🔬 Ansys FEA & CFD Course — Dwarka Mor, Delhi
Best Ansys Course in Dwarka Mor Delhi
Master Ansys FEA & CFD — the world's leading engineering simulation software — covering Workbench, Meshing, Static Structural, Thermal, Modal/Dynamic Analysis and Ansys Fluent CFD with real engineering project simulations (pressure vessel, connecting rod, heat sink, pipe flow, aerofoil) at MMIIT's expert-led CAE training centre opposite Dwarka Mor Metro, New Delhi.
Course Overview
Duration3 Months
SoftwareAnsys Workbench (Latest)
FEA AnalysisStatic, Thermal, Modal, Dynamic
CFDAnsys Fluent (Included)
Projects5 Real Engineering Simulations
Fee₹25,000 (Instalment Available)
Placement100% Assistance
Rating 4.9/5 (64 reviews)
3Month Programme
FEAStructural + Thermal
CFDAnsys Fluent
ModalDynamic Analysis
5Real Projects
4.9★Student Rating
100%Placement Assistance
About the Programme
Why Learn Ansys FEA & CFD at MMIIT Delhi?
Ansys is the world's #1 engineering simulation software — trusted by over 50,000 companies in 100+ countries for Finite Element Analysis (FEA) and Computational Fluid Dynamics (CFD). In India, Ansys is used in automotive R&D (Tata Motors, Mahindra, Maruti Suzuki), aerospace and defence (ISRO, DRDO, HAL), power equipment (BHEL, Thermax, L&T Power), oil & gas (ONGC, IOCL), and consumer products. The shift from physical prototype-test cycles to virtual simulation-driven design has created strong demand for Ansys-trained CAE (Computer-Aided Engineering) engineers in India — a role that commands significantly higher salaries than conventional design roles.
MMIIT's Ansys course in Dwarka Mor Delhi covers the complete simulation engineering workflow — from Geometry & CAD import through Meshing, Static Structural FEA (von Mises stress, deformation, safety factor), Thermal Analysis (steady-state and transient), Modal Analysis (natural frequencies, mode shapes), Harmonic & Transient Dynamic Analysis, and Ansys Fluent CFD (velocity, pressure, turbulence, heat transfer) — all taught with real engineering project simulations used in actual industry projects.
📞 Call for Free Demo ClassReal Engineering Project Simulations
Every module at MMIIT uses real engineering project files — pressure vessel static analysis, connecting rod fatigue, automotive heat sink thermal simulation, pipe flow CFD, and aerofoil lift/drag analysis. Students build a simulation portfolio directly usable in CAE job interviews and M.Tech thesis work.
FEA + CFD — Complete Simulation
Most Ansys courses cover only FEA or only CFD. MMIIT's programme covers both — Ansys Mechanical (FEA: structural, thermal, modal, dynamic) and Ansys Fluent (CFD: internal flow, external aerodynamics, heat transfer) — making students versatile simulation engineers with a wider job market.
Mesh Independence & Quality Focus
The quality of simulation results depends entirely on mesh quality and independence. MMIIT dedicates a full module to meshing — element types, global and local mesh controls, inflation layers for CFD, mesh quality metrics (skewness, orthogonal quality, aspect ratio), and mesh independence studies — the critical skill most other courses skip.
M.Tech & Research Scholar Support
Ansys is widely used for M.Tech dissertation and PhD research simulations. MMIIT's course specifically helps research scholars set up their thesis simulation models correctly — boundary conditions, mesh independence verification, result validation, and generating publication-quality contour plots and reports from Ansys Workbench.
