Ansys 3 week Course - swiftlysewa career portal

The ANSYS 3-Week Course is a comprehensive, hands-on training program designed to help students and engineers master engineering simulation and Finite Element Analysis (FEA). This course provides practical knowledge of structural, thermal, and basic fluid simulations using ANSYS software.

Throughout three intensive weeks, learners will gain step-by-step experience in modeling, meshing, applying boundary conditions, solving, and interpreting results for real-world engineering problems.

🔹 Week 1: Fundamentals of ANSYS & FEA

Introduction to Finite Element Analysis (FEA)
ANSYS interface and workflow
Geometry import and creation
Meshing techniques and element types
Basic structural analysis (static analysis)

🔹 Week 2: Advanced Structural & Thermal Analysis

Stress, strain, and deformation analysis
Contact analysis
Thermal analysis (steady-state & transient)
Result interpretation and report generation
Engineering best practices

🔹 Week 3: Dynamic & Fluid Simulation Basics

Modal analysis
Harmonic response analysis
Introduction to CFD concepts
Simulation project work
Final project and certification guidance

🎯 Who Should Enroll?

Mechanical Engineering students
Design engineers
Manufacturing professionals
Anyone interested in simulation and analysis

🏆 Course Outcome:

By the end of this course, participants will be able to independently perform engineering simulations, analyze results accurately, and apply simulation techniques to real-world design problems.

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Course Content

Week 1
Week 1 focuses on building a strong foundation in Finite Element Analysis (FEA) and understanding the ANSYS simulation workflow. Students are introduced to the basic concepts of engineering simulation and how numerical methods are used to solve real-world mechanical problems. During this week, learners explore: Introduction to FEA concepts (nodes, elements, meshing, boundary conditions) Overview of the ANSYS interface and project workflow Geometry creation and importing CAD models Meshing techniques and mesh quality importance Material property definition Application of loads and constraints Performing basic static structural analysis Interpreting results such as deformation, stress, and strain By the end of Week 1, participants will be able to set up and solve a simple structural simulation independently and understand how simulation supports engineering design decisions. This week establishes the essential skills required for advanced structural and thermal analysis in the upcoming weeks.

Lesson 1

04:54
Lesson 2

04:56
Lesson 3

05:01
Quiz on Week 1

Week 2
Week 2 focuses on advanced structural and thermal analysis techniques in ANSYS. After learning the fundamentals in Week 1, students now deepen their understanding of realistic engineering problems and more complex simulation setups. This week emphasizes improving accuracy, handling real-world conditions, and interpreting professional-level results. 🔹 Advanced Structural Analysis Students learn how to simulate more practical engineering cases, including: Contact analysis (bonded, frictional, frictionless contacts) Multiple load conditions Non-uniform pressure applications Bolt pretension concepts Stress concentration and refinement techniques Mesh refinement for high-accuracy results Learners also explore how to evaluate: Maximum stress regions Stress distribution patterns Deformation behavior under complex loading 🔹 Thermal Analysis Students are introduced to heat transfer simulations, including: Steady-state thermal analysis Transient thermal analysis (basic concepts) Conduction, convection, and heat flux Thermal boundary conditions Temperature distribution visualization They understand how temperature affects material behavior and structural performance. 🔹 Post-Processing & Report Generation This week also focuses on professional result interpretation: Creating contour plots Graph plotting and probes Animation of results Generating technical simulation reports Understanding engineering conclusions from results 🎯 Week 2 Learning Outcome By the end of Week 2, students will be able to: Perform advanced structural simulations with contact conditions Conduct thermal analysis problems Refine mesh strategically for better accuracy Interpret complex simulation results confidently Prepare professional engineering reports

Week 3
Week 3 focuses on dynamic analysis and advanced simulation techniques, allowing students to analyze real-world engineering problems involving vibration, motion, and basic fluid behavior. This final week integrates all previous knowledge and prepares students for practical industry applications. 🔹 Dynamic & Modal Analysis Students learn how structures behave under dynamic loading conditions, including: Modal Analysis – Determining natural frequencies and mode shapes Understanding resonance and its impact on structures Identifying vibration-prone regions Basic Harmonic Response concepts Learners understand why avoiding resonance is critical in machine design, automotive systems, aerospace components, and rotating machinery. 🔹 Introduction to Dynamic Loading Students explore: Difference between static and dynamic loading Time-dependent forces Harmonic loading basics Response of structures under vibration They also learn how stiffness and mass affect natural frequency. 🔹 Introduction to CFD (Basic Concepts) Week 3 introduces the fundamentals of Computational Fluid Dynamics (CFD): Basic fluid flow concepts Pressure and velocity distribution Boundary layer concept Flow visualization Students understand how simulation can predict airflow, cooling performance, and pressure drops. 🔹 Final Project Work In the final part of Week 3, students: Perform a complete simulation project Choose appropriate analysis type Apply correct boundary conditions Interpret results Prepare a professional simulation report This project integrates: Geometry creation Meshing Material assignment Loads and constraints Post-processing Safety evaluation 🎯 Week 3 Learning Outcome By the end of Week 3, students will be able to: Perform modal analysis Understand vibration and resonance concepts Conduct basic harmonic response studies Understand fundamentals of CFD Complete a full simulation project independently Present professional engineering conclusions

A course by

Kushawaha Shankar

CAD CAM developer.

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Price:
Original price was: ₹800.00.Current price is: ₹249.00.
Instructor:Kushawaha Shankar
Duration: 20 hours
Lessons:9
Students:0
Level:All Levels