
Model a 2d square tank in ANSYS Fluent, define inlets at 2 m/s with 293.15 K and 313.15 K, enable energy equation, apply k-omega SST, analyze temperature and velocity contours.
Simulate supersonic flow over the SR-71 Blackbird using a pressure-based coupled solver for compressible flow at Mach 1.3, with ideal gas behavior and Spalart–Allmaras turbulence modeling.
Simulate supersonic flow over the SR-71 with a pressure-based coupled solver, ideal gas density, and Spalart-Allmaras turbulence, enabling energy equations and analyzing pressure, velocity, density, and shock behavior.
Simulate surface injection of anthracite particles with the discrete phase model in a 5 cm cubic domain, coupling with air via transient k-omega turbulence and injection settings.
Model a 3d Ansys Fluent srf axial pump cfd simulation of a small airborne turbine at 15 m/s and 240 rpm, using k-omega turbulence and post-processing contours and vectors.
Model a 3D labyrinth spillway using a multiphase volume-of-fluid approach in ANSYS Fluent. Examine transient, gravity-driven water–air flow behind a dam with RNG k-epsilon turbulence modeling and post-processing animations.
Create the plate heat exchanger geometry in DesignModeler, extruding plates and tubes, applying constraints and planes, then generate a conformal mesh with inflation for Fluent simulation.
Compare Navier-Stokes based theory with ANSYS Fluent in a hands-on CFD workflow, covering geometry creation, meshing, Fluent setup, boundary conditions, and the simple algorithm for convergence.
Explore axisymmetric heat transfer analysis of Poiseuille flow in a pipe with ANSYS Fluent, covering geometry setup, boundary layer meshing, energy equation, and wall Nusselt number calculation.
Design, meshing, and aerodynamic analysis of a NACA 0015 airfoil using ANSYS Fluent, including geometry creation, structured meshing, boundary conditions, turbulence modeling, and lift-drag evaluation.
Explore three-dimensional pipe flow with heat transfer in ANSYS Fluent, building geometry, generating structured mesh, applying boundary conditions, solving with standard k-epsilon, and computing average and local Nusselt numbers.
Perform a 3D compressible flow analysis of a NACA 0012 airfoil in ANSYS Fluent, including geometry creation, meshing with boundary layers, boundary conditions, and drag and pressure coefficient extraction.
Design a bent pipe geometry in ANSYS Workbench by sketching three cross sections, lofting them, and creating a boundary-layer mesh with inflation for accurate CFD.
simulate compressible flow in a bent pipe; analyze a shock wave from a 0.9 Mach inlet; refine mesh with gradient adaption using density-based transient solver, energy equation, and k-omega SST.
Master ANSYS Fluent CFD by simulating spillway flow with a two-phase vof model in open channel flow, using a transient pressure-based solver and standard k-epsilon turbulence.
Simulate compressible flow around an airfoil to study pressure distribution, lift and drag at a five-degree angle of attack and Mach 0.6, using a density-based solver and the Spalart-Allmaras model.
Explore jet ski effects on the water–air interface using the volume of fluid model with two-phase flow, standard k-epsilon turbulence, open-channel boundary conditions, and gravity-driven steady simulations.
Learn airflow modeling over a flying bird in ANSYS Fluent, including geometry import, meshing, realizable k-epsilon turbulence, boundary setup, and drag and lift analysis.
Learn to perform truck aerodynamics CFD with SpaceClaim and ANSYS Fluent by building geometry, creating a flow domain, generating a quality polyhedral mesh, and analyzing drag, lift, and pressure distribution.
Simulate supersonic flow over the SR-71 Blackbird with a pressure-based, coupled pressure-velocity solver in ANSYS Fluent to model compressible flow with ideal gas and Sutherland's law, capturing shock waves.
Model the SR-71 geometry in design modeler, create a fluid domain, generate a CFD mesh in ANSYS Fluent, and apply spalart-allmaras with inlet, outlet, and symmetry boundaries.
Perform a CFD simulation in ANSYS Fluent for flow around a dimpled cylinder, calculating drag and lift and validating results against the referenced paper.
