Course level:Expert

Certification Course in ANSYS for EVs: From Fundamentals to Advanced Analysis

This comprehensive Certification Course in ANSYS for EVs: From Fundamentals to Advanced Analysis takes participants through a learning journey that spans from the basics of CAD/CAE concepts to advanced simulation techniques using ANSYS software. The course covers core topics such as finite element analysis (FEA), material properties, geometry handling, meshing, and analysis setup. With a strong focus on electric vehicle (EV) applications, the course then explores advanced ANSYS simulation techniques, including heat transfer, computational fluid dynamics (CFD), and modal analysis. Designed for both engineering professionals and students, this course equips participants with the expertise needed to solve complex problems in EV design and simulation, preparing them for success in the rapidly growing EV sector.

Level

Expert
Duration

17 hours 25 minutes
Enrollment validity

Enrollment validity: Lifetime
Certificate

Certificate of completion

Course Curriculum

Welcome to the Course!

Module 1: Getting Started with ANSYS and Simulation Techniques
This module introduces the basics of CAD, CAM, and CAE, focusing on how ANSYS fits into the simulation workflow. It includes an overview of the ANSYS interface and provides guidelines for model verification and validation.

Module 2: Fundamentals of FEA and Material Properties for Simulation
This module explains the foundational concepts of finite element analysis (FEA) and how material properties are handled in simulations. Topics include node and element definitions, degrees of freedom (DOF), and analysis of different material types such as isotropic and orthotropic materials.

Module 3: Working with ANSYS Workbench: Project Setup & First Simulation
This module provides students with a foundational understanding of ANSYS Workbench, starting with how to navigate the Project Page and manage Engineering Data effectively. Students will also perform their first simulation in ANSYS Mechanical, gaining hands-on experience with the simulation workflow. Additionally, the module covers how to access and utilize ANSYS Workbench Help for troubleshooting & support.

Module 4: ANSYS Pre-Processing Workflow – From Geometry Preparation to Meshing Fundamentals
This module focuses on ANSYS Pre-Processing, guiding students through key steps in preparing simulations. Learn how to import CAD geometry into ANSYS, followed by geometry clean-up & simplification using ANSYS SpaceClaim, across multiple parts. Students will also learn how to create new geometry and edit coordinate systems. The module culminates with an in-depth exploration of meshing fundamentals, covering essential meshing techniques to ensure accurate and efficient simulation setup.

Topic 1: Starting with Pre-Processing – Importing CAD Geometry in ANSYS

16:56
Topic 2: Geometry Clean-up and Simplification Using Ansys SpaceClaim – Part 1

25:07
Topic 3: Geometry Clean-up and Simplification Using Ansys SpaceClaim – Part 2

22:05
Topic 4: Geometry Clean-up and Simplification Using Ansys SpaceClaim – Part 3

22:27
Topic 5: Creating New Geometry Using ANSYS SpaceClaim

14:53
Topic 6: Creating and Editing Coordinate Systems

11:44
Topic 7: Meshing Fundamentals Part 1

24:33
Topic 8: Meshing Fundamentals Part 2

23:10
Topic 9: Meshing Fundamentals Part 3

19:26
Topic 10: Meshing Fundamentals Part 4

28:50

Module 5: ANSYS Static Structural Analysis – Setup, Simulation, and Results
This module delves into Static Structural Analysis using ANSYS Mechanical, with a focus on analyzing a battery pack. It covers the step-by-step process of setting up the analysis, applying boundary conditions and loads, and selecting the right materials for accurate structural simulations. The module concludes with running the analysis and interpreting the results to assess the performance and integrity of the design.

Module 6: Heat Transfer Analysis in ANSYS
This module focuses on Heat Transfer Analysis using ANSYS, covering key concepts and simulation techniques. Students will explore the basics of conduction, convection, and radiation, and apply these principles through various heat transfer simulations in ANSYS. The module includes steady-state and transient heat transfer analysis with ANSYS. Additionally, students will gain hands-on experience with battery thermal simulations and learn how to interpret and validate results through post-processing.

