
Explore the industrial product cycle from design need through market release. Learn design and manufacturing phases, CAD/CAE analysis, feasibility, optimization, prototyping, and quality control.
Contrast analytical, classical methods; numerical methods with nodes, elements, and linear algebra; and experimental methods for engineering problems, illustrated by cantilever beam and wooden plank scenarios.
Master finite element method, finite volume method, finite difference method, and boundary element method as they solve engineering problems by converting differential or integral equations into solvable systems.
Learn the finite element terms, especially degrees of freedom, and how translations and rotations define node positions in 2d and 3d, with meshing turning geometric models into finite element models.
Explore how finite element analysis converts continuous bodies into a set of nodes with six degrees of freedom and elements through meshing, shape functions, and shared nodes for accurate results.
Understand boundary and loading conditions in finite element analysis, using six degrees of freedom to simulate constraints and loads, then predict displacements, stresses, and strains.
Explore how the finite element method handles complex geometries, boundary conditions, and loading across solid mechanics, dynamics, heat transfer, fluids, and materials. Note that solutions are approximate and require validation.
CAE stands for computer aided engineering, using computers to solve engineering problems and simulate product behavior; finite element analysis is a CAE discipline using the finite element method.
Explore the wide range of finite element analysis applications across engineering fields, from mechanical crash testing and thermal analysis to aerospace and civil structural studies.
Import a CAD model into an FEA software, mesh it, and assign materials. Set geometric constraints, apply loads, configure solver parameters, run solver, and review post processing results and reports.
Learn to verify and validate finite element analysis results by ensuring model consistency, assessing numerical error through mesh convergence, and comparing with experimental data.
Explains how finite element method simulates problems by turning geometry, boundary and loading conditions, and materials into a mathematical model, solving for displacement, strain, and stress.
Explore finite element analysis from geometry to results, including meshing, defining material properties and cross-section, assembling stiffness and force matrices, solving displacements, and deriving stresses with interpolation.
In this lecture, students will be introduced to the Interface of Ansys Workbench Software.
In this lecture, students will be introduced to how to use the default unit systems and also create a new custom unit system in Ansys Workbench.
In this lecture, students will be introduced to how to save the Ansys Files in the default project and Archive formats and also how to open these saved files.
In this Lecture, Students will be introduced to the basic interface changes that happed b/w older and newer versions of Ansys Workbench software.
In this Lecture, Students will be introduced to the basic interface changes that happed in Engineering Data Manager and Design Modeler modules b/w older and newer versions of Ansys Workbench software.
In this Lecture, Students will be introduced to the basic interface changes that happed in Ansys Mechanical module b/w older and newer versions of Ansys Workbench software.
In this Lecture, Students will be introduced on how to control the unit systems in Ansys Mechanical Module in both older and newer versions of Ansys Workbench software.
In this Lecture, Students will be introduced on where and how we can use context (dynamic) menu toolbar in Ansys Mechanical Module in both older and newer versions of Ansys Workbench software.
In this Lecture, Students will be introduced on where and how we can use selection and graphics menu toolbars in Ansys Mechanical Module in both older and newer versions of Ansys Workbench software.
In this Lecture, Students will be introduced on where and how we can find geometric properties in Ansys Mechanical Module in both older and newer versions of Ansys Workbench software.
In this Lecture, Students will be introduced on where and how we can apply materials in Ansys Mechanical Module in both older and newer versions of Ansys Workbench software.
In this Lecture, Students will be introduced on where and how we to create a coordinate system in Ansys Mechanical Module in both older and newer versions of Ansys Workbench software.
In this Lecture, Students will be introduced on where and how we can find meshing options in Ansys Mechanical Module in both older and newer versions of Ansys Workbench software.
In this Lecture, Students will be introduced on where and how we can use options for application of different Boundary Conditions in Ansys Mechanical Module in both older and newer versions of Ansys Workbench software.
In this Lecture, Students will be introduced on where and how we can use solution options in Ansys Mechanical Module in both older and newer versions of Ansys Workbench software.
In this lecture, students will be introduced to the Engineering Data Module inside Ansys Workbench Software.
In this lecture, students will learn how to add custom materials to the Engineering Data Module inside Ansys Workbench Software.