Ansys FEA & CFD Simulation Workflow
FEA & CFD Simulation Workflow You Will Master
⚙️ Complete Ansys FEA Simulation Pipeline — Taught at MMIIT
Geometry / CAD Import
→
Meshing
→
Material Assignment
→
Boundary Conditions
→
Loads & Forces
→
Solve
→
Results & Post-Process
🎨 Types of Simulation Results You Will Generate in Ansys
Von Mises Stress
Equivalent stress distribution — identifying high-stress regions and comparing against material yield strength
Total Deformation
Maximum displacement of the structure under applied loads — checking deflection limits and structural rigidity
Temperature Distribution
Thermal contour plot showing heat flow and temperature gradient across components — for heat sink and engine thermal analysis
Natural Frequencies & Mode Shapes
Modal analysis results — resonant frequencies and vibration patterns to avoid resonance in rotating machinery
Velocity & Pressure Contour (CFD)
Ansys Fluent results — velocity magnitude contour, pressure distribution, streamlines, and heat transfer coefficient plots
Safety Factor & Fatigue Life
Factor of Safety plot and fatigue life prediction — how many load cycles before failure — critical for automotive and aerospace components
🔬 Analysis Types Covered at MMIIT
Static Structural FEA
- Von Mises stress analysis
- Total and directional deformation
- Contact analysis (bonded, frictional)
- Safety factor and design validation
- Stress concentration at fillets/holes
Thermal Analysis
- Steady-state heat distribution
- Transient thermal (time-based)
- Heat flux and convection BCs
- Temperature contour plots
- Thermal stress coupling
Modal & Dynamic
- Natural frequencies extraction
- Mode shapes visualisation
- Harmonic response analysis
- Transient structural analysis
- Fatigue life prediction
CFD — Ansys Fluent
- Internal pipe/duct flow
- External aerofoil aerodynamics
- Turbulence models (k-ε, k-ω SST)
- Conjugate heat transfer
- Velocity/pressure contour results
Complete Course Curriculum
Ansys Course Syllabus at MMIIT Delhi
FEA Basics → Workbench → Geometry → Meshing → Static Structural → Thermal → Modal/Dynamic → Fluent CFD → Real Projects
M1
FEA Fundamentals & Ansys Workbench Interface
- What is FEA (Finite Element Analysis) — the fundamental concept: dividing a continuous structure into finite elements, solving the stiffness equation [K]{u} = {F} at nodes, reassembling to get the full system response
- Key FEA concepts — nodes, elements, degrees of freedom (DOF), element types (1D bar/beam, 2D plane stress/plane strain/shell, 3D solid tetrahedron/hexahedron), element stiffness matrix, global stiffness assembly
- Discretisation and accuracy — why mesh quality and density determine result accuracy, h-refinement (more elements) vs p-refinement (higher order elements), convergence criteria in FEA
- Ansys product suite overview — Ansys Workbench (unified platform), Ansys Mechanical (FEA), Ansys Fluent (CFD), Ansys CFX, Ansys DesignModeler, Ansys SpaceClaim, Ansys APDL (classic) — understanding the Ansys ecosystem
- Ansys Workbench interface — Project Schematic (drag-drop analysis system setup), Engineering Data (material database), Geometry cell, Model/Setup/Solution/Results cells, Toolbox panel, linked systems for multi-physics
- Engineering Data — material library (Structural Steel, Aluminium Alloy, Cast Iron, Copper, Titanium, HDPE), defining custom materials (density, Young's modulus, Poisson's ratio, thermal conductivity, yield strength), temperature-dependent material properties
- Parameter management — input and output parameters in Workbench (parameterising geometry dimensions, material properties, loads), parameter set table for design studies and sensitivity analysis
- Ansys APDL introduction — basic APDL commands (element types, material definitions, meshing, boundary conditions, solve, post-processing), when APDL is used alongside Workbench in industry
M2
Geometry Creation & CAD Import
- Ansys DesignModeler — DesignModeler interface, 2D sketching tools (lines, circles, arcs, constraints, dimensions), 3D features (Extrude, Revolve, Sweep, Skin/Loft, Thin/Surface, Boolean: Add/Cut/Slice), concept geometry (line bodies for beam models, surface bodies for shell models)
- Ansys SpaceClaim Direct Modeler — SpaceClaim interface for faster geometry creation and import, Pull, Move, Combine, Fill, Extract operations — editing imported CAD geometry efficiently for FEA (removing small features, fillets, holes that create mesh issues)