Topic 1: Heat Transfer Analysis – Overview

08:25
Topic 2: Understanding Heat Transfer Basics – Conduction, Convection, and Radiation

16:02
Topic 3: Heat Transfer Simulation with ANSYS

22:47
Topic 4: Steady State Convection Heat Transfer Analysis with ANSYS

17:47
Topic 5: Steady State Conduction Heat Transfer Analysis with ANSYS – Part 1

17:04
Topic 6: Steady State Conduction Heat Transfer Analysis with ANSYS – Part 2

22:55
Topic 7: Transient Conduction Heat transfer Analysis with ANSYS

27:04
Topic 8: Radiation Heat Transfer Analysis with ANSYS Part 1

15:15
Topic 9: Radiation Heat Transfer Analysis with ANSYS Part 2

11:47
Topic 10: Battery Thermal Simulation in ANSYS – Part 1

24:42
Topic 11: Battery Thermal Simulation in ANSYS – Part 2

37:51
Topic 12: Post-Processing, Results Interpretation, and Validation in ANSYS

15:05

Module 7: Modal Analysis in ANSYS
This module introduces the fundamentals of Modal Analysis in ANSYS, guiding students through the process from start to finish. It covers setting up a model, including geometry creation, defining material properties, and meshing the geometry for modal analysis. Students will also learn how to apply boundary conditions and solve for natural frequencies and mode shapes. The module wraps up with post-processing, interpreting results, and a case study on the modal analysis of a mounting plate, providing practical insights into real-world applications.

Module 8: Computational Fluid Dynamics in ANSYS
This module covers the fundamentals of Computational Fluid Dynamics (CFD) in ANSYS, starting with an overview of its definition, importance, and real-world applications. Students will be introduced to the basics of fluid dynamics and learn about key fluid properties such as density, pressure, viscosity, and surface tension. The module then explores fluid flow classifications and walks through the entire CFD workflow. Finally, students gain hands-on experience in performing CFD analysis using ANSYS Fluent, with step-by-step guidance in two parts of the analysis process.

Module 9: ANSYS Case Studies

DIY Projects:

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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).

DIY Projects Included

Project 1: CAD to FEA Workflow- Structural Analysis of a Mechanical Component

The project involves creation of a 3D CAD model, pre-processing, meshing, and performing a static structural analysis using ANSYS. Results are validated and optimized based on FEA.

Course Benefits

For Professionals:

Enhancement of simulation skills for complex engineering problems, increasing value in R&D and product development roles.
Broadening knowledge of CAD/CAE tools, enabling more efficient and accurate design processes.
Gaining proficiency in ANSYS, a widely recognized tool in the industry, making them more competitive in the job market.
Ability to handle complex engineering problems with greater accuracy.
Increased credibility in the electric vehicle and automotive industry.
Opportunities to work on cutting-edge EV technologies.
Potential for leadership roles in R&D departments.

For Freshers:

Acquiring industry-relevant skills in CAD, FEA, and CAE, providing a strong foundation for a career in engineering.
Gaining practical experience with ANSYS, improving employability in fields like aerospace, automotive, and manufacturing.
Building a portfolio of projects that demonstrate ability to apply theoretical knowledge to real-world engineering challenges.
Solid foundation in ANSYS simulation tools and methodologies.

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 accuracy and reliability of simulation results.
Conduct steady-state and transient heat transfer analyses for EV components.
Set up and analyze complex fluid dynamics simulations.

Key Job Areas

Job Roles

Skill Sets

Companies Hiring

Key Job Areas

Job Roles

Skill Sets

Companies Hiring

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

Personalized Trainer Support Portal:

24/7 Access to a personalized trainer support portal.
One-on-One Mentorship for queries and project guidance.
Access to diverse resources, including recorded lectures, reading materials, and practical guides.
Dedicated forums for content discussion, insights, and project collaboration.
Regular Feedback from trainers for comprehensive understanding and improvement.

Level

Expert
Duration

17 hours 25 minutes
Enrollment validity

Enrollment validity: Lifetime
Certificate

Certificate of completion

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Students

Certification Course in ANSYS for EVs: From Fundamentals to Advanced Analysis

At a glance

Course Curriculum

Welcome to the Course!

Sign up at ev.care to access free learning materials!

Module 1: Getting Started with ANSYS and Simulation Techniques This module introduces the basics of CAD, CAM, and CAE, focusing on how ANSYS fits into the simulation workflow. It includes an overview of the ANSYS interface and provides guidelines for model verification and validation.

