
Learn how to use Ansys Fluent for computational fluid dynamics, exploring internal and external flows across aerospace, defense, medical, chemical, and automotive applications, with insights into product development.
Explore three computational fluid dynamics approaches—experimental, numerical, and analytical—and how they inform new product development with Ansys Fluent and Workbench.
Explore cfd with Ansys Fluent, including geometry creation, meshing, material and input setup, solving, and post-processing to predict and analyze fluid and structural interactions for aero and design optimization.
Explore the design modular workflow for CFD prep in Ansys Fluent, building 3D models from 2D sketches, applying constraints, and navigating modeling tools and plane settings.
Configure grid and snap settings, then sketch lines, edges, and rectangles with two- or three-point inputs. Use the modified toolbar to apply radii and trim excess geometry.
Modify tools and dimensions within the software by learning to split lines, create various dimensions and geometries, adjust default settings, and manage constraints to support CFD modeling.
Automatically create dimensions for sketches with semi automatic selection to achieve fully constrained sketches, edit and animate dimensions, and apply pre processing to reduce elements for accurate CFD analysis.
Apply equal distance constraints to sketches, master 2D sketching tools, and build 3D models from planes and solid bodies, while removing unnecessary features to enable accurate CFD analysis.
Create and constrain a sketch, then apply extrude to turn a rectangle into a solid, adjusting height and units as needed.
Learn to create a slot by sketching on a face and extruding to remove material, then compare material removal and slice material; use imprint faces to project only faces, aiding meshing.
Learn to create features using revolve and revolve cut by selecting a revolution axis, sketching circles and rectangles, and applying extrude with 360-degree or variable angles in an isometric view.
practice creating XY planes and sketches, building lofted features, and applying thickness and sheet metal workflows, including slicing, imprinting, and face selection.
Learn to apply fillet and chamfer with fixed radius on edges, explore variable radius options, and use planes and edge slicing to define distances and generate points along edges.
Explore patterning and primitive creation in Ansys Fluent for CFD, including linear, circular, and rectangular patterns, body transformations, translating, rotating, and scaling, and using primitives for basic shapes.
Create and customize cross sections for beams or pipes by selecting the xy plane, sketching lines, applying a cross section, adjusting radius, and exporting or saving the project in formats.
Explore the fundamentals of meshing in CFD, including how dividing the domain into nodes and cells, using fine or coarse meshes, impacts equation accuracy and solution stability.
Create 3D models and generate meshes by distinguishing structured and unstructured meshes, modeling 2D and 3D elements, and distributing solids into small cells for CFD analysis.
Explore various element types used in meshing for CFD, including prism meshes and 3d elements, and understand how unstructured and structured meshes affect accuracy and element quality.
Use the mesh detail window to adjust physical preferences, observe changes in nodes and elements, and apply low, medium, or high settings to balance mesh quality and accuracy.
Navigate mesh controls to set element size and divisions, refine body and face sizing, and convert between unstructured and structured meshes for targeted accuracy.
Select the face and switch from structured to unstructured mesh to optimize element distribution and inflation with a growth rate of 1.2.
Explore mesh metrics in Ansys Fluent by inspecting element selection, coordinates, labeling, and area, and analyze element quality through graphs of count, average, min, max, and aspect ratio.
Explore mesh functions to create and refine meshes with structured quad and triangular elements, compare conforming and independent meshing, and apply size control and inflation for structured and unstructured meshes.
Explore assembly connections, automatic and manual, including bonded and frictionless types. Learn how mesh generation, quality checks, and unstructured meshes influence CFD and structural analysis.
Explore laminar pipe flow modeling using design modeler and meshing in Ansys Fluent, building a complete CFD workflow from geometry creation to mesh quality and laminar flow analysis.
Explore how to manage disturbances in an unstructured mesh for laminar pipe flow, select and map phases, and generate the mesh efficiently in Ansys Fluent.
Explains preparing a laminar pipe flow simulation in Ansys Fluent, including meshing, named selections, setting fluid to water, and configuring model and general settings.
