Course list

Computational fluid dynamics (CFD) aims to analyze and solve fluid mechanics problems within a variety of practical contexts. In particular, CFD approximately solves the mathematical models in fluid mechanics using numerical solution strategies with computer modeling software. Through the use of modeling software, you will leverage the computational power of the computer to complete calculations that would otherwise be impossible to do by hand. You will also generate clear visual representations of your solution that make interpretation by humans much easier and enable us to develop physical intuition. To ensure that your solutions accurately represent reality, however, you need to first understand how the "black box" of your modeling software functions and have methods to verify and validate your results.
  • Jun 3, 2026
  • Aug 26, 2026
  • Nov 18, 2026
  • Feb 10, 2027
  • May 5, 2027

The framework used in this course for solving fluid dynamics problems can be applied to a wide array of situations and contexts. You will work on a 2D incompressible laminar flow problem in Ansys. Working with 2D flow simulations will help prepare you to create reliable fluid flow simulations for more complex 3D applications such as a car body, fan, and airplane.

You are required to have completed the following course or have equivalent experience before taking this course:

  • Foundations of CFD
  • Jun 17, 2026
  • Sep 9, 2026
  • Dec 2, 2026
  • Feb 24, 2027
  • May 19, 2027

While 2D simulations are a good place to begin, many of the real-world applications of simulation require simulating 3D conditions. In this course, you will work on a 3D turbulent flow problem in Ansys. You will apply the ideas covered in the previous course on 2D laminar flow, now extending to 3D turbulent flow, which is relevant for many industrial applications of simulation.

You are required to have completed the following courses or have equivalent experience before taking this course:

  • Foundations of CFD
  • 2D Laminar Flows
  • Jul 1, 2026
  • Sep 23, 2026
  • Dec 16, 2026
  • Mar 10, 2027
  • Jun 2, 2027

Rotating machinery is very important to consider in practice because it exists all around us in many forms, such as wind turbines, compressors, and fans. In this course, you will work on rotating machinery flow problems. This problem extends the same underlying physics and governing equations applied to 3D flows, with the added complexity of a moving physical body.

You are required to have completed the following courses or have equivalent experience before taking this course:

  • Foundations of CFD
  • 2D Laminar Flows
  • 3D Turbulent Flows
  • Jul 15, 2026
  • Oct 7, 2026
  • Dec 30, 2026
  • Mar 24, 2027
  • Jun 16, 2027

In high-speed flow, density changes are important to account for in order to accurately simulate the flow. In this course, you will work on compressible flow problems in Ansys. A classic example of such a flow problem is airflow over an airplane body. You will solve the governing equations for this type of problem and simulate the high-speed flow over an airplane body.

You are required to have completed the following courses or have equivalent experience before taking this course:

  • Foundations of CFD
  • 2D Laminar Flows
  • 3D Turbulent Flows
  • Rotating Machinery Flows
  • Jul 29, 2026
  • Oct 21, 2026
  • Jan 13, 2027
  • Apr 7, 2027
  • Jun 30, 2027

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How It Works

Managing engineers is tough, but leading them is even tougher. As an electrical engineer with management aspirations, I wanted to become a true leader who could build and maintain strong relationships with my department. A year after completing this engineering program, I was promoted to Engineering Manager and was able to hit the ground running.
‐ Bobby W.
Bobby W.

Frequently Asked Questions

Fluid flow simulation sits behind critical decisions in aerospace, manufacturing, energy, and product design, but CFD results are only useful when you can trust how the solver got them. Cornell’s Fluid Dynamics Simulations Using Ansys Certificate helps you move beyond button-pushing by giving you a repeatable, expert-style workflow for building simulations, interpreting results, and defending your conclusions.

In this certificate program, authored by faculty from the Sibley School of Mechanical and Aerospace Engineering at Cornell’s Duffield College of Engineering, you will practice creating CFD models in Ansys while also building the conceptual understanding needed to make good modeling choices, including governing equations, boundary conditions, numerical error sources, and the difference between verification and validation. The learning experience is hands-on and problem-based, so you spend your time doing the work you’ll do on the job: setting up simulations, running them, and using visualization to extract physical insight.

