FEA Simulation is the core of what we do here at our Singapore Office at BroadTech Engineering.
Using our integrated FEA Simulation software tools, our in-house FEA engineers based in our Singapore Office have the capabilities to help you Efficiently Validate and optimize your engineering design to ensure maximum Quality, Performance, and Safety.
FEA Simulation can be a Highly Useful Engineering for supporting Superior Critical Design decisions
- What challenges do Pipe Stress Analysis Services companies experience as part of the Finite Element Thermal Analysis process?
- What delays and slows the Product Development process down?
- How do successful Engineering companies Derive the most Benefit from FEM Stress Analysis simulation?
What is FEA Simulation (Finite Element Analysis Simulation)?
Where does FEA Simulation fit in the Development Process?
- Preprocessing is the most time-consuming Phase of the FEM Stress Analysis simulation process, taking up 38% of the total simulation time
- Top Confrontations of preprocessing encountered by FEA Piping Engineering Consultants Involve finding Doubtful geometry, recreating card geometry, and defining assembly contacts
- The top challenges of post-processing encountered by Structural Design Consultants involve the time invested in filtering through Mass amounts of Simulation data
Finite element analysis (FEA) is a simulation analysis method for predicting how a product behaves in real-world conditions which are subjected to physical effects such as
- External loading forces
- Mechanical stress
- Mechanical vibration
- Thermal heat
- Heat transfer
- Fluid flow (eg. Plastic injection molding)
Through our FEA Simulation, we enable you to solve complex structural engineering challenges and allows you to make better informed, quicker engineering design decisions.
Our FEA simulation services are used throughout a diverse range of industry sectors to enable engineers to safely optimize their product designs and reduce the costs of actual testing of physical prototypes.
Regardless of the levels of engineering design challenges that you are trying to investigate & solve, our FEA engineers are able to leverage the power of FEA analysis to get you answers fast and accurately.
Whether you are an engineering firm with an occasional need for a reliable means to validate an engineering design or a Technical expert looking for a 3rd party Finite Element FEA consulting validation of your complex multi-part assembly design where non-linear analysis is involved, we have you covered.
We Help Our Clients Gain Valuable Insights to Optimize and Improve Product Performance, Reliability, and Efficiency.
Key FEA Simulation features
- • Based on all measured data or a combination or operation Data measurements and FEA Analysis Modeling data
- • Straightforward application and reuse of the identified Loadings to the FEA CFD Simulation model
- • Mount Methodology to Allow FEA/FE Structural Consultants to estimate Mounting Loading forces by combining Actual operational vibration Information at each side of the Mounting and mount stiffness data
- • Inverted matrix method can be used as part of the FEA Engineering Services by Integration of operational measurements and transfer functions
Industry Engineering development challenges
- The Suitable technology confirms that Professional FEA Software simulation performed by FEA Consulting Companies can Precisely Model the actual physical environment
- Highly Scalable FEA Simulation Software Tools can be Quickly adjusted to Any Engineering complexity Degree, Professional HPC high-performance computing resources, and a broad range of users’ Technical skill levels
- Integration with Various other 3rd parties FEA Finite Element Analysis Software simulation Modeling Products and Engineering R&D development applications is Crucial for Enabling Structural Engineering Companies Incrementally developing a Highly efficient and effective computer-aided engineering (CAE) solution
1. Shorter Product Development Cycle
2. Complete Structural Analysis Solution
3. 2D/2 Dimensional Simplification
Features & Benefits of FEA Simulation
1. Shorter Product Development Cycle
With Our FEA Simulation solutions, it can play an important part in your engineering design process by helping you to save precious project time and development costs by
- Reducing completely the need for costly fabrication of physical prototypes and its subsequent iterations
- Eliminating the need for manual rework and project schedule delays due to the delivery lead time of components.
Because of the speed & cost-saving benefits, Finite element analysis is often used early in the product development process to effectively show whether a product design will break, Wear out, or work the way it was intended.
2. Complete Structural Analysis Solution
We have a complete range of FEA simulation analysis tools available to help you analyze in detail
- Single loading, Vibration forces, or Transient loading conditions
- Linear and nonlinear behavior of materials, joints, and geometry.
- Simulation of Sudden Drop, impact, and Explosion (using Advanced FEA solver technology Autodyn and LS-DYNA)
If needed, we can customize and automate analysis solutions for your specific structural mechanic’s problems and parameterize them to analyze multiple design scenarios.
