
Explore the ICEMCFD Master Class (Level 2) course contents, with five workshops on cases, including a session on the lack of meshing and future content on aircraft and turbines.
Learn how to maximize your learning in this course by adjusting volume and video quality, navigating the interface, accessing the q&a, and earning a certificate after completing all lectures.
Create the geometry of a circular cylinder with a top hemisphere and a surrounding domain in SpaceClaim, then build a control volume enclosure for flow analysis.
Hide specific faces in SpaceClaim to inspect inner geometry and define boundary conditions by creating named groups for inlet, outlet, and bottom, preparing geometry for ICEMCFD meshing.
Learn hex meshing in ICEM CFD by preparing blocking for a cylinder: create a master block, associate edges and points, snap geometry, and split the blocking to expose the geometry.
Create and align blocking for a cylinder geometry, perform four side and top splits, and generate a hex mesh with prematch parameters ready for export.
Master exporting an ICEM CFD blocking mesh for a CFD solver, converting blocks to a usable mesh, and defining inlet, outlet, and wall boundary conditions before exporting to CFX.
Learn how to create named selections in ICEM CFD instead of SpaceClaim, and define geometry, blocking, and boundary conditions for flow simulations with match file output for CFX.
Explore creating geometry directly in ICEMCFD, including circles and hemispheres, as an alternative to SpaceClaim, and learn about surface generation, revolutions, and editing trade-offs.
Learn to reuse blocking from case one on a modified geometry by importing and replacing geometry, then adjust and align the blocks with offsets to maintain consistent mesh for comparison.
Reuse and adapt blocking for new geometry in ICEM CFD Master Class (Level 2) Case 2 to preserve mesh consistency and enable direct design comparisons.
Learn to import multiple geometries, compare different cases in one figure, and create transparent, color-coded visuals for papers or presentations.
Mesh a circular cylinder with a hemispherical top in a rectangular domain using symmetry to avoid angle of attack, optimizing resources for the simulation and preparing imports, inflation, and boundaries.
Learn to create blocks on a geometry, apply blocking, align edges, configure meshing parameters, and refine the mesh with prematch and solid body operations for a robust CFD domain.
Learn how to build a hex mesh for aircraft geometry by applying targeted blocking strategies to fuselage, wing, and aerofoil regions, ensuring curvature-aware, high-quality meshing.
Identify association problems in icemcfd by verifying projections of measures onto surfaces and edge-face alignment. Learn to fix by reassigning faces to the correct surfaces and using selective face choices.
Use the mesh edit edge command to improve mesh quality by excluding problematic elements and adjusting a control point on the added edge to shape the geometry.
learn to fix mesh issues by correctly associating edges and curves to surfaces during prematch visualization. avoid misassociations that turn edges green and misplace surfaces.
Meshing is the most important part of any CFD process. Meshing is the process to divide continuous domain in discrete parts known as control volumes. After discretizing, this mesh is provided to numerical (CFD) solver to solve algebraic equations arising from partial differential equations of continuous domain. Therefore meshing is most important part of any CFD process and accuracy & stability of CFD process largely depends on good quality mesh.
It is estimated that around 70% time is spent on meshing in any CFD project. But after taking this course, you will be expert in meshing and you can generate meshes in very less time than rest of CFD community.
In meshing you can either go with full hexa meshing or tetra meshing (with prism layers). Hexa meshing is more of an art and requires great deal of time. But yields most accurate solution. It also requires less number of nodes and hence it require less compactional resources and less solution time. It also avoids numerical errors /numerical diffusivity as you can observe in tetra meshes. It is estimated that tetra meshes requires as much as five times of mesh size as that of hexa meshing.
In this course you will enhance your ICEMCFD hexa meshing skills on more complicated geometries such as circular cylinder, 3D airfoils, stirred tank, wind turbine etc. Here you will each and every trick/tip of business of CFD meshing. After going through this course, you will be able to create perfect grid according to CFD simulation requirements and hence will be able to get most accurate results in less time.
We will cover different topics as well which will increase effectiveness of hexa meshing.