- CAD import — importing geometry from SolidWorks (.x_t Parasolid, .STEP, .IGES), AutoCAD (.STEP, .IGES, .SAT), CATIA, NX into Ansys Workbench — handling import errors, unit conversion, body type assignment
- Geometry cleanup for FEA — identifying and suppressing or simplifying small features (small holes, chamfers, thin ribs) that would require an unnecessarily fine mesh without contributing to the result accuracy — defeaturing in SpaceClaim/DesignModeler
- Multi-body and assembly geometry — creating multi-body parts (shared topology for conformal meshing at interfaces), importing SolidWorks assemblies into Ansys Workbench, assigning body materials, suppressing bodies for sub-model analysis
- 2D analysis geometry — setting up 2D plane stress and plane strain models (cross-sections of long objects — dams, tunnels, long pressure vessels), axisymmetric geometry for cylindrical components (rotating shafts, pressure vessels, pipes)
- Sheet metal and thin structure geometry — surface body creation for thin sheet metal components, shell element assignment, offset and thickness specification in Ansys Mechanical for shell analysis
- Named Selections — creating Named Selections in DesignModeler/SpaceClaim (faces, edges, vertices, bodies) for efficient boundary condition application in Mechanical — best practice for managing complex FEA models
M3
Meshing in Ansys — Element Types & Mesh Quality
- Mesh fundamentals in Ansys — automatic mesh generation (Patch Conforming Tetrahedra, Patch Independent), default mesh settings, mesh statistics (nodes, elements, element quality histogram)
- Element types in Ansys Mechanical — Tetrahedra (TET4 linear, TET10 quadratic — better accuracy), Hexahedra (HEX8, HEX20), Prism (WEDGE), Pyramid transition elements — when to use each in structural and thermal analysis
- Global mesh controls — Element Size (absolute size in mm), Relevance Center (Fine/Medium/Coarse), Relevance slider (-100 to +100), Smoothing (Low/Medium/High), Transition (Fast/Slow), Span Angle Center (Fine/Medium/Coarse)
- Local mesh controls — Method (Tetrahedra, Hex Dominant, Sweep, MultiZone), Sizing (element size on body/face/edge, number of divisions, bias factor for refinement near stress concentrations), Contact Sizing, Refinement, Inflation
- Inflation layers for CFD — purpose of inflation (resolving boundary layer near walls), First Layer Thickness, Maximum Layers, Growth Rate, Total Thickness — setting up inflation for viscous CFD analysis
- Mesh quality metrics — Aspect Ratio (ideal=1, maximum <5 for structural), Skewness (ideal=0, acceptable <0.85 for FEA, <0.5 for CFD), Orthogonal Quality (ideal=1, acceptable >0.2 for structural), Jacobian Ratio — reading the quality histogram in Ansys
- Mesh independence study — running analysis at coarse, medium, and fine mesh densities, comparing von Mises stress (or velocity for CFD) at a critical location, plotting stress vs element size, identifying the mesh size where results converge — essential validation step before reporting simulation results
- Named Selection-based mesh controls — applying different element sizes to different regions (fine mesh near stress concentration features, coarse mesh away from interest zones), MultiZone meshing for structured hexahedral mesh generation
M4
Ansys Mechanical — Static Structural Analysis
- Static Structural analysis setup — creating a Static Structural analysis system in Workbench Project Schematic, material assignment to bodies, Mechanical window overview (Outline tree, Details, Graphics, Messages panels)
- Supports and Constraints — Fixed Support (all 6 DOF constrained), Frictionless Support (normal DOF constrained — sliding surface), Cylindrical Support (radial/axial/tangential), Displacement (prescribed displacement), Remote Displacement, Elastic Support (spring foundation) — when to use each support type
- Loads — Force (concentrated force at point, face, or edge with magnitude and direction), Pressure (uniform or functional distribution over area — internal pressure in vessels), Bearing Load (radial distribution for pin/shaft contacts), Moment (torque), Thermal Condition, Bolt Pretension, Acceleration (gravity loading)
- Contact definitions — Bonded (surfaces always stay connected — welded joints), No Separation (surfaces stay in contact, can slide — press-fit), Frictionless (sliding contact, no friction), Frictional (sliding with friction coefficient), Rough (no sliding — very high friction) — contact formulation settings (Augmented Lagrange, MPC, Normal Lagrange)
