RC
Richin Christ
Mechanical Design
Proficient in Ansys WorkBench
Master Proficient in AnsysWorkbench with practical training in simulation, analysis, and engineering workflows. Build job-ready skills, understand real-world applications, and gain confidence using AnsysWorkbench for professional engineering projects.
Duration80 Hours
ModeLive
CertificationCADD Centre Certified
Projects1 Live Project
Placement supportIncluded
✓Placement support via First Job Pakka
✓Batches start every month
✓Available at all 5 branches
✓EMI options available
Why this course
Looking to transition into simulation and analysis?
Transitioning into simulation and analysis is honestly one of the smartest moves you can make for your engineering career right now. Instead of just drawing parts in CAD, you get to become the detective who figures out *why* things break, how fluids flow, or how heat destroys a component before it ever hits the factory floor.
It completely shifts your value from a basic drafter to a core problem solver that companies heavily rely on to save millions in failed prototypes. It opens doors to R&D, CAE, and specialized design roles where your insights actually drive product safety and innovation. If you love the physics behind how things work in real life, this path makes engineering fun again because you are building digital twins of the real world.
Where Can Proficiency in ANSYS Take You?
Master ANSYS to unlock exciting career opportunities in simulation, structural analysis, and product design. Develop industry-relevant skills, tackle real-world engineering challenges, and stand out in the competitive engineering world with confidence!
₹4.5 L
Starting CTC
5+
Career Pathways
6+
Industries Hiring
Roles our graduates step into
CAE Engineer / AnalystCFD Engineer / AnalystFEA EngineerR&D Engineer
A typical career path
Career Roles
FEA, CAE & More
₹4–6 LPA
Fresher CTC
10+ years
₹ 20-40 LPA
What you'll learn
9 modules, structured around a real product.
Introduction to CAE and ANSYS Workbench
Understand Computer-Aided Engineering (CAE), Finite Element Analysis (FEA), and the ANSYS Workbench interface, including project workflows and simulation setup.
Topics covered
Fundamentals of CAE and Finite Element Analysis (FEA)ANSYS Workbench interface and toolsSimulation workflow and project setupOverview of engineering analysis typesPractical outcome
Navigate ANSYS Workbench and set up simulation projects using the appropriate analysis workflow.
3D Modelling and Geometry Preparation
Learn to create and prepare 3D geometry using sketching and modelling tools, and understand geometry preparation for engineering simulations.
Topics covered
3D geometry creation and importSketching and solid modelling fundamentalsGeometry cleanup and simplificationModel preparation for simulationPractical outcome
Create or import 3D models and prepare geometries for accurate finite element analysis.
Material Properties and Engineering Models
Explore material properties such as Young's modulus, Poisson's ratio, density, and yield strength, and understand their role in simulation accuracy.
Topics covered
Material property fundamentalsYoung's modulus and Poisson's ratioDensity & material behaviourMaterial assignment and engineering data setupPractical outcome
Assign suitable material properties to engineering models and prepare them for structural and thermal simulations.
Finite Element Meshing Techniques
Learn FEA fundamentals, mesh generation, element types, mesh controls, and mesh quality assessment for reliable simulation results.
Topics covered
Fundamentals of finite element meshingElement types and mesh generationMesh sizing and refinement controlsMesh quality assessment and convergence basicsPractical outcome
Generate suitable finite element meshes, refine critical regions, and evaluate mesh quality for improved analysis accuracy.
Static Structural Analysis
Learn to apply forces, pressures, supports, and boundary conditions to evaluate structural behaviour under static loading conditions.
Topics covered
Structural loads and boundary conditionspressures support constraintsStress & deformation analysisResult interpretation and factor of safetyPractical outcome
Perform static structural simulations and interpret stress, strain, deformation, and factor of safety results.
Modal and Buckling Analysis
Understand modal analysis for determining natural frequencies and mode shapes, along with buckling analysis for evaluating structural stability under compressive loads.