For even greater fidelity, our simulation software tools can also be seamlessly integrated to work with other physics analysis tools.
3. 2D Dimensional Simplification
FEA Simulation also offers the 2D/2 Dimensional simplification approximation for Plane Strain, plane Stress, extruded features, or Axisymmetric options.
Our FEA Engineers can help to simplify the modeling of various types of structural beams (such as Straight, Curved, and tapered beams) to optimize their performance in a Simulation Environment.
* For a quick setup and modeling of the simulation analysis, structural members that are created as weldment features in 3D CAD are automatically converted into elements.
Call Us for a Free Consultation
If you are still interested in learning more about our FEA Simulation services and to see what it can do for you, simply call to contact us today at +6581822236 for a no-obligation discussion of your needs.
Our knowledgeable and friendly team will be happy to assist and understand more about your needs and requirements
Alternatively, for quote request, simply email us your technical specifications & requirements to email@example.com
Type of Finite Element Analysis (FEA) Approach
The type of FEA analysis approach used depends on how far you want to push the design.
* As a majority number of parts designed for industrial applications are made of steel, most FEA simulations involve the use of various types of metal in the material input settings.
FEA simulation modeling of metal parts can be carried out by either Linear or Nonlinear stress analysis.
1. Linear stress FEA Simulation analysis
If you want to ensure the component geometry remains in the linear elastic range (whereby the part returns to its original shape when the external load is removed), linear stress analysis methods can be applied, as long as the rotations and displacements are small relative to the geometry.
For such a simulation analysis, achieving a certain Factor of safety (FoS) requirement is a common design goal.
2. Nonlinear Stress Analysis
- Force Loading
- Pressures Exertion
- Thermal Temperatures
- Contact Forces between Contact surfaces between components
Finite Element Modeling
FEA Simulation uses the displacement formulation of the finite element method to calculate component displacements, strains, and stresses when subjected to internal and external loads.
The geometry under analysis is discretized using tetrahedral (3D), triangular (2D), and beam unit elements, and solved by either a direct sparse or iterative simulation solver.
FEA Simulation also provides the 2D simplification assumption for plane stress, plane strain, extruded or axisymmetric options. Our FEA Simulation software tools can use either an h or p adaptive element type, which provided a great advantage to engineers and designers because the adaptive method ensures convergence of the solution.
In order to streamline the model definition for Simulation purposes, FEA Simulation software automatically generates a shell mesh (2D) for the following geometries types:
1. Sheet metal body
FEA Simulation will assign the shell thickness according to the sheet metal thickness reflected in the 3D CAD data provided.
2. Surface body
For the shell meshing, our FEA Simulation offers a powerful Shell Manager tool, which is able to manage multiple shell definitions of your component or multi-part assembly.
This management tool helps to improve the workflow for organizing shells according to various characteristic parameters, such as Shell type, Thickness, or Material and enables for better visualization and verification of shell properties.
Reliable High-Quality Meshing
Automated and intelligent meshing algorithms enable you to reliably obtain optimal meshing on every 3D CAD model. This helps to ensure the generation of a high-quality meshing that is easy to accommodate additional local mesh controls for fine-tuning as needed.
FEA Simulation offers you the flexibility to mesh the 3D CAD model geometry in either
- Tetrahedral (1st and 2nd order),
- Triangular (1st and 2nd order)
- Beam, and truss elements.
- Solid elements are naturally suitable for bulky models.
- Shell element meshing are naturally suitable for modeling thin-walled parts (such as sheet metal components and surface bodies)
- Beam & Truss elements are suitable for modeling of Structural members.
Adaptive Meshing Element
FEA Simulation can use either an h or p adaptive meshing element type, providing a great advantage to designers and engineers, as the adaptive method helps to ensure that the simulation solution converges. Engineers can evaluate the internal mesh elements with Mesh Sectioning Tools to check the quality of the internal meshing and make adjustments to tune mesh input settings before running the simulation.
Local Meshing Control
For greater control during the meshing process, we also offer local mesh control to be defined at Vertices, Edges, Faces, Components, and beams for a more congruent representation of the actual geometry design. This higher meshing accuracy helps to provide more accurate FEA simulation results in a particular region. As a form of quality check on the meshing elements, we use Aspect Ratio Check and Jacobian Points to ensure that the final meshing is done correctly.