Finite Element Analysis (FEA) for Mechanical Design
$7000.00
Finite Element Analysis (FEA) for Mechanical Design
From First Principles to Real-World Simulation of Machine Components and Structures
Duration: 10 Days | Format: Classroom (In-Person) | Level: Foundation to Practitioner | Location: Madrid, Spain
Course Dates: Monday 23 November – Friday 4 December 2026 (Two weeks, Monday–Friday, with the weekend of 28–29 November free)
SCI Training and Consultation Center FZE, Sharjah Publishing City Free Zone, United Arab Emirates
Engineering & Technical Training | Industrial Safety | Consultation
Course Introduction
Finite Element Analysis (FEA) has become an indispensable tool in modern mechanical design, allowing engineers to predict how components and assemblies will behave under real-world loading, thermal, and dynamic conditions before a single prototype is built. This ten-day course takes participants from the theoretical foundations of the finite element method through to hands-on, workflow-based practice on realistic mechanical design problems, with extended studio time for software application and a full capstone project.
The course is built around a practical design-verification mindset: understanding what FEA software is doing behind the interface, choosing the right element types and mesh strategy, applying realistic boundary conditions, and — most importantly — critically interpreting results rather than accepting them at face value. Static, modal, thermal, nonlinear, buckling, and fatigue analyses are all covered, supported by worked examples, extended software workshops, and a capstone project.
The course is presented in a vendor-neutral manner so that the principles apply directly to any major commercial or open-source FEA package (e.g. ANSYS, Abaqus, NASTRAN, SolidWorks Simulation), while dedicated software-application sessions allow the syllabus to be tailored to the client's platform of choice. The extended ten-day format allows more in-depth software practice time per topic compared to the standard 5-day course.
Course Objectives
By the end of this course, participants will be able to:
Explain the theoretical basis of the finite element method, including the stiffness (displacement) approach and matrix formulation
Select appropriate element types, mesh density, and mesh quality controls for a given geometry and analysis objective
Apply realistic boundary conditions, contacts, constraints, and loads that reflect actual in-service behaviour
Run and critically evaluate linear static, modal, thermal, and buckling analyses of mechanical components
Identify and manage sources of nonlinearity — material, geometric, and contact — in mechanical design problems
Interpret stress, strain, displacement, and factor-of-safety results using appropriate failure theories
Assess fatigue life and durability of components subjected to cyclic loading
Verify and validate FEA models against hand calculations, test data, and mesh-convergence studies
Apply structured best practices and quality checklists to avoid common simulation errors
Complete an extended, software-based capstone project mirroring a real design-verification workflow
Who Should Attend
This course is designed for engineers and technical professionals who design, analyse, or approve mechanical components and want to build (or formalise) practical competence in finite element simulation, including:
Mechanical, design, and product engineers
Structural and stress analysts
Maintenance, reliability, and asset integrity engineers
R&D and product-development engineers
CAD/CAE engineers moving from drafting into simulation
Engineering supervisors and technical managers who review or approve FEA-based design decisions
A basic background in mechanics of materials/strength of materials is recommended; no prior FEA software experience is required.
Training Methodology
The course combines short theory sessions with extensive guided practice. Each analysis type is introduced conceptually, demonstrated step-by-step, and then applied by participants to a mechanical design problem. The extended ten-day format adds dedicated software-application studio sessions and a second week focused on advanced analysis types and the capstone project. Delivery blends instructor-led presentation, live software demonstration, individual and team workshops, worked case studies, discussion of common pitfalls, and a final capstone project that participants can adapt to their own work. Pre- and post-course assessments help benchmark learning, and all participants receive a full set of course notes, workshop files, and reference checklists.
Venue
This course will be delivered in-person in Madrid, Spain, over two training weeks (Monday 23 November – Friday 4 December 2026, Monday–Friday, with 28–29 November free). Exact venue details will be confirmed upon booking.