Topics covered
Fundamentals of modal analysisNatural frequencies and mode shapesLinear eigenvalue buckling analysisStructural stability and critical buckling loadsPractical outcome
Determine natural frequencies, visualize mode shapes, and assess structural buckling behaviour using ANSYS Workbench.
Thermal and Fatigue Analysis
Explore steady-state and transient thermal analysis, heat transfer, and fatigue analysis to evaluate temperature distribution and component durability under cyclic loading.
Topics covered
Steady-state and transient thermal analysisHeat transfer and temperature distributionThermal boundary conditionsFatigue life and damage assessmentCyclic loading and material fatigue behaviourPractical outcome
Analyse temperature distributions and assess fatigue life or damage using appropriate material data and loading conditions.
Design Parameters and Results Reporting
Learn to define design parameters, evaluate alternative design configurations, compare simulation results, and prepare engineering analysis reports.
Topics covered
Parameter definition and managementDesign variation and parametric studiesSimulation result comparisonEngineering plots and result visualizationTechnical report preparationPractical outcome
Conduct parametric studies, compare design performance, and generate reports containing simulation results and engineering observations.
Practical Project Application
Apply ANSYS Workbench tools to an engineering component by preparing geometry, assigning materials, generating meshes, applying loads, and performing relevant simulations.
Topics covered
Engineering component modelling and preparationMaterial assignment and mesh generationApplication of loads and boundary conditionsExecution of relevant engineering simulationsResult interpretation and validationFinal project documentationPractical outcome
Complete an end-to-end FEA project, interpret simulation results, and present findings in a structured technical report.
Course at a glance
Duration80 Hours
Modules9 modules
ModeLive
CertificationCADD Centre Certified
Live projects1 Live Project
PlacementFirst Job Pakka
Institute credentials
ISO 9001:2015 certified quality education
Lifetime alumni support — doubts cleared even after course completion
Placement assistance
Land Top CAE & CFD Careers
CADD Centre’s ANSYS training bridges the gap to top-tier CAE and CFD jobs. Through industry projects, mock interviews, and dedicated recruitment drives, you land high-paying roles as a simulation engineer in automotive, aerospace, and R&D firms.
₹ 4.5 LPA
Starting CTC
60%
Hiring by -MSMEs
35%
rise -Automotive & EV
Student success stories
From training to career...
Hear it from our graduates.
Learning experience
How you'll learn at CADD Centre.
1
Instructor-led sessions
Classroom and live online with industry practitioners
2
Hands-on lab access
Licensed industry software, full lab hours included
3
Real-world projects
Assignments modelled on actual industry briefs
4
Portfolio development
Build a job-ready portfolio with placement team support
5
Certification & interview prep
Learn skills, build projects, and get hired!
Frequently asked questions
Common questions about this course.
Still have questions?
We're here to help you.
The course focuses on practical ANSYS Workbench workflows and engineering simulation concepts. Combining the training with real-world projects, engineering fundamentals, and a strong understanding of simulation results can help you develop a more meaningful CAE skill set.
Yes. Simulation can be an important part of product development because it allows engineers to evaluate design behaviour and identify potential issues before physical prototypes are produced. This can support more informed design decisions and reduce the need for repeated physical testing.
Yes. ANSYS Workbench is widely relevant to engineering simulation and can be useful for mechanical engineers working with structural analysis, product development, design validation, and performance evaluation. It can complement your CAD and mechanical design skills.
Finite Element Analysis (FEA) is a computer-based method used to predict how a component or structure may respond to different loads and conditions. Engineers use FEA to study factors such as stress, deformation, strain, and structural behaviour before moving to physical prototypes or testing.
Not necessarily. The course can help you build your understanding from the fundamentals and gradually move towards practical simulation workflows. A basic understanding of engineering mechanics and design concepts can be helpful.
Ready to build your career in product design?
Talk to a counsellor, download the full curriculum, or book a free demo class — we'll help you take the right first step.
Free. No obligation. Available Mon–Sat, 10 AM–8 PM.
Proficient in Ansys WorkBench