Validate the paper's heat transfer study in a twisted-tape pipe by comparing ANSYS Fluent CFD results for Reynolds number 800 and a P/D ratio of 5, focusing on Nusselt numbers.
Design a 2d axial pump geometry in Ansys SpaceClaim, generate a refined mesh with near-wall inflation in Ansys Meshing, name boundaries, and prepare the model for Fluent simulation.
Simulate an axial pump with a single reference frame (SRF) in a mixing tank using ANSYS Fluent, featuring k-epsilon turbulence, water liquid, 500 rpm rotation, and zero outer-wall velocity.
Validate CFD simulations of flow and heat transfer in a ten-stage zigzag channel with flow pulsation using ANSYS Fluent, focusing on the upper-wall Nusselt number under laminar, low Reynolds flows.
Validate paper data on laminar flow and heat transfer in a u-bend using ANSYS Fluent, comparing inner-arc temperature distributions at Re = 1000 with a 1156 W/m² heat flux.
Simulate external airflow over a mountain using the k-epsilon standard model in ANSYS Fluent, analyzing velocity, temperature, heat transfer, and pressure distributions.
Simulate external air flow around a car with ANSYS Fluent in an unstructured rectangular domain using realizable k-epsilon turbulence model, then analyze drag, lift, and pressure and velocity contours.
Simulate the external laminar flow of air over a two-dimensional flat plate, analyze Reynolds numbers from 10,000 to 50,000, and evaluate temperature distribution and surface heat transfer.
Model air flow around a flying bird in ANSYS Fluent by creating the computational domain, applying boundary-layer prism meshing, and using a k-omega SST turbulence model for incompressible isothermal flow.
Simulate fluid flow around a wavy tape inside a circular tube using ANSYS Fluent to study heat transfer with laminar steady flow and an energy equation on an unstructured mesh.
Explore golf ball aerodynamics using ANSYS Fluent to simulate airflow, compare dimpled versus non dimpled surfaces, and calculate drag by analyzing boundary layer transition and wake effects.
Simulate the external air flow around a moving train using the standard k-epsilon turbulence model to assess drag and air turbulence. Include geometry, meshing, and contour visualization.
Explore turbine blade cooling via a 3D ANSYS Fluent CFD study, modeling hollow blades with internal cooling cavities and boundary conditions to analyze temperature distribution and cooling effectiveness.
simulate airflow around a drone using ANSYS Fluent to study aerodynamics and stability with the standard k-epsilon model and wall functions on an unstructured mesh.
Simulate airflow around a NACA 0008 airfoil with ANSYS Fluent to analyze pressure distribution and lift and drag at a 16-degree angle of attack, using a 2D k-epsilon turbulence model.
Learn laminar flow heat transfer in a u-bend and compute the Nusselt number ratio of P5 to P1 (7.625) using surface integrals, bulk temperature, and area-weighted averages in ANSYS Fluent.
Explore how to model coronavirus spread from a cough in open air using ANSYS Fluent, from importing GrabCAD geometry to generating a high-quality CFD mesh and preparing boundary conditions.
simulate Covid-19 airborne risk in a classroom using ANSYS Fluent CFD, building a new design modular geometry, meshing, and configuring inlets and domain boundaries for high-quality analysis.
Import geometry, duplicate bodies, create an enclosure, and assign named boundary selections for CFD in ANSYS; generate a Fluent mesh with 50 mm base size and 8 mm minimum.
Sketch an axial pump geometry in SpaceClaim, forming blades with lines and arcs, then generate a Fluent mesh with near-wall inflation, name inlet and outlet, and transfer to Fluent.
Model the solar chimney in design modeler by sketching and revolving contours. Generate an unstructured mesh with edge sizing and boundary definitions for Fluent CFD, including inlets, outlets, symmetry planes.
Model a mixer impeller and its outer and inner jackets in Ansys design modeler. Create a complete mesh and set boundary names for fluent simulations.
Draw the ducted fan geometry, enclose the fan with an MRF zone, assign boundary names, and generate a refined mesh with five millimeters near the fan.
Design a bent pipe geometry in Ansys workbench using three circle profiles and loft. Then generate a mesh with inflation layers and boundary definitions for inlet, outlet, and walls.