If you want hands-on Ansys CFD practice, a clear method for verification and validation, and the confidence to explain and defend your simulation choices, you should choose Cornell’s Fluid Dynamics Simulations Using Ansys Certificate.

Many online CFD courses emphasize passive video watching or narrow software tutorials that show which buttons to click without teaching you how to judge whether the results are credible. Cornell’s Fluid Dynamics Simulations Using Ansys Certificate is built around a professional workflow that you can reuse: define the modeling goal, translate it into a mathematical model and boundary conditions, choose a numerical strategy, run the simulation in Ansys Fluent, and then verify and validate what you produced.

You also learn through a premium, human-centered experience rather than learning alone. In a small cohort, you engage in facilitated discussions focused on real modeling decisions, common failure modes, and how to troubleshoot simulations. Live sessions offer opportunities to enhance your learning. Your work is assessed through practical submissions and project milestones, so you build capability by doing, not just by reading.

Finally, the simulation cases throughout Cornell’s Fluid Dynamics Simulations Using Ansys Certificate are designed to be industry relevant, including examples developed with input from engineers at Ansys Inc., and they extend from foundational incompressible flows through turbulence modeling, rotating reference frames, and compressible flow scenarios.

Cornell’s Fluid Dynamics Simulations Using Ansys Certificate is a strong fit when your work touches fluid flow and you want to build practical CFD capability in Ansys without turning the experience into a purely theoretical mathematics course. Engineers and analysts who use CAD, support simulation workflows, or need to interpret CFD results in design reviews tend to benefit most from the program.

You will be most successful in the Fluid Dynamics Simulations Using Ansys Certificate if you are comfortable with high school-level calculus, physics, and algebra, since the program regularly connects simulation setup choices back to governing equations, physical assumptions, and hand-calculation checks. The program also fits professionals who want a guided path from simpler laminar cases into more complex 3D, turbulent, rotating machinery, and compressible flow applications.

Your work in Cornell’s Fluid Dynamics Simulations Using Ansys Certificate is built around practical simulation submissions where you document your modeling choices, produce plots and key quantities, and justify credibility using verification and validation practices. You will complete projects such as:

  • Explaining what sits “inside the CFD black box,” then outlining the governing equations and a finite-volume solution strategy you’ll rely on in Ansys
  • Building and submitting 2D incompressible laminar simulations, including mesh setup, post-processing visuals, and hand-calculation checks to verify expected trends
  • Producing 3D simulations that introduce turbulence modeling, then extracting quantities like drag and using qualitative and quantitative checks to defend your result
  • Modeling rotating machinery flows using rotating and multiple reference frame concepts, then reporting performance-related outputs like torque, mass flow, and pressure rise
  • Simulating a high-speed, compressible aircraft flow case and reporting outputs such as lift, drag, and pressure or Mach-number distributions, along with a verification and validation discussion

Across your project work in Cornell’s Fluid Dynamics Simulations Using Ansys Certificate, you build a repeatable habit: Predict what you should see, run the model, and then use physics and numerical reasoning to explain whether the output is trustworthy.

In Cornell’s Fluid Dynamics Simulations Using Ansys Certificate, you will build practical credibility in CFD by learning how to set up, run, interpret, and defend Ansys-based fluid dynamics simulations using verification and validation practices.

After completing the Fluid Dynamics Simulations Using Ansys Certificate, you will be prepared to:

  • Create simulations using Ansys software for a range of practical flow problems
  • Explain the mathematical model underlying each simulation, including governing equations, boundary conditions, physical principles, and assumptions
  • Predict expected results using hand calculations
  • Defend simulation results by undertaking a “verification and validation” procedure

Students commonly describe the experience as confidence-building and job-relevant, especially because it demystifies what the solver is doing while also developing real workflow skills in Ansys Fluent. Learners often point to stronger understanding of governing equations and boundary conditions, clear step-by-step simulation workflows, and an ability to apply the same problem-solving method to new situations, including rotating machinery and compressible flow contexts. Many also highlight the supportive teaching staff, well-paced short lessons, and takeaways they can bring directly into engineering work and research.

