Ansys - swiftlysewa career portal

The ANSYS 6 Week Course is designed to introduce students and beginners to the fundamentals of engineering simulation and analysis. This course provides hands-on experience with simulation tools used in industries such as mechanical, aerospace, automotive, and civil engineering. By the end of the course, learners will understand how to model, simulate, and analyze real-world engineering problems using ANSYS.

During the course, students will learn the basics of Finite Element Analysis (FEA) and Computational Fluid Dynamics (CFD). The training begins with an introduction to the ANSYS interface, geometry creation, and meshing techniques. As the course progresses, students will work on simulations such as structural analysis, thermal analysis, and fluid flow analysis.

The course also includes practical examples and mini projects to help learners apply theoretical concepts in real engineering scenarios. Students will gain knowledge of boundary conditions, material properties, mesh generation, and result interpretation.

Key Learning Outcomes:

Introduction to ANSYS and simulation concepts
Geometry modeling and meshing techniques
Structural analysis using FEA
Fluid flow analysis using CFD
Thermal analysis and result interpretation
Hands-on practice with real engineering examples

This 6-week course is ideal for engineering students, beginners, and professionals who want to develop simulation skills and improve their understanding of engineering analysis using ANSYS. By completing this course, learners will gain practical knowledge that can be applied in academic projects, research, and industry applications. 🚀

Show More

Course Content

Week 1
In Week 1, students are introduced to the basics of ANSYS and the fundamental concepts of engineering simulation. This week focuses on understanding how simulation tools help engineers analyze and solve real-world engineering problems before building physical prototypes. Students begin by learning what simulation is and why it is important in industries such as automotive, aerospace, and manufacturing. The course explains key concepts like Finite Element Analysis (FEA) and how ANSYS is used to study stress, deformation, and structural behavior of different components. Learners are also introduced to the ANSYS Workbench interface, including its main tools, menus, and workflow. They learn how to create a new project, import or create geometry, and understand the basic steps involved in the simulation process such as geometry, meshing, setup, solution, and results. By the end of Week 1, students will have a clear understanding of the ANSYS environment and the overall simulation workflow, preparing them for more advanced analysis and practical simulations in the coming weeks. 🚀

Lesson 1

03:23
Lesson 2

09:58
Quiz on week 1

Week 2
In Week 2, students focus on geometry creation and model preparation in ANSYS. This week helps learners understand how engineering models are created or imported before performing any simulation. Students begin by learning how to create basic geometries using ANSYS DesignModeler or other CAD tools. They practice building simple shapes such as blocks, cylinders, and plates, which are commonly used in engineering simulations. The course also explains how to import geometry from external CAD software and prepare it for analysis. Another important topic covered this week is geometry cleanup and simplification. Students learn how to remove unnecessary features and correct geometry errors to ensure accurate simulation results. By the end of Week 2, students will understand how to create, edit, and prepare geometric models for simulation. This knowledge is essential before moving to the next step of simulation, which is meshing and analysis setup in later weeks. 🚀

Week 3
In Week 3, students learn about meshing, which is a critical step in the simulation process using ANSYS. Meshing is the process of dividing a geometry model into many small elements so that complex engineering problems can be solved using numerical methods. During this week, students are introduced to the ANSYS Meshing environment and its basic features. They learn how to generate meshes for different types of models and understand the importance of mesh quality in obtaining accurate simulation results. The course also explains different types of mesh elements, such as tetrahedral and hexahedral elements, and how element size affects the accuracy and computation time of a simulation. Students practice adjusting mesh density and refining mesh in critical areas of a model where more accuracy is required. By the end of Week 3, students will understand how to generate meshes, control mesh size, and evaluate mesh quality. This knowledge prepares them for the next stage of the simulation process, where they will apply boundary conditions and run engineering analyses. 🚀

Week 4
In Week 4, students learn how to apply boundary conditions and loads in ANSYS to perform engineering analysis. After creating geometry and generating a mesh, the next important step is defining how the model interacts with real-world conditions. During this week, students are introduced to the ANSYS Mechanical environment, where they learn to set up simulations. They practice applying different types of boundary conditions such as fixed supports, forces, pressure, and displacement constraints. These conditions help represent how a component behaves when it is used in real-life situations. Students also learn how to define material properties such as elasticity, density, and strength, which are necessary for accurate structural analysis. The course explains how loads affect a structure and how ANSYS calculates deformation, stress, and strain. By the end of Week 4, students will understand how to prepare a simulation model by assigning materials, applying loads, and defining boundary conditions. This step is essential before running the simulation and analyzing results in the following weeks. 🚀

Week 5
In Week 5, students focus on solving simulations and analyzing results using ANSYS. After creating geometry, generating mesh, and applying boundary conditions and loads, the next important step is to run the simulation and interpret the results. Students work in the ANSYS Mechanical environment to solve the model. They learn how to start the solver, monitor the progress of the simulation, and ensure that the analysis runs successfully without errors. This week also introduces post-processing, where students learn how to visualize simulation results. They study different result outputs such as total deformation, stress distribution, and strain in the model. These results help engineers understand how a component behaves under applied loads and conditions. Students also practice using graphical tools such as contour plots and result probes to examine critical areas of the model. This helps in identifying weak points, high stress regions, and potential design improvements. By the end of Week 5, students will understand how to run simulations, interpret analysis results, and visualize engineering data effectively. This knowledge prepares them for the final week, where they will work on practical examples and complete a simple simulation project. 🚀

Week 6
In Week 6, the final week of the course, students focus on applying all the concepts learned throughout the training using ANSYS. This week emphasizes practical application and helps students understand how a complete simulation project is carried out. Students perform a complete simulation workflow, starting from geometry preparation and meshing to applying boundary conditions, running the solver, and analyzing the results. This process helps reinforce the knowledge gained in previous weeks. During this week, learners also work in the ANSYS Mechanical environment to solve a practical engineering example such as analyzing the deformation or stress in a mechanical component. They learn how to review results carefully and identify areas where design improvements may be needed. The final week also highlights best practices in simulation, including checking model accuracy, improving mesh quality, and validating results to ensure reliable analysis. By the end of Week 6, students will have a clear understanding of the complete ANSYS simulation process and gain confidence in performing basic engineering simulations independently. This final week prepares learners to apply ANSYS skills in academic projects, research work, and real-world engineering applications. 🚀

A course by

Kushawaha Shankar

CAD CAM developer.

Student Ratings & Reviews

No Review Yet

No Review Yet

Price:
Original price was: ₹1,000.00.Current price is: ₹449.00.
Instructor:Kushawaha Shankar
Duration: 20 hours
Lessons:12
Students:0
Level:All Levels