In this lecture, students will learn how to access default materials in the Engineering Data Module inside Ansys Workbench Software.
In this lecture, students will be introduced to the Design Modeler module in Ansys Workbench.
In this lecture, students will be introduced to Sketching and Modelling Tools (Extrusion Tool) inside the Design Modeler module in Ansys Workbench Software.
In this lecture, students will be introduced to Revolve, Sweep, and Loft tools inside the Design Modeler module in Ansys Workbench Software.
In this lecture, students will be introduced to how to perform 1-D Modelling through creating a Bi-cycle frame using Design Modeler in Ansys Workbench software.
In this lecture, students will be introduced to how to perform (1-D + 2-D) Hybrid Modelling by creating a Two-story building frame using Design Modeler in Ansys Workbench software.
In this lecture, students will be introduced to how to reduce 3-D Models to 2-D surfaces using Design Modeler in Ansys Workbench software.
Students will be introduced to the basic concepts of Meshing.
Students will learn how to use Global mesh controls inside Ansys Workbench software.
Students will learn how to use Local mesh controls inside Ansys Workbench software.
Students will learn about mesh quality metrics used for testing the quality of the mesh and will learn how to access those metrics inside Ansys Workbench software.
This lecture introduces the major global meshing options present in ansys workbench.
This lecture introduces the major localized mesh refinement and sizing options present in ansys workbench.
This lecture introduces different meshing method options present in ansys workbench.
This lecture introduces different meshing method options present in ansys workbench.
This lecture introduces different meshing method options present in ansys workbench.
Students will learn about the basic theory of what is Static Structural Analysis.
Students will learn about the basic theory of performing a Static Structural Analysis inside Ansys Workbench software.
Ansys Workbench is a general-purpose Finite Element Analysis (FEA) software that is widely used in the Industry and Academia to solve many different engineering problems through a virtual simulation of the Engineering Designs under consideration.
Ansys Workbench is applied to virtual simulate the product operating conditions and helps us to understand its behavior and helps us achieve very good design through simulation and optimization even before the product has been manufactured.
Using Ansys Workbench software we can Simulate problems from Different fields such as Structural, Vibrations, Heat transfer, Fluid Flows, and many more types.
This course is all about learning and completing the Essential training required for effective usage of the Ansys Workbench Software so that by the end of the course you will be able confidently to perform Meshing of geometries, Static Structural, Modal, Thermal, Thermo-structural, buckling analysis using this Ansys Workbench software. you will also get acquainted with the Design Modeler, Ansys Mechanical, Ansys Engineering Data, and other important modules in Ansys Workbench Software.
This course is divided into Theoretical and Practical Sessions.
In the Theoretical session, you will be introduced to the basic theoretical concepts regarding the topics of FEA, Meshing, Static Structural, Modal, Thermal, Thermo-structural, and buckling analysis.
In the Practical sessions, you will be using industrial and academic examples for learning how to apply Ansys Workbench software for efficiently performing different kinds of Simulations such as:
- Static Structural Analysis
- 3-D Static Structural Analysis
- 2-D Static Structural Analysis
- 1-D Static Structural Analysis
- Modal Analysis
- Free Vibration Analysis
- Forced Vibration Analysis (Pre-Stressed)
- Thermal Analysis
- Conduction Mode
- Convection Mode
- Radiation Mode
- Mixed Mode Heat Transfer
- Thermo-Structural Analysis
- Buckling Analysis
- Structural Buckling
- Thermal Buckling
- Contact Analysis
- Meshing with old and Newer Versions of Ansys Workbench
- Ansys Workbench Interface for Old and Newer Versions of Ansys Workbench
- Engineering data manager and Design Modeler
- FEA theory
New Sections and Examples are going to be added based on requirements whenever required..., So Stay Hungry to Learn new topics and examples.
In addition to all of these analyses, you will learn about meshing and how to generate good mesh, the use of the Design Modeler Module, and other vital modules in Ansys Workbench software.
I hope you will join me in this course to learn more about FEA analysis and Ansys Workbench software.
Note: “This course is not affiliated with, endorsed by, or in any way associated with Ansys, Inc.”