What truly sets eCornell apart is how our programs unlock genuine career transformation. Learners earn promotions to senior positions, enjoy meaningful salary growth, build valuable professional networks, and navigate successful career transitions.

Cornell’s Fluid Dynamics Simulations Using Ansys Certificate, which consists of 5 short courses, is designed to be completed in 3 months. Each course runs for 2 weeks, with a typical weekly time commitment of 5 to 7 hours that includes running simulations, creating plots, and writing up your verification and validation reasoning.

The format is designed for working professionals, with most coursework completed on your schedule and structured deadlines to keep you moving. Facilitated discussions and live sessions offer opportunities for interaction and support without making the experience feel like a rigid, full-time commitment.

Students in Cornell's Fluid Dynamics Simulations Using Ansys Certificate often describe it as a practical, confidence-building pathway into computational fluid dynamics (CFD) that makes the “inside the solver” concepts feel understandable while also developing real workflow skills in Ansys Fluent. Many say they gained a stronger foundation in governing equations and boundary conditions, then immediately applied that knowledge through guided simulations that mirror common engineering use cases.

Learners frequently highlight:

  • Strong, step-by-step Fluent workflows for setting up and running CFD simulations
  • Clear explanations of core CFD fundamentals like the Navier-Stokes framework, discretization concepts, and boundary condition selection
  • Hands-on modeling practice that helps demystify what a CFD solver is doing
  • A useful blend of fluid dynamics theory and software application, including rotating machinery and turbomachinery-focused contexts
  • Well-paced, modular lessons with short videos that make complex topics easier to absorb
  • Job-relevant takeaways they can bring directly into engineering work and research
  • Organized course structure with supportive teaching staff and helpful feedback
  • A flexible online format that fits alongside full-time schedules while still maintaining momentum through the material

Trustworthy CFD is a core focus of Cornell’s Fluid Dynamics Simulations Using Ansys Certificate, and verification and validation are treated as habits you practice, not just definitions you memorize. You will learn to distinguish verification (did you solve the model right) from validation (did you solve the right model) and to use practical checks such as boundary condition consistency, mesh and discretization sensitivity, residual and monitor behavior, and hand-calculation expectations.

Because you apply these checks directly to your simulation submissions, you finish the Fluid Dynamics Simulations Using Ansys Certificate program with a repeatable approach to defending results in engineering conversations, design reviews, or research discussions.

The learning design in Cornell’s Fluid Dynamics Simulations Using Ansys Certificate is meant to transfer. Instead of learning a single “canned” model, you repeatedly practice the same expert workflow across different flow regimes so you can reuse it on new geometries and new questions.

You will gain a structured way to:

  • Translate a real engineering question into assumptions, governing equations, and boundary conditions
  • Choose a mesh and numerical approach with known error trade-offs
  • Use post-processing to extract physical insight, not just colorful plots
  • Explain limitations and credibility using verification and validation practices

That combination helps you bring a clearer, more defensible CFD story back to work, even when the next problem is not identical to the ones you practiced in the certificate.

Your simulation practice spans several of the most common categories engineers encounter, so you build both breadth and a dependable workflow. In Cornell’s Fluid Dynamics Simulations Using Ansys Certificate, you will model:

  • Incompressible laminar internal flows in simplified geometries so you can verify results against analytical expectations
  • 3D flows where turbulence modeling becomes important, including extracting forces and analyzing separated regions
  • Rotating machinery flows using rotating reference frame concepts and multiple reference frame modeling
  • Compressible, high-speed aerodynamics where density changes matter and the energy equation is part of the model

Across these cases, the emphasis stays consistent: build the model carefully, run it in Ansys Fluent, interpret results with visualization and key coefficients, and justify accuracy with verification and validation checks.