Mechanical Engineer (M.S., Thermal-Fluid Science) specializing in heat transfer, fluid dynamics, and system-level thermal engineering. Experienced in cooling system optimization, CFD-driven analysis, and thermal validation across industrial flow systems, automotive cooling loops, and energy applications.Proven ability to translate analytical models and simulation results into practical, test-correlated design improvements that enhance performance, reliability, and manufacturability. Passionate about developing efficient thermal solutions through rigorous engineering fundamentals, cross-functional collaboration, and continuous technical growth.
OpenFOAM - CFD Fundamentals & Simulations
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Research Experience
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TATA Motors Private Limited
Cross-Functional Collaboration Collaborated with 5+ departmental teams (BIW, paint, TCF, trim) to resolve production inefficiencies through effective oral and written communication. Vehicle Testing & Validation Assisted with testing around 200 vehicles daily to validate system integrity and identify recurring faults. Technical Reporting Delivered detailed DIFTER technical reports and presentations, communicating findings and solutions to cross-functional engineering and quality teams.
SHREEJI FLOWTECH Experience
Design & Development Designed and modified 10+ customer-oriented flow system components Focused on manufacturability, mechanical fit, and thermal performance Developed 3D CAD models and engineering drawings in SolidWorks Validation & Analysis Validated thermal-fluid component safety under fault conditions Applied CFD and heat transfer principles for reliability Supported prototyping, fabrication, and field integration
GT-POWER Training and Engine Performance Analysis
Comprehensive instruction on using GT-SUITE software for detailed engine performance analysis. Hands-on model building and 1D engine simulation for complex engine models. Understanding theoretical fundamentals and predictive thermodynamic models. Analysis of combustion models and characteristics. Techniques for engine performance analysis. Strategies for system efficiency optimization. Key Learning Areas Introduction to GT-SUITE and GT-POWER interface Building 1D engine models (intake, exhaust, cylinders) Setting up combustion models and heat transfer Performing steady-state and transient simulations Post-processing results and performance metrics Skills Gained Proficiency in GT-POWER software Ability to create and validate engine models Understanding of engine thermodynamics and fluid dynamics Optimization techniques for engine design Applications Demonstrated Full engine performance mapping Turbocharger matching and optimization Exhaust gas recirculation (EGR) system analysis