- Solution and convergence — Running the static structural solution, monitoring the solver progress, understanding direct vs iterative solver selection, convergence criteria for nonlinear analysis
- Results — Equivalent (von Mises) Stress, Maximum/Middle/Minimum Principal Stress, Total Deformation, Directional Deformation (X/Y/Z), Equivalent Elastic Strain, Safety Factor (yield criterion, ratio of yield strength to equivalent stress), Contact Pressure, Probe results at specific locations
- Stress concentration study — simulating a plate with a hole under tension, studying the theoretical stress concentration factor (Kt), comparing analytical Kt with FEA result, effect of fillet radius on stress concentration at stepped shaft shoulder
- Real Project — Static FEA of a Pressure Vessel: cylindrical pressure vessel with end caps, internal pressure 10 MPa, check von Mises stress vs allowable (ASME code comparison), identify stress concentration at nozzle junction, redesign fillet radius to reduce peak stress below yield — complete engineering validation workflow
M5
Thermal Analysis — Steady-State & Transient
- Steady-State Thermal analysis setup — Steady-State Thermal system in Workbench, thermal material properties (thermal conductivity, specific heat, density), thermal-structural material database in Engineering Data
- Thermal boundary conditions — Temperature (prescribed temperature at surface, inlet), Heat Flow (total heat input to a body, surface), Heat Flux (heat input per unit area — W/m²), Convection (Newton's Law: Q = hA(T_surface − T_fluid) — convection coefficient h and bulk fluid temperature), Radiation (Stefan-Boltzmann: emissivity and ambient temperature), Internal Heat Generation (volumetric heat source in Watts)
- Results — Temperature contour plot (temperature distribution through the component), Total Heat Flux (magnitude and direction of heat flow vectors), Directional Heat Flux, minimum and maximum temperature values, Thermal Gradient plots
- Transient Thermal analysis — time-dependent thermal simulation, Initial Temperature condition, Transient analysis settings (end time, time step size, auto time stepping), monitoring temperature rise vs time at specific probe locations, thermal time constant concept
- Thermal-Structural coupling — linked Steady-State Thermal → Static Structural system in Workbench, importing temperature distribution from thermal analysis as a load in structural analysis, calculating thermally-induced stresses (thermal expansion, bowing) — essential for heat exchanger, turbine blade, and engine component analysis
- Real Project 1 — Heat Sink Thermal Analysis: aluminium finned heat sink with power component generating 50W of heat, forced air convection (h=25 W/m²K), find maximum junction temperature, compare solid fin vs hollow fin design, optimise fin spacing for minimum thermal resistance
- Real Project 2 — Engine Cylinder Head Transient Thermal: simulate temperature distribution in a cast iron cylinder head under combustion heat flux, engine coolant convection boundary conditions, oil gallery convection — identifying hotspot locations and thermal gradients
- Thermal meshing considerations — boundary layer refinement near convective surfaces, matching thermal and structural mesh for coupled analysis, mesh quality importance in thermal gradient accuracy
M6
Modal, Harmonic & Transient Dynamic Analysis
- Modal Analysis fundamentals — what is a natural frequency, resonance concept (why resonance is dangerous — Tacoma Narrows bridge, fan blade failure), mode shapes and their physical meaning, SDOF vs MDOF systems, Eigenvalue problem [K − ω²M]{φ} = 0
- Modal analysis setup in Ansys — Modal analysis system setup, support conditions for modal analysis (free-free modal for validation, fixed support for operational modal), number of modes to extract (typically 6-12), Block Lanczos solver
- Modal results — natural frequency list (Hz) for first N modes, mode shape animation (Deformation result), participation factors, effective mass ratios — identifying which modes contribute most to response
- Pre-stressed Modal analysis — linking Static Structural → Modal to include the effect of preload (bolt pretension, centrifugal stiffening in spinning components, contact stiffness) on natural frequencies — important for rotating machinery and pressurised components