Define a 25 mm box and set 40 mm mesh. Name boundary regions, switch to cfd, and export to Fluent to analyze contact angle and friction on a hyperbolic surface.
Create a coronavirus patient geometry and generate a high quality CFD mesh in ANSYS Workbench and Fluent, detailing planes, extrudes, blends, and inlets.
Learn to build a heat exchanger with segmented baffles in ANSYS design modeler, generate 3d geometry, apply booleans and patterns, and prepare a fluent mesh.
Draw a hydrocyclone geometry in ANSYS workbench, create a high quality CFD mesh for Fluent, and define inlet, outflow, overflow, and walls with named selections.
Learn to model a porous concrete block for water infiltration in ANSYS Fluent, create geometry with DesignModeler, generate a structured hex mesh, and define inlet, outlet, and walls.
Build the covid-19 patient geometry and a CFD mesh in Ansys Workbench, covering design modeler steps, domain setup in the operating room, inlet patterning, and fluent settings for transient breathing.
Master the pin fin heat sink geometry workflow for ANSYS fluent CFD training. Create sketches and circles, extrude to 3d, pattern, boolean unite, create domains, and prepare for meshing.
Learn to prepare a pin and plate heat sink in ANSYS Fluent by naming surfaces, applying boundary conditions, and generating a tetrahedral mesh with boundary layer inflation.
Create a plate heat exchanger geometry in DesignModeler with molten sulfur, extrude plates, add tubes, and apply inflation for a conformal mesh in Fluent.
ANSYS Fluent Training Course
Welcome to our comprehensive ANSYS Fluent Training Course, available on Udemy. This course is meticulously designed for both beginners and intermediate learners, providing an in-depth exploration of the functionalities of ANSYS Fluent, a powerful Computational Fluid Dynamics (CFD) software.
## Course Overview
In this 16-hour course, you will embark on a journey that begins with the basics of Computational Fluid Dynamics and culminates in a thorough understanding of advanced CFD concepts. The course is structured to gradually build your knowledge, starting with fundamental principles and progressing to more complex topics.
## Learning Objectives
The primary objective of this course is to equip you with a solid understanding of how to set up, solve, and post-process CFD problems using ANSYS Fluent. By the end of this course, you will be able to:
- Understand the fundamental principles of CFD
- Set up and solve CFD problems using ANSYS Fluent
- Master advanced CFD techniques
- Interpret and visualize CFD results using post-processing methods
## Course Content
The course is divided into several sections, each focusing on a specific aspect of ANSYS Fluent. Here's a brief overview of what you can expect:
1. **Introduction to CFD:** This section covers the basics of CFD, including its history, applications, and importance in today's industries.
2. **Getting Started with ANSYS Fluent:** Here, you'll be introduced to the ANSYS Fluent interface, and you'll learn how to navigate it.
3. **Problem Setup:** This section deals with setting up various types of CFD problems in ANSYS Fluent, including boundary conditions, meshing, and solver settings.
4. **Solving CFD Problems:** Here, you'll learn how to solve different types of CFD problems using ANSYS Fluent, including steady-state and transient problems.
5. **Advanced CFD Techniques:** This section delves into more complex CFD topics, such as multiphase flows, turbulence modeling, and heat transfer.
6. **Post-processing:** In the final section, you'll learn how to interpret and visualize your CFD results using various post-processing techniques.
## Teaching Methodology
The course employs a blend of theoretical explanations and practical examples to facilitate effective learning. Each concept is first explained theoretically, followed by a practical example or exercise to reinforce the learning. The course is self-paced, allowing you to learn at your own convenience.
## Who Should Enroll?
This course is ideal for anyone interested in learning CFD using ANSYS Fluent. Whether you're a student, a researcher, or an engineer, this course will equip you with the skills needed to navigate and effectively use ANSYS Fluent.
## Conclusion
In conclusion, this course offers a comprehensive insight into CFD using ANSYS Fluent. With a blend of theoretical knowledge and practical skills, you'll be well-equipped to tackle any CFD problem. So why wait? Start your CFD journey with us today!