Electric Vehicle
5.0
ANSYS Engineering: Structural Analysis

This Certification Course in ANSYS for EVs: From Fundamentals to Structural Analysis is designed to take learners from the basics of Computer-Aided Engineering (CAE) to performing full-scale structural simulations using ANSYS Workbench. Starting with foundational concepts like FEA and FEM, the course guides students through software installation, geometry cleanup, meshing, and structural analysis setup. Real-world engineering scenarios are used to demonstrate material selection, boundary condition application, and result interpretation. Whether you're a student, engineer, or professional looking to upgrade your simulation skills, this course provides the knowledge and tools to excel in the world of virtual product testing and structural mechanics.

Duration: 1 Months
Program Duration
Self Paced - Recorded
Learning Format
Learn from World's Top Ranked
Indian Institute of Technology









FOR ENTERPRISE
Projects
Project 1: CAD to FEA Workflow - Structural Analysis of a Mechanical Component
Course Prerequisites
Who can take this course?
This course is suited for participants who have a basic understanding of CAD and mechanical engineering principles. It provides a balance between introductory and advanced concepts, making it suitable for students, professionals, and individuals looking to expand their simulation skills.
Freshers
Professionals
Hardware & Software Required
Hardware: Minimum: 8 GB RAM, Quad-Core Processor, and 50 GB of free disk space.
Software:
ANSYS Student Version or Professional License
CAD software such as SolidWorks, AutoCAD, or CATIA (optional for geometry generation).
Technical expertise you will gain
Technical Expertise You Will Gain:
Understand and apply the principles of CAD, CAM, and CAE in engineering projects.
Navigate and utilize ANSYS for performing comprehensive simulations, including static structural analysis.
Perform geometry clean-up, simplification, and meshing for complex models.
Set up and run finite element analyses and interpret the results to inform design decisions.
Apply material science principles within simulations, including the use of isotropic and orthotropic materials.
Validate and verify models to ensure the accuracy and reliability of simulation results.