Développez vos compétences, boostez vos connaissances et gagnez en efficacité grâce aux formations dédiées de SoftPower.
Les ingénieurs sont appelés à relever les plus grands défis technologiques pour assurer la transition écologique, le développement durable, la transformation digitale, l’électrification, le développement de l’énergie renouvelable et la gestion des données, de plus en plus abondantes. La simulation numérique et l’intelligence artificielle sont des outils formidables et indispensables pour aider les ingénieurs à réaliser des solutions innovantes pour les problématiques d’aujourd’hui et de demain.
Compte-tenu de l’évolution très rapide de la technologie de simulation et de l’intelligence artificielle, le besoin de formation est de plus en plus pressant.
SoftPower propose un parcours formation unique adapté à vos besoins et à vos objectifs de montée en compétences. Les différents modules de formation proposés sont présentés sur la liste non-exhaustive suivante.
Chaque demande de formation fera l’objet d’un entretien préalable avec un expert SoftPower afin de déterminer avec le participant le parcours formation nécessaire. Les formations seront réalisées en mode hybride combinant des sessions en présentiel et en visioconférence.
Contactez-nous pour évaluer ensemble vos besoins de formation
Conception Assistée par Ordinateur (CAO) avec DesignCenter NX et SolidEdge
| Créer votre CAO avec NX |
NX01
Fondamentaux du Design et Interface
| Interface Utilisateur : Designcenter |
| Création de Pièces : Créer une pièce de base |
| Organisation des modèles de pièces |
| Modélisation Cylindrique |
| Détails de finition |
| Analyse et interrogation |
| Intention de Conception |
| Analyse du Design |
NX02
Modélisation Avancée et Synchrone
| Introduction à l’esquisse |
| Entités lignes, rectangles, cercles, courbes, etc. |
| Méthodes de dessin d’esquisse |
| Plan de dessin |
| Relations d’esquisse |
| Coter une esquisse |
| Maîtrise de l’organisation des fonctions |
NX03
Tôlerie (Sheet Metal Design)
| Définir la forme de base d’une pièce en tôlerie |
| Pliage et Découpes |
| Fonctions de Déformation |
| Convertir des modèles solides en tôlerie. |
| Préparer une pièce pour la fabrication. |
| Surfaçage et Formes Libres |
NX04
Assemblages et Gestion de Données
| Analyse d’Assemblages |
| Bottom-Up: Construction d’assemblages |
| Top-Down : Modélisation de haut en bas. |
| Mise en Plan : Créer un dessin de pièce de base |
| Gestion des Assemblages |
| Liens de Géométrie |
| Créer des composants réutilisables. |
| Configuration et Séquençage |
| Data : Traducteurs de données. |
NX05
Surfaçage et Formes Libres
| Processus de modélisation de Surfaçage |
| Géométrie de Construction avec des courbes 3D |
| Créer et analyser des courbes de haute qualité. |
| Surfaces maillées / caractéristiques primaires |
| Construire des surfaces sculptées. |
| Construire avec une géométrie exacte. |
| Transition géométrique et Solides |
| Prototypage rapide / rétro-ingénierie. |
Créer votre CAO avec Solid Edge
SE01
Introduction
| Portefeuille Sold Edge |
| Solid Edge Mechanical Design |
| Initiation à l’interface |
| Options d’affichage et accès aux fichiers |
| Communité et forum Solid Edge |
SE02
Création d’une esquisse 2D
| Introduction à l’esquisse |
| Entités lignes, rectangles, cercles, courbes, etc. |
| Méthodes de dessin d’esquisse |
| Plan de dessin |
| Relations d’esquisse |
| Coter une esquisse |
| Maîtrise de l’organisation des fonctions |
SE03
Création d’un volume 3D
| Méthodes de conception volumique |
| Volume par extrusion et révolution |
| Fonctions congé, chanfrein, perçage |
| L’arborescence d’une pièce |
| Gestion de l’arborescence d’une pièce |
| Analyse de sa conception (masse et centre de gravité) |
| Vérification de sa conception (masse et CdG) |