Learn to ensure convergence in laminar pipe flow simulations using ANSYS Fluent by adjusting iterations, checking mesh quality, and validating results before finalizing the solution.
Assemble and refine a structured mesh for a CFD nozzle project in Ansys Fluent by sizing elements, converting unstructured to fully structured, and defining named selections and edges.
Study meshing, double-precision accuracy, and boundary conditions in a CFD nozzle analysis using a pressure-based, velocity-formulation workflow in Ansys Fluent, with density, viscosity, and solution steps.
Explore post processing in CFD with Ansys Fluent, study velocity, temperature, and density, and identify subsonic to supersonic transitions and Mach 1 effects.
Analyze nozzle flow with ANSYS Fluent, focusing on velocity, density, and temperature, visualized by streamlines and post-processing animation, including supersonic flow near the throat.
Demonstrates selecting faces, applying face sizing and divisions, and generating a predominantly structured mesh with localized refinement near the inlet and cylinder using ANSYS Fluent.
Set up a steady-state cfd run in ansys fluent by adding the energy equation and using the k-epsilon model, defining inlet conditions, and initializing to analyze cylinder aerodynamics.
Explore how to run CFD iterations in Ansys Fluent, analyze velocity fields, color solution, and flow separation, and adjust global and local region parameters to study a plate model.
Explore CFD with Ansys Fluent by analyzing flow in lanes using streamlines, examining flow separation, velocity fields, and laminar flow cases through animated visualizations.
Increase streamlines to study flow and observe how mesh density influences result clarity in cfd with Ansys Fluent.
Explore how airfoils generate lift and experience drag across angles of attack, analyzing pressure differences on upper and lower surfaces and camber effects using CFD with Ansys Fluent.
Explore how to set up an angle of attack study in CFD using Ansys Fluent, including creating base planes, importing external geometry, and building a flow channel to compare cases.
The lecture walks through building a 3D/2D aeroplane profile, applying boolean operations to carve a slot, and generating an unstructured mesh with inflation for CFD simulations in Ansys Fluent.
Learn to generate inflation in targeted regions and refine the mesh in Ansys Fluent with controlled element density and appropriate element types for structured and unstructured layouts.
Create and refine the computational domain in ANSYS Fluent, set boundary conditions with inlet velocity and outlet, and analyze lift, drag, and moment using the standard fluid equations.
Initialize the Ansys Fluent case, set monitors, and run the simulation to build the case, ensuring no reverse flows or divergences and observing convergence with velocity and epsilon adjustments.
Explore how to set up and adjust CFD simulations in Ansys Fluent, including axis rotation, angle of attack adjustments, mesh updates, and running the solver for aircraft maneuverability analyses.
This Lecture Explains the Various Importanant considerations and methods to be followed while developing a New Product in any kind of Industry.
Course Has been created to provide the FEA and FVM knowledge in the Industrial Level, This course has been created exactly how the industry projects will be executed to produce Quality products to the Clients.
I am sure after taking this course with proper practice with the material provided in the course the students can execute the Operations as per the industry needs.
Industry methods has been followed while delivering the lectures to provide the industry working environment to the students and all necessary topics has been covered in this course to solve and perform a complete structural problem.
Syllabus
Pre Prepossessing
Introduction to Ansys
Introduction to FEM
Introduction to Ansys User Interface
Model Creation In Ansys
Different operations in Model Creation
Sketching
Constrains
Modelling
Planes Creation
Model De featuring
Geometry Idealization
Body Splitting
Body Slicing
Fillets
Chamfers
Holes
Slots
Geometry Import
Geometry Export
Taking Mid Surface
Geometry Combine
Default Shapes Available
Applying Different Materials
Meshing
Introduction to Meshes
Different Element Shapes
2D Mesh
3D Mesh
Mapped Face Meshing
Structured Meshing
Un Structured Mesh
Advantages of Different Meshes
Mesh Layering
Mesh Size Control
Mesh Quality
Giving Input Parameters
Solving
Run The Setup
Post Processing
Taking Different Out puts
Creating Animation
Results Interpretation
Creation Automatic Report
Grid Independent Study
Ansys Project Export
Ansys Project Management