
Explore Ansys as a versatile tool for structural analysis and computational fluid dynamics, predicting durability and aerodynamic performance across aerospace, defense, healthcare, and automotive industries.
Introduce Ansys and its three analysis methods: experimental, numerical, and analytical for product development. Highlight applications across aerospace and chemical industries and note accuracy depends on input and mesh.
Explore computer aided engineering with Ansys, covering pre-processing, meshing, solving, and post-processing of finite element models to analyze complex problems by splitting components into small parts and validating results.
Validate Ansys results by comparing with previous work or manual calculations, set up CAD models with proper inputs and degrees of freedom, and perform meshing for structural analysis.
Explore the basics of using Ansys, install the software, and navigate the project semantic window, toolboxes, and analysis systems to model, input materials, and solve assemblies.
Learn to perform integrated ANSYS simulations for structural and fluid dynamics, from geometry import and material setup to meshing and solving. Explore post-processing, results analysis, and design optimization workflows.
Modify tools and dimension in three-dimensional modelling software such as Ansys by extending to limits, splitting lines, and creating diameters and radii, while adjusting default settings and constraints.
Learn to apply modeling constraints in Ansys, including coincident, symmetry, balance, parallel, concentric, and equal radius constraints, with sketching workflows.
Apply equal distance constraints between lines in 2d sketches, then create 3d models using x, y, z planes, and remove unnecessary features for accurate analysis.
learn how to create a solid by using the extrude feature from a two-dimensional rectangle sketch, set dimensions, apply coincident constraints, and manage units in a three-dimensional modeling environment.
Learn to create and modify slots in Ansys structural analysis workflows, using sketching on faces, extrusion, and slice and imprint faces techniques to prepare mesh-ready models.
Explore the sweep modeling command in ANSYS, using sketches in perpendicular planes and a guide to define a profile path for solid modeling.
Apply fixed-radius fillets by selecting edges and setting the radius, compare with chamfer, and use slice by plane to create slices and generated points.
Explore creating patterns and primitives in ansys, including linear, rectangular, and circular patterns with copies and offset distance, plus body transformation through translate, rotate, and scale.
Take cross sections in Ansys by sketching a line on the xy plane, selecting cross sections, adjusting radii, saving, and exporting the project in multiple formats.
Import external files from other software into ANSYS using supported formats, understand import and export formats, and view body details after import to generate a modular workflow.
Explore meshing fundamentals in structural analysis, focusing on nodes and elements, domain partition into meshes, and the trade-off between coarse and fine meshes for accuracy and stability.
Explore structured, unstructured, and hybrid meshes for 3D modeling, examining element alignment, convergence, and accuracy, including layered mesh near the surface of the airplane.
Explore 2d and 3d finite element types, including first- and second-order triangular and quad elements, plus 3d hexahedral and pyramid elements with nodes and meshes.
Explore various finite element types in ansys, including prism, tetra, hexahedron, and pyramid, and compare 2d and 3d mesh approaches for accuracy and efficiency.
Learn to build and refine a 3d mesh in Ansys by choosing standard mechanical settings, adjusting element sizes, and evaluating mesh metrics to balance accuracy and computation time.
Learn to inspect mesh quality in Ansys by selecting elements, viewing coordinates, and examining metrics like element counts, average and max quality, plus relevance proximity to improve the mesh.
Learn how to mesh assemblies in ANSYS by importing a complex assembly, configuring thickness and surface bodies, and managing connections and feature suppression from design modules.
Explore static structural analysis to identify stress concentrations and deformation while assessing the life of a structural component, through a case study on selecting the analysis system and meshing.
Learn to map and mesh faces quickly in Ansys for static structural analysis by selecting faces one by one and applying face meshing across the model.
Analyze static structural results and deformation, adjust element sizing and available options in ANSYS to improve data relevance, update the model, and save the optimized analysis.
Apply static structural analysis using Ansys by generating a mesh, preparing data, and executing iterative steps to refine results.
Apply support conditions and compressive piston loads in a static structural analysis using ANSYS, observe deformation, strain, and stress, and assess the factor of safety.
Analyze static structural results in Ansys by viewing deformations and animations, locating maximum and minimum stresses with tags, and generating stress reports and images for documentation.
Learn how to save a complete analysis project using a group format in two formats. Avoid missing files, enable easy transport, and ensure you can open all project data.
Perform a natural frequency study to identify a component's natural frequencies using model analysis in Ansys, examining gravity effects while keeping input methods and interfaces consistent across analyses.
Explore a very fine mesh model in Ansys, and perform a natural frequency study with no loads, noting that no stresses or strains occur due to the absence of loading.
Verify automated connections and bonded joints in the piston assembly, enforce frictionless contact between the piston rings, rod, and bush during motion, and configure material and mesh for analysis.
Perform thermal analysis in an Ansys model by refining mesh for piston components, applying convection and radiation, and setting temperature boundaries to study icing effects and combustion heat transfer.
Examine the solved problem’s temperature distribution and heat flux, observe that temperature increases yield minor data changes in the normal analysis, and preview radiation in the next lecture.
Explore how temperature variations affect heat flux and radiation in the outer body using ANSYS, observe changes via door animation, and generate clear thermal analysis reports.
Explore coupled analysis in Ansys by examining deformation, frequency, and stresses, and learn to generate figures and a report from model data.
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 FEM 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
Applying Loads
Different constrains
Choosing Different Outputs Needed
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