2D Wind Tunnel CFD Analysis in Ansys Fluent

hero-image

Andrew Connor

OVERVIEW

Performed a 2D CFD simulation of a wind tunnel test section in Ansys Fluent using provided geometric parameters and a prescribed relationship between fan frequency (Hz) and test section velocity. Applied the velocity function to define inlet boundary conditions, generated the mesh, executed steady-state simulations, and analyzed flow behavior. Post-processing included contour visualization and XY data extraction for velocity and pressure to evaluate flow development and uniformity within the test section.

HighlightS

  • Implemented fan frequency–based velocity function as inlet boundary condition





  • Generated 2D mesh and refined element sizing for improved resolution





  • Applied velocity inlet, pressure outlet, and wall boundary conditions





  • Analyzed velocity, static pressure, and dynamic pressure contours





  • Extracted and plotted XY data for quantitative flow evaluation





  • Evaluated test section flow uniformity and pressure variation





  • Interpreted CFD results in context of fluid mechanics principles

SKILLS

Ansys FluentANSYS Meshing2D CFD SimulationFluid MechanicsMesh RefinementBoundary Condition SetupVelocity and Pressure Contour AnalysisXY Plot Data ExtractionEngineering AnalysisTechnical Reporting

ADDITIONAL CONTENTS

Home
Questions?
hero-image

Andrew Connor

Aerospace Engineering Student at University of Central Florida

I am an Aerospace Engineering student at UCF with experience applying engineering fundamentals to real-world systems through manufacturing and quality engineering internships at Conti Federal Services and Adjuvo Technologies. My work has required detailed interpretation of engineering drawings, configuration control, and technical documentation within complex, regulated environments.


I am particularly interested in Guidance, Navigation, and Control, propulsion, and R&D-focused roles where analytical modeling and system-level thinking are critical. I have experience using MATLAB for dynamic system analysis, SolidWorks for CAD and basic FEA, and applying thermodynamics and fluid mechanics principles to engineering problems. Through leadership experience and managing teams, I have developed the ability to translate engineering requirements into executable technical solutions while maintaining precision and accountability.


(Note: All figures and technical materials shown are my own work)