- Harmonic Response analysis — sinusoidal loading at a range of frequencies, frequency response function (FRF — amplitude vs frequency), finding resonance peaks, phase angle, effect of damping ratio on peak amplitude — used for vibration testing simulation
- Transient Structural analysis — time-domain dynamic simulation with time-varying loads (step function, ramp, sinusoidal, impact/shock), time integration methods (Full, Mode Superposition), time step selection (Nyquist criterion), results animation over time, stress and deformation history plots
- Fatigue Analysis in Ansys — fatigue module setup, S-N curve (stress amplitude vs cycles to failure), mean stress theory (Goodman, Gerber, Soderberg correction), fatigue life (cycles to failure) plot, safety factor for fatigue, cumulative damage (Miner's rule) — real world application to rotating shaft, crank pin, and automotive component fatigue
- Real Project — Automotive Connecting Rod Analysis: Static FEA (compressive gas load and tensile inertia load), Modal Analysis (natural frequencies to ensure no resonance with engine harmonics), Fatigue Analysis (S-N curve, fatigue life prediction under cyclic loading) — complete multi-analysis simulation of an engine component
M7
Ansys Fluent — CFD (Computational Fluid Dynamics)
- CFD fundamentals — governing equations (Navier-Stokes: continuity, momentum, energy equations), discretisation methods (Finite Volume Method in Fluent), pressure-velocity coupling (SIMPLE algorithm), introduction to turbulence (Reynolds-Averaged Navier-Stokes — RANS approach)
- CFD workflow in Ansys Fluent — Geometry preparation (fluid domain extraction, wall definition), Meshing in Fluent Meshing or ICEM CFD (surface mesh, volume mesh, boundary layer inflation), Fluent Setup (General, Models, Materials, Cell Zone Conditions, Boundary Conditions), Solution (Methods, Controls, Monitors, Initialization, Run Calculation), Results (Contours, Vectors, Streamlines, XY Plots, Reports)
- Boundary conditions in Fluent — Velocity Inlet (uniform/profile velocity, turbulence intensity and length scale), Pressure Inlet (stagnation pressure), Pressure Outlet (gauge pressure = 0 for ambient), Wall (no-slip for viscous flow, heat flux or temperature for thermal), Symmetry (half/quarter model), Periodic (fully-developed internal flow), Mass Flow Inlet
- Turbulence models in Ansys Fluent — Laminar flow (Re < 2300 for pipe flow), k-epsilon Standard (general industrial flows — pipe, duct, mixing), k-epsilon Realizable (swirling flows, jets), k-omega SST (adverse pressure gradient — aerofoil boundary layer, automotive external aerodynamics — most widely used), when to use each model
- Solution setup and convergence — Pressure-Based vs Density-Based solver (incompressible vs compressible flow), SIMPLE/SIMPLEC/PISO algorithm, under-relaxation factors, discretisation scheme (First-Order vs Second-Order Upwind), convergence residuals (typical targets: continuity 1e-3, momentum 1e-3, energy 1e-6), monitoring mass flow rate or drag force for convergence
- CFD Post-Processing — Contour plots (velocity magnitude, static pressure, temperature), Vector plots (velocity vectors showing flow direction and recirculation zones), Streamlines (path of fluid particles), Surface Integrals (mass flow rate, heat transfer coefficient), XY plots (velocity profile at cross-section, pressure along a line), Report Definitions for drag and lift coefficients
- Real CFD Project 1 — Internal Pipe Flow: laminar and turbulent flow in a circular pipe, developing velocity profile, comparison with Hagen-Poiseuille analytical solution (laminar), friction factor and pressure drop validation, fully-developed turbulent profile — mesh independence study
- Real CFD Project 2 — External Aerodynamics: 2D aerofoil (NACA 0012 or 4412) at various angles of attack (0°, 5°, 10°, 15°), k-omega SST turbulence model, generating lift coefficient (Cl) and drag coefficient (Cd) vs angle of attack curve, pressure coefficient distribution on aerofoil surface, flow separation visualisation at high AoA
M8
Real Projects, Report Writing & Career Preparation
- Complete Project 1 — Pressure Vessel FEA: internal pressure loading, ASME code stress limits, nozzle junction stress concentration, design optimisation — Static Structural + Fatigue + Safety Factor report
