The Mid-Level Thermodynamics Engineer – Pump-Turbine Units is responsible for conducting advanced thermodynamic and fluid dynamic analysis of pump-turbine systems. This role includes performance evaluation, efficiency optimization, energy recovery modeling, and system integration in water and energy utility projects. The engineer will work independently on mid-sized projects and collaborate with cross-functional teams to enhance system efficiency and reliability.
Perform detailed thermodynamic cycle analyses of pump-turbine units under varying load conditions.
Evaluate temperature, pressure, enthalpy, and flow rate profiles to optimize energy recovery and conversion efficiency.
Support the design, sizing, and selection of pump-turbine components based on thermal performance criteria.
Conduct comparative analysis for system upgrades, retrofits, and new installations.
Develop and validate thermal system models using tools such as MATLAB, EES, ANSYS Fluent, or Aspen HYSYS.
Analyze transient and steady-state behavior of hydraulic and thermal systems.
Support commissioning and field testing of pump-turbine systems.
Analyze field data to assess thermal performance, heat losses, and component behavior.
Generate detailed reports, thermal performance summaries, and data visualizations for internal stakeholders and clients.
Contribute to technical proposals, feasibility studies, and cost-benefit analyses.
Thermodynamic Cycle Analysis of Pump-Turbine Systems
Energy Recovery and System Efficiency Optimization
Performance Modeling and Simulation (MATLAB, EES, CFD)
Thermal Integration and Component Selection
Data-Driven Diagnostics and Commissioning Support
Cross-Functional Collaboration on Mechanical and Electrical Interfaces
Support for Upgrades, Retrofitting, and Modernization Projects
Bachelor’s degree in Mechanical Engineering or Thermal Sciences (Master’s preferred)
3–6 years of experience in thermodynamic analysis of rotating equipment or energy systems
Strong foundation in pump-turbine operations, energy conversion principles, and fluid-thermal interaction
Proficiency in simulation and modeling tools (e.g., EES, MATLAB, ANSYS Fluent, or similar)
Familiarity with standards and codes related to turbomachinery and energy efficiency (ASME PTC, ISO)
Strong analytical and problem-solving abilities
Excellent technical communication and report writing skills
Ability to interpret technical drawings, P&IDs, and data logs
Practical understanding of field operations and system commissioning
Self-motivated with a proactive, detail-oriented mindset