SE04
Fonctions avancées et méthodologie
| Fonctions répétition et symétrie |
| Création de formes complexes |
| Création d’un assemblage |
| Gestion de l’arborescence |
| Création de vues |
| Technique de cotation |
| Mise en plan |
| Gestion des grands assemblages |
| Gestion des révisions de document |
Fundamental Knowledge in Computational Science
TH01
Introduction to Finite Element Analysis
| Space discretization by FEA |
| Linear and nonlinear problems |
| Static, dynamic and transient loading |
| Implicit & explicit time discretization |
| Stress and strain definition |
| Rigid bodies |
| Boundary conditions |
| Load cases |
| Material properties |
| Connections |
| Contact between parts |
| Meshing density and FEA quality |
| Unit system consistency |
| Post-processing and model check-up |
TH02
Nonlinear Analysis of Structures
| Linear vs. Nonlinear Analysis |
| Types of nonlinearity |
| Stress & strain definition in large deformation |
| Nonlinear materials |
| Nonlinear boundary conditions & loading |
| Nonlinear Analysis Techniques |
| Contact treatment |
| Applications of Nonlinear Analysis |
TH03
Alternative Solutions to Classical FEA
| High ordered elements & Meshless methods |
| Smoothed- Particle Hydrodynamics (SPH) |
| Discrete Element Method (DEM) |
| Finite Volume Method (FVM) |
| Lattice boltzmann method (LBM) |
| Modal Analysis |
| Transient Analysis |
| Buckling analysis |
| Spectral analysis |
TH04
Composite Materials
| Different kinds of composites materials |
| Micro-, meso- and macroscopic descriptions |
| Mechanical behavior of constituents |
| Thermoplastic and thermosetting resins |
| Glass fibers, carbon, kevlar |
| Fabrics, fibers et rubans |
| Overview of composite manufacturing methods |
| From layer to laminate |
| Expert rules on stacking |
| Failure criteria |
| Interlaminar stresses, shearing, delamination |
| Transposition of metallic parts to composites |
| Case of ‘sandwich’ structures |
TH05
Fundamentals in Structural Analysis
| Crashworthiness |
| Dummies and Safety models |
| Fatigue Analysis |
| Modal Analysis |
| NVH analysis |
| Multibody Motion Analysis |
| Squeak and rattle |
TH06
Fundamentals in optimization
| optimization formulation |
| Mathematical Background |
| Global & local optimization |
| Formulation of the optimization problem |
| Optimzation Algorithms |
| Optimization with constraints |
| Linear and nonlinear optimization |
| optimization strategies |
| Disciplines in structural optimization |
| Homogenization of porous material behavior |
| Continued and discontinued optimization |
| Design of Experiments |
| Robust design |
TH07
Introduction to realibility analysis
| General Concepts of Reliability |
| Mathematical model of reliabilty |
| Reliability laws |
| Maintainability of the reliable systems |
| Operational safety analysis methods |
| Failure trees |
| Transition state models |
TH08
Introduction to Computational Fluid Dynamics
| CFD backgrounds |
| Governing equations |
| Lagrangian & Eulerian descriptions |
| Newtonian fluids and Navier’s Stokes equations |
| Compressible Newtonian Fluids |
| Finite Volumes and Finites difference Methods |
| Unstructured mesh |
| Turbulence modeling (DNS, LES & RANS) |
TH09
Introduction to Artificial Intelligence & DA
| What is Artificial Intelligence? |
| Historical overview |
| Moderne AI |
| Definitions & vocabulary |
| Machine Learning vs. Deep Learning |
| Data Science |
| Intersection of AI & DA |
| Generative AI & Large Language Models (LLM) |
| Artificial Intelligence in Engineering |
Pre- & post-processing Tools
PP01
HyperMesh introduction
| Getting started with HyperMesh |
| Opening and saving files |
| Working with panels |
| Organizing a model |
| Controlling the display |
