

Motivated postgraduate in Thermal engineering with a strong foundation in Thermodynamics, supported by Heat transfer and Fluid mechanics. Processing hands-on experience in numerical heat transfer analysis using ANSYS fluent, with a focus on nanofluid based cooling system. Keen to pursue research in thermal energy systems and advanced heat transfer applications to develop practical, efficient and innovative engineering solutions.
Conducted a series of numerical heat transfer studies using ANSYS Fluent, progressing from fundamental to advanced thermal systems.
Analysed heat transfer characteristics of Cu/H2O nanofluids in a cylindrical domain as an initial study.
Extended the work to investigate Ag-doped-CuO nanofluids in radiator applications, focusing on enhanced thermal performance.
Completed a comprehensive study on kerosene-based ferrous oxide nanofluids for semi-cryogenic rocket engine nozzle cooling using a regenerative cooling approach, where the working fluid absorbs heat from the nozzle walls and further utilized for thermal management.
Developed pratical understanding of CFD workflows through guided learning and applied customised simulation setups for specific thermal problems.
Technical skill
Core subjects: Thermodynamics, Heat Transfer, Fluid Mechanics
CFD Tools: ANSYS Fluent (Learning)
Design Tools: PTC Creo (Basic)
Others: MS Office, MS Excel
Research/analytical Skills
Analytical Skills: Numerical analysis, problem solving in thermal systems
Research skills: Literature review, data interpretation
Communication
Scientific Communication: Technical report writing and presentation
Paper Name: Numerical Heat Transfer Analysis of Ag-doped-CuO Nanofluids in Radiator with UDF codes in ANSYS Fluent (Published), IJRASET 2023
Paper ID: IJRASET48762