India's only ANSYS course where every simulation is validated against Roark's, Peterson's & Shigley's — the same references your seniors use in industry.
Every problem in this course starts with a hand calculation — from Roark's Formulas, Peterson's Stress Concentration Factors, or Shigley's Mechanical Engineering Design.
You run the ANSYS simulation after you know the answer. This means you understand every result, every mesh decision, every boundary condition choice.
Target: less than 5% error between your hand calculation and FEA result. That's the standard real industry engineers are held to.
This is not a software tutorial. This is engineering education with simulation as the tool.
Early-bird pricing available for a limited time. Batch starts soon — seats are capped at 30.
For complete beginners — no prior ANSYS experience needed. Master the full workflow from geometry to results.
For engineers who know the basics but want to build real confidence with validated, industry-standard problems.
Level 1 + Level 2 together. The full 12-week journey from absolute beginner to confident FEA engineer who validates every result.
Interface overview, project schematic, file management
Assigning materials, custom material creation, property understanding
Importing CAD, geometry cleanup, Named Selections
Tet vs Hex, mesh convergence study, quality checks
Fixed, frictionless, remote force — correct application method
Cantilever beams, simply supported beam, thin cylinder, shaft torsion
Natural frequency, mode shapes, cantilever beam validation
Steady state thermal, heat flux, coupled thermal-structural
Linear buckling, Euler formula vs ANSYS, pinned/fixed/free columns
Bonded, frictional, Hertz contact, pin-in-hole, interference fit
Holes, notches, fillets, grooves, stepped shafts — chart vs FEA
Cantilever, SS, fixed-fixed, propped cantilever — all Roark's cases
Winkler-Bach theory, neutral axis shift, inner vs outer fiber stress
Thin wall, thick wall (Lame's), end caps, external pressure
Parametric study, circular & rectangular plates, DesignXplorer intro
Non-circular torsion, bi-metallic strip, turbine disc stress
Every problem begins with a hand calculation from Roark's, Peterson's, or Shigley's. You know the expected answer before running ANSYS — just like real industry practice.
We don't just show you pretty stress contours. We compare FEA results with analytical solutions and explain every deviation. That's real engineering confidence.
Crane hooks, pressure vessels, rotating discs, curved beams — 94 problems directly relevant to automotive, aerospace, and manufacturing industries.
Every session is live with Q&A. When you're stuck on a boundary condition or confused about a result, you get an answer in real time — not a forum post.
Every problem comes with a structured problem card — problem statement, hand calculation steps, ANSYS setup guide, and expected result. Portfolio-ready from day one.
By the end, you can explain mesh convergence, justify boundary conditions, and compare FEA with theory. Exactly what senior engineers ask in technical interviews.
Mechanical engineer with a decade of hands-on experience in SolidWorks, ANSYS, AutoCAD, NX, CATIA, and 3DEXPERIENCE. Background in DFM software testing at HCL and co-author of a CAD engineering textbook. Currently building India's most rigorous FEA validation curriculum — where every simulation result is checked against Roark's, Peterson's, and Shigley's before it's called correct.
One complete problem. Hand calculation using Winkler-Bach theory → ANSYS setup → result validation. See the CADSeekho methodology live before you commit to the full course.
📅 Date to be announced — Register to get notified first
Every engineer can run a simulation. Only the ones who can validate it get hired, trusted, and promoted. This is the course that makes the difference.