Daily Course Outline
DAY 1 | Monday 23 November 2026 — Introduction to FEA & Mechanics of Materials
Introduction to FEA in Mechanical Design
Role of simulation in the modern design and verification process
From physical prototype to digital prototype: benefits, limits, and liabilities of FEA
Overview of the major commercial and open-source FEA platforms
Mechanics of Materials Refresher
Stress, strain, and the generalised Hooke's Law
Material behaviour: elastic, plastic, isotropic vs. anisotropic
Beam, plate, and shell theory essentials relevant to FEA idealisation
DAY 2 | Tuesday 24 November 2026 — The Finite Element Method — Theory
The Finite Element Method — Theory
Discretisation: from continuum to discrete elements and nodes
The stiffness (displacement) method and matrix formulation [K]{u}={F}
Shape functions, degrees of freedom, and element stiffness matrices
Assembly, boundary conditions, and solving the global system
Workshop 1
Hand-calculation of a simple spring/bar system using the stiffness method to build intuition before software is introduced
DAY 3 | Wednesday 25 November 2026 — Element Types and Selection
Element Types
1-D elements: truss and beam elements
2-D elements: plane stress, plane strain, and shell elements
3-D elements: tetrahedral, hexahedral, and higher-order solids
Choosing the right element type for a given geometry and result of interest
Software Workshop
Building and idealising simple mechanical geometries using different element types in the chosen FEA platform
DAY 4 | Thursday 26 November 2026 — Meshing Strategy and Quality
Meshing Strategy and Quality
Mesh generation techniques: free, mapped, and swept meshing
Mesh quality metrics: aspect ratio, skewness, Jacobian
Mesh refinement and local mesh control at fillets, holes, and stress raisers
Mesh convergence studies and how to know when a mesh is "good enough"
Workshop 2 (Part 1)
Build and mesh a bracket geometry, applying quality controls and local refinement
DAY 5 | Friday 27 November 2026 — Boundary Conditions, Loads, and Model Setup
Boundary Conditions and Loads
Supports, symmetry, and constraint modelling
Point loads, pressure, gravity, and remote/distributed loads
Common boundary-condition mistakes and how they distort results
Workshop 2 (Part 2)
Compare coarse vs. refined mesh results on the bracket geometry in a full convergence study
DAY 6 | Monday 30 November 2026 — Linear Static Analysis Setup
Setting Up a Static Structural Analysis
Analysis workflow: geometry → material → mesh → boundary conditions → solve
Contacts and connections between parts: bonded, frictional, and sliding
Units, solver settings, and common set-up errors
Extended Software Practice
Guided practice configuring multi-part assembly contacts and solver settings
DAY 7 | Tuesday 1 December 2026 — Result Interpretation and Failure Theories
Interpreting Results
Von Mises, principal, and shear stress — what each represents and when to use it
Displacement and strain results, and reaction-force checks
Stress concentrations, singularities, and how to avoid misreading peak-stress artefacts
Failure Theories and Design Verification
Maximum shear stress (Tresca) and distortion energy (von Mises) failure theories
Factor of safety calculation and design margin decisions
Verifying FEA results against hand calculations and engineering judgement
Workshop 3
Full static analysis of a loaded shaft/bracket assembly, with stress interpretation and factor-of-safety reporting
DAY 8 | Wednesday 2 December 2026 — Modal and Thermal Analysis
Modal (Vibration) Analysis
Natural frequencies and mode shapes: physical meaning and design relevance
Avoiding resonance in rotating and reciprocating machinery
Introduction to harmonic and random-vibration response
Thermal and Thermal-Structural Analysis
Steady-state and transient heat-transfer fundamentals
Conduction, convection, and radiation boundary conditions
Thermal stress and coupled thermal-structural analysis
DAY 9 | Thursday 3 December 2026 — Nonlinear Analysis and Fatigue
Introduction to Nonlinear Analysis
Sources of nonlinearity: material (plasticity), geometric (large deflection), and contact
When a linear analysis is no longer valid, and how results change
Practical guidance for setting up a first nonlinear run
Workshop 4
Modal analysis of a rotating-equipment bracket, followed by a simple large-deflection nonlinear comparison
Fatigue Analysis (Introduction)
S-N curves, stress-life and strain-life approaches
Mean stress correction and cumulative damage (Miner's rule)
Estimating fatigue life of mechanical components from FEA stress results
DAY 10 | Friday 4 December 2026 — Buckling, Optimisation, Best Practice & Capstone
Buckling and Stability
Linear (eigenvalue) buckling analysis of columns, plates, and thin-walled parts
Critical buckling load and safety-factor considerations in design
Design Optimisation and Simulation-Driven Design
Parametric studies and design-of-experiments basics
Topology and shape optimisation concepts for weight reduction
Verification, Validation, and Best-Practice Checklist
Building a personal FEA quality checklist to avoid common errors
Documenting and presenting simulation results to design review boards
Capstone Workshop and Course Wrap-Up
Team capstone project: full design-verification analysis of a mechanical component, from CAD to final report
Presentation of results, open Q&A, and course review
Certification
Upon successful completion of the course, participants will receive a Certificate of Completion issued by SCI Training and Consultation Center FZE.
