About
Experienced CFD Engineer with a strong background in computational fluid dynamics, multiphase flow, and thermal-fluid systems analysis across the oil & gas, energy, and chemical sectors. Skilled in advanced CFD tools (ANSYS Fluent, CFX, OpenFOAM), process simulation software (Aspen HYSYS, MATLAB), and data-driven modeling. Demonstrated success in applying CFD to optimize heat exchangers, separation units, combustors, and pipeline flow assurance. Expertise in process optimization, EOR strategies, carbon capture, and decarbonization technologies. Strong foundation in HAZOP, safety analysis, and risk assessment. Passionate about digital transformation in engineering—integrating AI/ML to enhance simulation accuracy and predictive maintenance.
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Experience
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CFD and Process Engineering
Multiple Manufacturing Companies · Full-time
Jul 2001 –
Present
24 yrs 5 mos
Australia
Computational Fluid Dynamics (CFD) Expertise: Advanced CFD modeling of multiphase flow, turbulence, combustion, and heat transfer using ANSYS Fluent, CFX, and OpenFOAM across process, energy, and chemical systems.
Multiphase Flow & Transport Phenomena: Detailed analysis and simulation of gas-liquid, solid-liquid, and complex phase interactions in pipelines, reactors, and separators.
Heat Transfer & Combustion Systems Modeling: CFD-based thermal analysis and optimization of heat exchangers, furnaces, and combustion chambers for energy efficiency and performance.
Process Simulation & Integration: Proficient in Aspen HYSYS, CHEMCAD, PROMAX, and MATLAB for steady-state and dynamic process simulation, integrated with CFD results for enhanced design accuracy.
Enhanced Oil Recovery (EOR) & Reservoir Simulation: CFD-aided modeling of CO₂ injection, chemical flooding, and polymer EOR techniques with reservoir coupling.
Chemical Process Optimization with AI/ML: Leveraging artificial intelligence and machine learning to enhance process simulations, predictive analytics, and system optimization.
Process Safety & Risk Engineering: Conducting CFD-based safety analysis, including dispersion modeling, thermal radiation, and supporting HAZOP, HAZID, and QRA evaluations.
Digital Twin Development & Automation: Creating CFD-enabled digital twins for real-time diagnostics, performance monitoring, and control in automated process environments.
Carbon Capture & Environmental Modeling: Simulation of carbon capture technologies, CO₂ transport/storage, and pollutant dispersion for regulatory compliance and sustainability.
Advanced Reactor & Equipment Design: CFD-driven design and scaling of catalytic reactors, membrane systems, and separation units, including novel material and geometry optimization.
Education
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UNSW
PhD, Chemical Engineering, Completed
1999 – 2003
Activities and Societies:
Experimental Rig Development for Bubble Dynamics and Thin Liquid Film, LDV, PIV data analysis, CFD of Multiphase
At the University of New South Wales (UNSW), I earned my PhD in Chemical Engineering, where my focus was on computational fluid dynamics (CFD) studies of fluid-particle interactions near free surface flows. My research centered on modeling complex, turbulent, three-phase flows generated by impinging and submerged jets near a free surface, especially adjacent to a rotating drum. This work combined CFD simulation with experimental data collected at the University of Newcastle, allowing a robust, multi-method approach to understanding transient behaviors in these dynamic systems.
My research entailed modeling the free surface dynamics, with particular emphasis on the entrainment and interactions of buoyant particles and air bubbles, along with the mechanics of bubble breakage. Through CFD, I simulated intricate details, including turbulent parameter variations and the forces exchanged between fluid and particles. I developed and optimized custom code to track the transient free surface, resolve intricate interactions among phases, and maintain computational accuracy amidst high turbulence. This experience laid a strong foundation in CFD, code development, and digital simulation techniques, equipping me with tools I continue to leverage in solving industrial and academic engineering challenges.
Outside my research, I also engaged in the UNSW community through activities like tennis and soccer, which enriched my time at the university.
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Chemical Engineering
PhD, Computational Fluid Dynamics (CFD), Excellence
1999 – 2003
Activities and Societies:
CFD FEA
Free Surface Flow Modeling: During PhD I used CFD to analyse the complex, turbulent three phase flow associated with impinging and submerged jets in close proximity of a free surface adjacent to a rotating drum. The CFD analysis was coordinated with an experimental investigation carried out at the University of Newcastle. I did Modelling of the transient free surface with entrainment of buoyant particles, air in the form of bubbles and breaking of those bubbles, turbulent parameters variation between the fluid and particles.
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Environmental Engineering Science
MSc, CFD, Completed 2 Sem
1998 – 1999
Activities and Societies:
CFD, Digitization, Code Development
During my time at the University of Melbourne, I pursued an MSc in Engineering Science, where I collaborated closely with esteemed professors Malcolm R. Davidson and Y. Leong Yeow on computational fluid dynamics (CFD) projects. This phase of my academic journey was characterized by rigorous training in digital modeling and advanced simulation techniques, particularly focused on the behavior of complex fluids such as Bingham materials, which exhibit unique yield stress properties relevant in various industrial processes.