- Complete Project 2 — Connecting Rod Multi-Analysis: Static FEA (gas + inertia load cases), Modal Analysis (resonance check vs engine RPM), Fatigue Life (S-N based, modified Goodman mean stress correction) — automotive component simulation portfolio piece
- Complete Project 3 — Heat Sink Thermal Optimisation: steady-state thermal + conjugate heat transfer in Fluent, fin geometry parametric study (height, spacing, thickness), selecting optimum design for minimum junction temperature
- Complete Project 4 — Pipe Flow CFD: internal turbulent pipe flow (k-epsilon), mesh independence study, friction factor vs Reynolds number validation against Moody chart, pressure drop calculation — CFD portfolio piece
- Complete Project 5 — Aerofoil Aerodynamics CFD: NACA 0012, k-omega SST, Cl and Cd vs AoA polar curve, pressure coefficient distribution, stall angle prediction — publishable-quality CFD result for M.Tech/research portfolio
- FEA/CFD report writing — structure of a professional simulation report (objective, geometry, material, boundary conditions, mesh details, mesh independence study, results with annotated contour plots, validation against analytical/experimental data, conclusions and design recommendations) — reports usable directly in M.Tech thesis and job interviews
- CAE/FEA/CFD interview preparation — top 40 Ansys technical interview questions (element types, mesh quality, contact types, convergence, turbulence model selection, boundary layer, stress results interpretation, safety factor, fatigue), typical CAE engineer assessment test structure at automotive and aerospace companies
- Placement support — resume building for FEA Engineer/CAE Engineer/Simulation Engineer/CFD Engineer roles (highlighting software: Ansys Workbench, Mechanical, Fluent; analysis types; project domains; mesh independence study experience), referrals to automotive R&D companies, aerospace/defence, power equipment, and CAE service companies in Delhi NCR and Pune/Bangalore
📄 Download Full Ansys FEA CFD Course Syllabus & Sample Project Files — free with course enquiry
Ansys Skills You Will Master
Ansys Software Features & Skills Covered
🖥️ Ansys Workbench Interface
📐 DesignModeler & SpaceClaim
🧩 Meshing (Tet/Hex/Inflation)
⚙️ Static Structural FEA
🌡️ Thermal Analysis (SS & Transient)
〰️ Modal & Harmonic Analysis
⚡ Transient Dynamic Analysis
🔩 Contact Analysis (Bonded/Frictional)
💪 Fatigue Analysis
💨 Ansys Fluent CFD
🌊 Turbulence Models (k-ε, k-ω SST)
📊 Results Post-Processing
Career Opportunities
Jobs You Can Get After Ansys FEA CFD Course
⚙️
FEA / Simulation Engineer
₹4–14 LPAPerform structural, thermal, and dynamic FEA simulations for product validation at automotive, aerospace, and industrial equipment companies — the core Ansys job role in India
🔬
CAE Engineer
₹5–16 LPAComputer-Aided Engineering role — using Ansys for design validation, virtual testing, and product optimisation in automotive (Tata, Mahindra, Maruti), aerospace (HAL), and R&D companies
💨
CFD Engineer
₹5–16 LPAComputational Fluid Dynamics specialist using Ansys Fluent — internal flow (HVAC, pipelines), external aerodynamics (automotive, aerospace), and heat transfer applications
🌡️
Thermal Analysis Engineer
₹4–13 LPASpecialise in Ansys thermal FEA and conjugate heat transfer CFD — heat sink design, electronics cooling, power equipment thermal validation, engine thermal management
🚀
Structural Analysis Engineer
₹5–15 LPAStructural integrity analysis using Ansys — pressure vessel compliance (ASME), fatigue life prediction, modal analysis for rotating machinery, seismic analysis for civil structures
🎓
Research Scholar (M.Tech/PhD)
Stipend + Higher StudiesAnsys simulation for M.Tech dissertation and PhD research — thermal, structural, CFD simulations for publications and thesis work at IITs, NITs, and central university labs
Eligibility
Who Should Join Ansys FEA CFD Course?
B.Tech / BE Mechanical Engineers
Mechanical Engineering graduates and final-year students who want to add Ansys FEA/CFD simulation skills to their SolidWorks or AutoCAD knowledge — the most powerful career upgrade for a mechanical engineer targeting R&D and design validation roles.
Aerospace & Automotive Engineering Students
Aerospace and Automobile Engineering students for whom FEA and CFD are core professional tools — structural analysis of aircraft components, aerodynamic analysis of vehicle bodies, and thermal analysis of engine systems all require Ansys expertise.
