• Accelerated product development by conducting comprehensive CFD simulations to estimate environmental loads on floating solar plants, enabling accurate system boundary definitions and informed design decisions.• Enhanced system reliability and performance through FE simulations focused on interconnecting parts, leading to optimized product functionality.• Ensured accuracy and reliability of the numerical model by analyzing and validating physical test results.• Increased team efficiency by managing computational assets, setting up cloud instances, and implementing floating licenses for company-wide accessibility.• Upgraded product integration by designing a fixation solution for electrical components (inverters, AC boxes, and DC boxes) on the floating structure.• Facilitated market entry and customer trust by securing an Approval In Principle (AIP) certificate, demonstrating compliance with industry standards and best practices.• Strengthened competitive advantage by contributing to a patent for an innovative near-shore floating structure design, securing intellectual property rights.

• Simulated heat transfer from exhaust systems to the vehicle components, guiding world-leading automotive companies to improve vehicle safety and reduce risks associated with high heat.• Analyzed vehicle battery cooling systems using CFD simulations, ensuring optimal battery performance and safety by confirming temperatures remained within recommended values across various scenarios.• Enhanced a water feature design through multiphase simulations, providing the client recommendations that reduced water flushing and improved end-user comfort.• Optimized clients’ rotating machines by reducing losses through simulations, enhancing performance, and ensuring product competitiveness.• Accelerated complex simulations by leveraging HPC resources and utilizing Linux and Bash scripting to efficiently simulate large-scale and intricate problems.• Expanded in-house CFD code capabilities by implementing a C++ vehicle dynamics module and ensuring model validation, enabling clients to solve specific problems.

Modeled the steam condensation in the presence of noncondensable gas by 16User-Defined Functions (UDF) written and integrated into Ansys Fluent.• Achieved 16% more accuracy than the previously published study by eliminating part ofthe model assumptions in a steady-state simulation.• Validated the model in a large-scale transient scenario of 6000 seconds and compared theresults with experimental data that indicated satisfactory predictions.

• Designed the vehicle’s body and conducted CFD simulations to calculate the drag andlift forces.• Improved the cooling performance and achieved a 137% improvement in airflow throughthe sidepod using ANSYS Fluent.• Presented the design and analyses in the Formula Student competition in the UK.