| Model preparation with HyperMesh |
| Geometry in HyperMesh |
| HyperMesh geometry terminology |
| Geometry creation and editing |
| Importing CAD geometry |
| Geometry cleanup |
| Geometry FAQ’s |
Introduction to Meshing
| – How to start meshing |
| – Meshing techniques |
| – Meshing in critical areas |
| – Mesh display options |
| – Mesh density solution convergence |
PP02
Meshing with HyperMesh
1D Meshing with HyperMesh
| When to use 1D elements |
| – Special features of Beam/Bar elements |
| – Rigid elements |
| – Fasteners |
| – 1D element creation |
| – Connectors in HyperMesh |
2D Meshing with HyperMesh
| – Element types |
| – Understanding mesh flow |
| – Effect of biasing in critical regions |
| – Geometry associative mesh |
| – Common mesh errors and best practices |
| – Creating 2D elements in HyperMesh |
| – AutoMeshing |
| – Meshing without surfaces |
| – 2D mesh in curved surfaces |
| – QI mesh creation |
| – Batch meshing |
| – Meshing a model using Shrink Wrap |
3D Meshing with HyperMesh
| – Element types |
| – Tetra meshing techniques |
| – Hexa meshing |
| – Common mesh errors and best practices |
| – Creating 3D elements in HyperMesh |
| – Tetrameshing |
| – Creating a Hex-Penta mesh using surfaces |
| Creating Hexa mesh using solid map functions |
| – Using the TetraMesh Process Manager |
Element Quality and Checks
| – Compatibility and Mechanisms |
| – General Element Quality Checks |
| – 2D quality checks |
| – 3D quality checks |
| – Mesh check tools in HyperMesh |
PP03
Model preparation with HyperMesh
Defining model properties
| – Choosing solver profile |
| – Workflow |
| – Creating materials |
| – Creating element properties |
Defining boundary conditions and loads
| – Understanding load collectors and load steps |
| – Concentrated load |
| – Force on line or edge |
| – Traction and pressure |
| – Distributed load |
| – Bending moments and torque |
| – Temperature loading |
| – Gravity loading |
| – Centrifugal load |
| – Understanding AUTOSPC |
Assembly
| – Creating Connectors |
| – Creating Area Connectors |
| – Creating Bolt Connectors |
| – Part Replacement Through Connectors |
| – Model Build and Assembly |
| – Multi-Component Replacement |
PP04
Post-processing HyperView/Graph
Desktop Environment
| – HyperWorksDesktop Integration |
| – Getting Started |
| – Graphical User Interface |
| – Page and Window Controls |
| – Session Browser |
| – Files Management |
| – HyperWorksDesktop Keyboard And Mouse |
| – HyperWorksDesktop Applications |
Animation and View Controls
| – Loading Model Files |
| – Using the Animation Controls |
| – Controlling the Model View |
| – Browsers and Entity Attributes |
| – Masking Elements |
| – Creating and Using Sets |
| – User Defined Coordinate Systems |
| – Graphical Manipulators |
| – Symmetry and Axisymmetry |
Plotting Basics
| – HyperGraph2D Introduction |
| – HyperGraph2D -GUI |
| – Plotting XY Data |
| – Evaluating Curve Data and Curve Referencing |
| – Changing Curve Display Attributes |
| – Curve Filtering |
PP05
SimLab introduction
Getting started with SimLab
| – SimLab installation |
| – Initial settings |
| – Preferences set-up |
| – Graphical User Interface |
Importing CAD and FEM
| – Reading files |
| – CAD geometry |
| – Model structure |
| – Entities |
| – Groups |
Introduction to Meshing
| – Mesh fundamentals |
| – Mesh controls |
| – Preserve entities |
| – Mesh pattern |
| – Mesh specification |
Geometry in SimLab
| – Geometry ribbon |
| – Features ribbon |
| – Assembly ribbon |
| – FEM ribbon |
Cleanup and repair
| – Local remeshing |
| – Topology verification |
| – Topology repair |
| – Manual cleanup |
| – Quality cleanup |
Working with connections
| – Connectors |
| – 1D bolts (NVH bolts) |
| – 3D bolts (Hex bolts) |
| – Contacts |
| – Welds |
