and modeling tools
Ability to interpret OEM data sheets and thermodynamic curves
Soft Skills:
Analytical thinking and root-cause diagnostic ability
Strong communication with cross-functional teams
Proactive mindset for operational improvements