Topic 1: Introduction to CAD, CAM & CAE – Understanding the Design Process

Topic 2: Introduction to ANSYS – Fundamentals of Simulation

Topic 3: Understanding Pre-Analysis in Simulation

Topic 4: Verifying and Validating the Model in Simulation

Topic 5: ANSYS Installation Guide (Official Student Version)

Topic 6: Exploring ANSYS Interface

Topic 1: Introduction to FEA & FEM – Key Concepts

Topic 2: Nodes and Elements in FEA

Topic 3: Understanding Degree of Freedom (DOF) in FEA

Topic 4: Classification of Materials in FEA

Topic 5: Understanding Isotropic & Orthotropic Materials

Topic 6: Implicit vs Explicit Analysis

Topic 1: Understanding the Project Page & Engineering Data in ANSYS Workbench

Topic 2: Performing the First Simulation in ANSYS Mechanical

Topic 3: Accessing ANSYS Workbench Help

Topic 1: Starting with Pre-Processing – Importing CAD Geometry in ANSYS

Topic 2: Geometry Clean-up and Simplification Using Ansys SpaceClaim – Part 1

Topic 3: Geometry Clean-up and Simplification Using Ansys SpaceClaim – Part 2

Topic 4: Geometry Clean-up and Simplification Using Ansys SpaceClaim – Part 3

Topic 5: Creating New Geometry Using ANSYS SpaceClaim

Topic 6: Creating and Editing Coordinate Systems

Topic 7: Meshing Fundamentals Part 1

Topic 8: Meshing Fundamentals Part 2

Topic 9: Meshing Fundamentals Part 3

Topic 10: Meshing Fundamentals Part 4

Topic 1: Setting-Up a Static Structural Analysis on Battery Pack in ANSYS Mechanical – Part 1

Topic 2: Setting-Up a Static Structural Analysis on Battery Pack in ANSYS Mechanical – Part 2

Topic 3: Applying Boundary & Load Conditions in Static Structural Analysis

Topic 4: Material Selection Criteria in Structural Simulations

Topic 5: Running Analysis and Results

Topic 1: Heat Transfer Analysis – Overview

Topic 2: Understanding Heat Transfer Basics – Conduction, Convection, and Radiation

Topic 3: Heat Transfer Simulation with ANSYS

Topic 4: Steady State Convection Heat Transfer Analysis with ANSYS

Topic 5: Steady State Conduction Heat Transfer Analysis with ANSYS – Part 1

Topic 6: Steady State Conduction Heat Transfer Analysis with ANSYS – Part 2

Topic 7: Transient Conduction Heat transfer Analysis with ANSYS

Topic 8: Radiation Heat Transfer Analysis with ANSYS Part 1

Topic 9: Radiation Heat Transfer Analysis with ANSYS Part 2

Topic 10: Battery Thermal Simulation in ANSYS – Part 1

Topic 11: Battery Thermal Simulation in ANSYS – Part 2

Topic 12: Post-Processing, Results Interpretation, and Validation in ANSYS

Topic 1: Exploring the Fundamentals of Modal Analysis

Topic 2: Setting Up a Model for Modal Analysis in ANSYS – Geometry Creation to Defining Materials Properties

Topic 3: Meshing the Geometry for Modal Analysis

Topic 4: Setting Up Boundary Conditions & Constraints for Modal Analysis

Topic 5: Solving for Natural Frequencies & Mode Shapes in Modal Analysis

Topic 6: Post-Processing & Interpreting Modal Analysis Results

Topic 7: Case Study – Modal Analysis of a Mounting Plate

Topic 1: Exploring CFD – Definition, Importance & Applications

Topic 2: Introduction to Fluid Dynamics

Topic 3: Understanding Fluid Properties – Density, Pressure, Viscosity, Surface Tension & Temperature

Topic 4: Fluid Flow Classifications

Topic 5: CFD Workflow Explained

Topic 6: Performing CFD Analysis in ANSYS Fluent – Part 1

Topic 7: Performing CFD Analysis in ANSYS Fluent – Part 2

Module 9: ANSYS Case Studies

DIY Projects:

Project 1: CAD to FEA Workflow – Structural Analysis of a Mechanical Component

Congratulations on Successfully Completing the Course!

Earn a certificate

Hardware & Software Required

Associated Skills

DIY Projects Included

Course Benefits

Technical expertise you will gain

Who can take this course?

Personalized Trainer Support Portal:

At a glance

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Advanced Certification Course in EV Design & Simulation using MATLAB

Module 1: Getting Started with ANSYS and Simulation Techniques
This module introduces the basics of CAD, CAM, and CAE, focusing on how ANSYS fits into the simulation workflow. It includes an overview of the ANSYS interface and provides guidelines for model verification and validation.