M.Tech / PhD Research Scholars
Postgraduate students and research scholars who need Ansys for M.Tech dissertation or PhD thesis simulations — structural analysis, thermal analysis, or CFD studies for publishing results in journals and conferences. MMIIT provides specific guidance on setting up academically rigorous simulation studies.
Design Engineers Adding CAE Skills
Working mechanical design engineers who use SolidWorks or AutoCAD for 3D modelling and want to add FEA simulation capability — moving from designing parts to virtually validating them before physical prototyping, eliminating costly redesign cycles.
Civil & Chemical Engineers
Civil engineers who need structural FEA for building elements, bridges, and pressure structures (Ansys Mechanical), and Chemical engineers who need CFD for reactor flow, heat exchanger performance, and pipeline flow analysis (Ansys Fluent) — Ansys skills extend significantly across engineering disciplines.
CAE Service Company Aspirants
Engineers targeting roles at CAE service companies (TATA Technologies, Altair, Siemens SISW, Infosys Engineering Services, HCL Technologies, Wipro) that provide Ansys-based simulation services to global automotive, aerospace, and industrial clients — these companies are major hirers of trained CAE engineers in India.
Student Reviews
What Our Students Say
★★★★★
"I am a Mechanical Engineering graduate from Delhi and joined MMIIT's Ansys course to target CAE roles. The Static Structural module was the most impactful — simulating a real pressure vessel (applying internal pressure, checking von Mises stress, finding stress concentration at the nozzle junction, redesigning the fillet radius to reduce peak stress below yield) taught me to think like a design engineer. The meshing module was excellent — mesh independence study, inflation layers, and skewness/orthogonality quality checks are all skills I use in my daily work now. I placed as a CAE Engineer at an automotive Tier-1 company in Pune at ₹6 LPA. Best Ansys training near Dwarka Mor Metro Delhi."
★★★★★
"I was pursuing my M.Tech in Thermal Engineering and needed Ansys for my dissertation on heat sink optimisation. MMIIT's Ansys course was exactly right — the Thermal Analysis module covered steady-state, transient, convection BCs, and the conjugate heat transfer setup in Ansys Fluent which I needed for my research. The Ansys Fluent CFD module showed me how to set up velocity inlet, convection wall, k-epsilon turbulence model, and convergence monitoring for my forced convection simulation. I completed my M.Tech dissertation simulation in 6 weeks and my guide was extremely impressed with the quality of the temperature contour plots and CFD velocity field results. MMIIT's Ansys course is excellent for research scholars."
★★★★★
"I was working as a design engineer using SolidWorks for 2 years and wanted to add FEA simulation skills. MMIIT's Ansys course transformed how I approach design — instead of relying on rules of thumb for wall thickness and fillet radius, I now run a quick Ansys static analysis to check if the component meets the safety factor requirement before finalising the design. The Modal Analysis module was completely new to me and fascinating — I could actually see why the fan blade in a turbomachinery project was cracking (resonance with the 5th engine harmonic). The connecting rod multi-analysis project (Static + Modal + Fatigue) was the most comprehensive engineering exercise I have ever done. Excellent Ansys training at MMIIT Dwarka Mor."
FAQs
Frequently Asked Questions
Have more questions? Call us at +91-7838180031 or visit MMIIT at Dwarka Mor Metro, Delhi. Free counselling & demo class Mon–Sat, 9AM–8PM.
MMIIT's Ansys course is 3 months long, covering FEA Fundamentals, Ansys Workbench Interface, Engineering Data, Geometry (DesignModeler, SpaceClaim, CAD import), Meshing (element types, global/local controls, inflation, quality metrics, mesh independence study), Static Structural Analysis (supports, loads, contact, von Mises stress, deformation, safety factor), Thermal Analysis (steady-state, transient, convection, heat flux, thermal contours), Modal Analysis (natural frequencies, mode shapes), Harmonic & Transient Dynamic Analysis, Fatigue Analysis, and Ansys Fluent CFD (boundary conditions, turbulence models, convergence, post-processing) with 5 real engineering project simulations and career preparation. Morning, evening, and weekend batches at Dwarka Mor.