I engaged in cutting-edge CFD research, utilizing finite volume methods to investigate material deformation and fluid flow under gravitational forces. This research, exemplified by our work on simulating the collapse of Bingham fluid cylinders, provided insights into yield stress measurement techniques using the slump test, a crucial assessment for materials in fields like civil and chemical engineering(J-NH)(610-Article Text-2084-1…).
My work also involved extensive code development, where I applied volume-tracking methodologies for simulating fluid behavior. Through this experience, I gained proficiency in numerical stability and accuracy techniques, including flux limiters, which allowed us to minimize interface smearing and enhance simulation precision. This foundation set the stage for my ongoing work in CFD and digital engineering, where I continuously innovate in simulation techniques to advance industry and academia.
Other experience
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CFD/CAD Challenging Project
Ship Hull Dynamics for Storm Resilience (2016): FSI-integrated CFD design for ship hulls that endure harsh ocean conditions.
CFD Modeling of Fuel Emulsions (2010): Simulated diesel-water emulsions, optimizing blending for energy efficiency in fuel.
Dynamics in a High-Pressure Homogenizer (2019): Modeled fluid dynamics in fuel mixing, a technically demanding multiphase simulation.
Catalytic Nanocoating for Corrosion Prevention (2013): CFD and CAD techniques for developing nano-coatings on alloys.
Enhanced Cooling for Open Pool Reactors (2017): Simulated advanced cooling methods for nuclear applications.
Optimized Pipeline Parameters for Petroleum (2012): Historical data-driven CFD optimization of petroleum pipeline flow.
Nano-Emulsion Production to Reduce Energy Costs (2018): Energy-efficient nano-emulsion production using CFD.
Multiphase CFD for Bone Drilling (2012): Complex CFD for temperature and particle dynamics in bone drilling.
Gas-Liquid Oscillatory Baffled Columns (2012): Designed and modeled oscillatory baffled columns, used in chemical processing.
Nucleation and Condensation Modeling (2014): High-fidelity CFD to predict phase transitions under extreme conditions.
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CFD Major Projects
Production of Light Metal at CSIRO (2004-2006): Key project for CSIRO’s magnesium production using carbothermic reduction with CFD.
Enhanced Oil Recovery (EOR) Optimization (2020): Modeled EOR methods, including gas injection and water flooding, for higher oil recovery efficiency.
Human Respiratory Flow and Particle Dynamics (2010): Applied CFD to study inhalation particle trajectories, crucial for respiratory device design.
CFD on CO₂ Removal with Converging-Diverging Nozzle (2009): Controlled phase transitions for CO₂ capture in oil and gas applications.
Fluid Flow in Submerged Vertical Round Jets (2017): Simulation of flow patterns in jet systems, aiding design for efficient fluid transfer.
Hydrate Formation Modeling in Pipelines (2021): Modeled hydrate risks in oil pipelines, providing flow assurance strategies.
Erosion Modeling in Pipes (2017): CFD modeling to assess solid particle erosion impacts on pipeline bends and fittings.
Porous Media Flow for Engine Design (2011): Modeled flow through porous media in engine applications, merging CAD and CFD for optimized designs.
Heat Transfer in Enhanced Tubes (2016): CFD simulated nanofluid-based heat enhancement in tubes with twisted tapes.
CO₂ Absorption in Fiber Membranes (2017): CFD for evaluating novel membrane designs for gas-liquid contact systems.
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CFD Minor Project
Production of Light Metal at CSIRO (2004-2006): Key project for CSIRO’s magnesium production using carbothermic reduction with CFD.
Enhanced Oil Recovery (EOR) Optimization (2020): Modeled EOR methods, including gas injection and water flooding, for higher oil recovery efficiency.
Human Respiratory Flow and Particle Dynamics (2010): Applied CFD to study inhalation particle trajectories, crucial for respiratory device design.
CFD on CO₂ Removal with Converging-Diverging Nozzle (2009): Controlled phase transitions for CO₂ capture in oil and gas applications.
Fluid Flow in Submerged Vertical Round Jets (2017): Simulation of flow patterns in jet systems, aiding design for efficient fluid transfer.
Hydrate Formation Modeling in Pipelines (2021): Modeled hydrate risks in oil pipelines, providing flow assurance strategies.
Erosion Modeling in Pipes (2017): CFD modeling to assess solid particle erosion impacts on pipeline bends and fittings.
Porous Media Flow for Engine Design (2011): Modeled flow through porous media in engine applications, merging CAD and CFD for optimized designs.
Heat Transfer in Enhanced Tubes (2016): CFD simulated nanofluid-based heat enhancement in tubes with twisted tapes.
CO₂ Absorption in Fiber Membranes (2017): CFD for evaluating novel membrane designs for gas-liquid contact systems.
Licenses & Certifications