Optimised Engineering Limited - Training
Simcenter Femap
Training

Optimised Engineering provides the following standard training courses. We also provide customised courses tailored to individual requirements, and can base the training on models and applications specified by the user. On-site training is available. Please contact us for more details.

Simcenter 3D / NX CAE
Solid Edge Simulation
Bespoke / Other Training
Simcenter FloEFD
Femap Training

Femap 101
Femap 101 introduces the Femap pre and post processor and teaches workflows to enable the user to complete a range of analysis types on a variety of models.

Main topics:

  • Create, import geometry and modify geometry for meshing
  • Create, modify and manage loads and constraints
  • Create and modify meshes
  • Prepare and submit a finite element model for analysis
  • Review results using post‐processing operations​

Prerequisites: A basic knowledge of structures

​Duration: 3-days

Additional Femap Training

  • Dynamic simulation
  • Non-linear
  • Basic thermal
  • Advanced thermal

Bespoke Femap Training

 

​Training tailored to your specific requirement.

 

Contact us for more information.

Simcenter 3D / NX CAE Training

Simcenter 3D Pre/Post Fundamentals

Main topics:

  • Model preparation
  • Mesh generation and manipulation
  • Boundary conditions
  • FEA model checking and solving
  • Post‐processing the results​​

Prerequisites: A basic knowledge of structures

​Duration: 3-days

Simcenter 3D Pre/Post Advanced
 

Main topics:

  • Bolt modelling and preload
  • Connecting meshes
  • Morphing a mesh
  • Defining contact and glue
  • Analysing large assemblies
  • Customising results
  • Nonlinear static analysis​​

Prerequisites: Simcenter 3D Pre/Post Fundamentals or equivalent

Duration 2-days

Advanced Simcenter 3D Training

Advanced training can be delivered on:

Durability

Advanced non-linear

Advanced dynamic analysis

Thermal and flow analysis

Advanced thermal and flow analysis

Motion

Contact us for more information.

Solid Edge Simulation

Training
Solid Edge Simulation training is aimed at designers and engineers and concentrates on teaching best practices and understanding the results.

​​

Main topics:

  • Basic FEA principles
  • Capabilities within Solid Edge
  • Simulation Analysis types (linear static, modal, bucking, thermal and optimisation)
  • Stress analysis theory refresher
  • Model building and preparation
  • Loads and constraints
  • Meshing and mesh convergence
  • Post processing and model checking
  • Understanding the analysis results
  • Student topics

Prerequisites: A basic engineering knowledge

​Duration: 1-day

Bespoke Solid Edge Simulation Training
As well as our standard training course, we can train using customer provided examples

 

Contact us for more information.

Solid Edge Flow / FloEFD

Embedded CFD simulation tool for Solid Edge

Training information to be available soon...

 

Contact us for more information.

Bespoke / Other Training

Advanced or Application Specific Training
Optimised Engineering can provide bespoke training based around customer requirements. Using the analysis software on a day-to-day basis has given us a deep understanding of its use in many projects.

Prerequisites: None

Duration: As required

Basic Principles of Stress and Strain
With FEA systems entering the mainstream, stress analysis is increasingly aimed at the designer or draftsman, increasing the danger of performing analysis without sufficient understanding of the underlying theory. Optimised Engineering has developed a one day course specifically designed as an introduction or refresher to the basic concepts of static systems and stress analysis.

Understanding forces, reactions, equilibrium and free body diagrams

Components of stress (3 normal, 6 shear), strain, poisson's ratio, stress and strain relationship, modulus of elasticity, stress concentration

Beams - basic bending theory, shear and moment diagrams, second moment of area, beam stress

Shafts - the torsion equation, thick and thin cylinders

Pressure Vessels

Complex stress - Mohr's circle, principal stresses, maximum shear stress

Material failure theory - ductile/brittle (Von Mises yield criterion), fatigue

Geometric failure - buckling

Design of mechanical components - keys, pins, shafts

The use of standard texts (e.g. Roarks formulas for Stress and Strain etc.)

Prerequisites: None​

Duration: 1 Day

Contact us for more information.

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