Defining boundary conditions and loads
| – Loads & constraints |
| – Tools |
| – Material and properties |
| – Export solver deck |
Post-processing
| – Import/export |
| – Animation |
| – View results |
| – Query results |
| – Tools |
PP06
Advanced Topics in post-processing
| – Result Presentation |
| – Report Templates |
| – HyperWorksTools -HyperView Player |
| – HyperWorksTools -HvTrans |
| – HyperWorksTools -HgTrans |
PP07
Crashworthiness post-processing
| – Measures |
| – Section Cuts |
| – Vector Plots |
| – Tracking System |
| – Tracing |
| – Exploded View |
| – Synchronizing Data and Windows |
| – Overlaying Images and Videos |
| – Exporting a Deformed Shape |
| – Crash Tools for Plotting and Animation |
PP08
Strength Analysis
| – Strength Analysis –Results |
| – Contour Plots |
| – TensorPlots |
| – Querying Results |
| – Annotating Model Results |
| – HyperWorksResults Math |
| – Derived Load Cases |
| – Free Body Diagrams (FBD) |
PP09
Modal & Frequency Response
| – Viewing Deformed Shapes |
| – Contour Plots of Complex Results |
| – Creating Measure of Contour vs. Angle |
| – Creating Complex Plots |
| – Strain Energy Summation using Result Math |
| – NVH Post Processing Utilities |
| – Waterfall Plots |
PP10
HyperMesh with other solvers
| – Dealing with ABAQUS files |
| – Dealing with ANSYS files |
| – Dealing with LsDyna files |
PP11
HyperMesh for CFD solvers
| – Introduction to HyperMesh CFD |
| – Meshing for CFD computation |
| – Other tools in HyperMesh for CFD solvers |
SimCenter Solvers
S01
SimSolid user interface
| – User Interface |
| – Personalization of the user interface |
| – Project tree |
| – Workbench toolbars |
| – Bookmark browser |
| – Interface Synchronization |
| – Specifying units and type of analysis |
Processing Design Geometry
| – Geometry import, Consideration, Facet Settings |
| – Geometry imports |
| – Geometry overlap check on model import |
| – Assembly manipulation |
| – Exporting individual part geometry files |
| – Visualization styles & Adjusting visualization |
| – Hide parts of different material |
| – Suppressing and deleting parts |
Connections
| – The challenge in creating connections |
| – SimSolid Robust Connections |
| – Connections & Contact Conditions |
| – Connections Workbench and Toolbar |
| – Automatically create connections |
| – Measure Assembly Gaps Using Ray Probe |
| – Manually create connections |
| – Review, Edit and Check Part Connections |
| – Show Disconnected groupsof parts |
| – Contact conditions a |
| – Weld connections, Spot, Laser, Seam welds |
| – Connectors (Virtual, Bolts) |
| – Check for rigid body motion |
| – Typical connection problems |
Structural Analysis with SimSolid
| – Modal Analysis |
| – Structural Linear Analysis |
| – Post-Processing |
| – Design Studies |
S02
Inspire
| – Altair Inspire Introduction |
| – Model Setup |
| – Analysis |
| – Connections |
| – Geometry Creation and Model Simplification |
| – Topology Optimization |
| – PolyNURBS |
| – 2.5D sketching |
| – Topography Optimization |
| – Gauge Optimization |
| – Fastener Optimization |
| – Lattice Optimization |
| – Inspire Motion Introduction |
| – Inspire Manufacture Introduction |
S03
OptiStruct
| – Introduction to OptiStruct |
| – Linear static analysis |
| – Basic dynamic analysis |
| – Advanced dynamic analysis |
| – Nonlinear static analysis |
| – Thermal analysis |
| – Introduction to optimization methods |
| – Thermomechanical analysis |
| – Coupling with other solvers |
| – Model reduction techniques |
S04
MotionSolve
| – Multibody Problems and Solution Methods |
| – Creating Bodies & Free Body Simulation |
| – Points, Expressions, & Primitive Graphics |
| – Initial Conditions, Markers, & Outputs |
| – Joints & Motions |
| -Redundant, Higher Pair Constraints |
| – Forces & Torques |