Ansys is the world's #1 engineering simulation software — used for FEA (Finite Element Analysis) and CFD (Computational Fluid Dynamics) to virtually test structural strength, thermal performance, vibration frequencies, and fluid flow behaviour before physical prototyping. Used by Tata Motors, Mahindra, ISRO, DRDO, HAL, BHEL, ONGC, and thousands of global companies. Ansys-trained CAE engineers earn ₹4–18 LPA — significantly more than conventional design roles. For M.Tech and research scholars, Ansys is essential for thesis simulation work.
FEA (Finite Element Analysis) via Ansys Mechanical simulates structural, thermal, and dynamic behaviour of solid components — stress, deformation, temperature distribution, vibration frequencies, and fatigue life in parts made of steel, aluminium, composites. CFD (Computational Fluid Dynamics) via Ansys Fluent simulates fluid flow, heat transfer in fluids, and aerodynamics — velocity, pressure, turbulence, drag, lift, and heat transfer in pipes, ducts, heat exchangers, and aerodynamic bodies. MMIIT's course covers both FEA and CFD — giving students a comprehensive simulation engineering foundation.
Suitable for B.Tech/BE in Mechanical, Aerospace, Automotive, Civil, Chemical, or Industrial Engineering (3rd/4th year and graduates), M.Tech students in Design, Thermal, Manufacturing, or Aerospace streams, PhD research scholars needing Ansys for thesis simulations, working design engineers wanting to add CAE skills, and CAE service company aspirants. Basic engineering mechanics knowledge (stress, strain, force, heat transfer) is helpful. No prior Ansys experience required — MMIIT starts from FEA fundamentals.
MMIIT's Ansys FEA and CFD course fee is approximately ₹25,000 for the full 3-month programme, with monthly instalment options. Fee includes all Ansys training, live software practice, real engineering project simulation files, analysis report templates, mesh independence study exercises, interview preparation, and placement support. Call +91-7838180031 for latest batch details.
Yes — Module 7 is a dedicated Ansys Fluent CFD module. Students learn CFD fundamentals, Ansys Fluent interface, geometry preparation for CFD, boundary layer meshing with inflation, boundary conditions (velocity inlet, pressure outlet, wall, symmetry), turbulence models (laminar, k-epsilon, k-omega SST — when to use each), solver settings and convergence monitoring, and post-processing (velocity contour, pressure contour, streamlines). Two real CFD projects are completed — internal pipe flow (validation vs analytical solution) and external aerofoil aerodynamics (lift/drag coefficient polar curve).
FEA Engineer, Simulation Engineer, CAE (Computer-Aided Engineering) Engineer, Structural Analysis Engineer, CFD Engineer, Thermal Analysis Engineer, and Product Validation Engineer at automotive R&D companies (Tata, Mahindra, Maruti, Bosch, Delphi), aerospace and defence (HAL, DRDO, ISRO, BEL), power equipment (BHEL, Thermax, L&T Power), CAE service companies (TATA Technologies, Altair, Siemens, HCL Engineering) — salaries ₹4–18 LPA depending on domain and experience.
Yes. MMIIT offers both offline classroom Ansys training at Dwarka Mor and live online/hybrid classes with the same curriculum, live Ansys software practice, real engineering project simulation files, and placement support. Call +91-7838180031 to check online batch availability.
MMIIT is at Plot No. 65, Opposite Gate No. 2, Dwarka Mor Metro Station, Uttam Nagar, New Delhi – 110059. Just 2 minutes walk from Dwarka Mor Metro Gate 2 (Blue Line) — easily reachable from Dwarka, Uttam Nagar, Janakpuri, Vikaspuri, Rajouri Garden, Karol Bagh, and across Delhi NCR.
No — SolidWorks is not mandatory before the Ansys course. Ansys Workbench has its own geometry creation tools — DesignModeler and SpaceClaim — which are taught in Module 2. Students learn to create 3D geometry for FEA directly in Ansys. However, if you already have SolidWorks skills, Module 2 shows you how to import SolidWorks parts and assemblies (.x_t, .STEP) into Ansys Workbench for simulation — which is the standard industrial workflow. MMIIT also offers a SolidWorks course that pairs well with the Ansys course for a complete Design + Simulation skillset.
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