| – CAD Import & Curves |
| – Contact for MotionSolve |
| – Introduction to Flexible Bodies |
| – Advanced Modeling, Tips, & Recommendations |
| – Introduction to Multibody Optimization |
S05
S06
Thermomechanical Analysis
| – FEA introduction |
| – Relevant information |
| – Introduction to OptiStruct |
| – Thermal analysis |
| – Coupled analysis with OptiStruct & Acusolve |
| – Factor of safety |
| – Weld fatigue |
S07
Altair CFD (AcuSolve, ultraFluidx, nanoFluidx)
| – Introduction to Altair CFD |
| – Altair CFD solvers |
| – Navier-Stockes based solver AcuSolve |
| – Smoothed-particle Hydrodynamic (SPH) Solver |
| – Lattice Boltzmann Method (LBM) Solver |
| – CFD post-processing |
S08
CFD with StarCCM+
| StarCCM+ terminology & interface |
| Geometry prepration |
| Mesh import, choice of physical model & set-up |
| Meshing with StarCCM+ |
| Surface wrapper usage |
| Pre- & post-processing |
| Thermal analysis with StarCCM+ |
S09
RADIOSS
| – Introduction to RADIOSS |
| – The explicit method |
| – Element formulations |
| – Material models |
| – Interface modeling |
| – Kinematic conditions |
| – Load definitions |
| – Time step definition and control |
| – Helpful tools |
| – How to check a simulation run |
| – Capstone projects |
| – Best practices |
S10
EMAG Radio Frequency – Feko
| – Using Feko |
| – The Workplan in CADFEKO |
| – EMC Example |
| – Antenna Coupling Example |
| – Aperture Coupled Microstrip Patch Antenna |
| – The FEM/MOM hybrid technique |
| – Non-Radiating Networks |
| – Introduction to the Optimizer |
| – EMC – Overview (Theory) |
| – Advanced Antenna Coupling Example |
| – Antenna placement with MoM/PO method |
| – Antenna Placement using Equivalent Sources |
| – Antenna Coupling using Equivalent Sources |
| – Offset Reflector Antenna |
| – Electrically Huge Example |
| – Antenna placement example |
| – Cable Modelling, |
| -MTL and combined MoM/MTL Methods |
S11
EMAG low Frequency- Flux
| – Introduction do Flux |
| – Importing a geometry and meshing |
| – Physic magnetic |
| – Physic electric |
| – Physic thermal |
| – Physic magneto-thermal |
| – Solving and postprocessing |
| – Coupling Flux with Compose |
| – Coupling Flux with Activate |
| – Coupling Flux with Acusolve |
| – Vibroacoustic coupling |
| – Iron losses |
| – Coupling with HyperStudy |
S12
Discrete Element Method (Altair EDEM)
| – What is DEM? |
| – DEM applications |
| – EDEM software |
| – EDEM Analyst |
| – EDEM contact models |
| – EDEM Calibration |
Advanced Topics
– Compose introduction
– OML Basics
– Plotting and Visualization
– Application domains
– Best practices
– HyperWorks applications
– Scripting programming languages
– UI control
AD02
Introduction & Environment
Basic Blocks & Superblocks
OML (Open Matrix Language) in Activate
Specialized Applications
Custom Blocks & ExecBlocks
Physical Component Modeling
Co-simulation & FMI
Optimization
– Signal-based or Physical block diagrams
AD03
Optimization with OptiStruct
| – Introduction to optmisation problems |
| – Structural optimization & design process |
| -optimization in Altair OptiStruct |
| – Equations, variables & solvers |
| – Interface in HyperMesh |
| – Topological optimization |
| – Topographic optimization |
| – Shape optimization |
| – Morphing |
| – Advanced optimization topics |
| – optimization of composite materials |
AD04
Design of Experiments (HyperStudy)
| – Introduction to HyperStudy |
| – Setup a study |
| – DOE |
| – Response surface modelling (Fit) |
| – Optimization |
| – Stochastics |
| – Application – capstone project |
AD04
Artificial Intelligence for Engineers
| Fundamentals of AI and Data processing |
| Model reduction by romAI |
| Learning from simulation models by physicsAI |
| Signal processing with ML by signalAI |
| Altair RapidMiner for AI |