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ENGINEERING ANALYSIS Structural, failure & multiphysics analysis

Turn simulation into an engineering decision.

Static, dynamic, nonlinear and multiphysics analysis, including fatigue, crack growth, thermal stress and fluid–structure interaction. The profile lists 15 networked CAE workstations and six simulation software platforms.

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Technical highlights

The capability, in detail.

Reported capabilities and figures from the supplied technical profile, with their application context.

15

Networked CAE workstations

High-performance computational platform listed in the profile.

6

Listed software platforms

Abaqus, Ansys, Ansys Fluent, Ansys LS-DYNA, Zencrack and Optimus.

Static + dynamic

Structural response

Linear elasticity, nonlinear response, modal, harmonic and transient-impact analysis.

Coupled physics

Thermal and fluid interaction

Thermal stress/deformation and fluid pressure interacting with structures.

Source: Technical Capabilities — External Presentation · 2026-08 · pp. 8. Source and scope ↓

Engineering overview

Finite element analysis & simulation

Simulation is organized around explaining the physical behavior of a product under its service conditions. Formivis combines structural response, failure mechanisms and coupled physics, using physical experimental data as the intended final validation reference.

Principle & workflow

From physical assumptions to a design decision

Download SVG ↘
Geometry, material and loads form an analysis model. Structural or coupled-physics calculations are interpreted against physical evidence and the engineering question.
Geometry, material and loads form an analysis model. Structural or coupled-physics calculations are interpreted against physical evidence and the engineering question. Illustrative schematic; technical figures and development status are described in the accompanying text.
InputBuild the model

Define the physical question and the inputs that control it. Build a model with traceable units, material properties, contacts and constraints.

ProcessAnalyze the response

Choose the analysis that matches the question: structural response, fatigue, crack growth, creep, thermal stress or fluid–structure interaction.

OutputCompare with evidence

Compare modeled quantities with available physical measurements, review sensitivity and explain what the results mean for a design change or validation plan.

Analysis scope

Structural response under real loads

Analyze linear-elastic response, geometric and material nonlinearity, modal behavior, harmonic response and transient impact.

Failure analysis

Explain how failure develops

Investigate contact, fatigue life, crack propagation, plastic deformation and creep to connect initial damage with the eventual failure mechanism.

Multiphysics

Connect interacting physics

Model thermal–structural effects such as thermal stress and deformation, and fluid–structure interaction where fluid pressure changes structural response.

Software and computational platform

Software and computational platform · source profile pp. 8
PlatformListed scope
AbaqusFinite element structural and coupled-field analysis.
AnsysGeneral structural and dynamic analysis.
Ansys FluentFluid and flow-field analysis.
Ansys LS-DYNATransient impact and dynamic analysis.
ZencrackCrack propagation, fatigue, creep and damage simulation.
OptimusMultidisciplinary optimization and design integration.
15 networked CAE workstationsHigh-performance computing for engineering analysis.

Applications & value

Where the engineering matters.

Application context

Structural displacement and load paths

Compare displacement, stiffness and stress concentration to inform a geometry or material decision.

Profile illustration

Thermal damage and melt-through

The profile illustrates laser melt-through simulation as an example of a coupled thermal and structural analysis topic.

Application context

Reliability and failure investigation

Use fatigue, crack-growth, contact and creep studies to explain a failure or scope a follow-up physical test.

Who it's for

Finite element analysis & simulation

R&D and reliability teams investigating design decisions, product failures or simulation-to-test differences.

Bring the application, representative inputs and acceptance criteria. We will connect the relevant technology and platform to a defined engineering deliverable.

What we start with

  • The engineering decision and model geometry
  • Materials, loads, constraints and unit conventions
  • Available test data and reporting requirements

What the scope can include

  • A documented modeling approach
  • Results with sensitivity and convergence considerations
  • Engineering interpretation and validation recommendations

Before we begin

Common questions

Which types of FEA are covered?

The profile lists static and dynamic analysis, geometric/material nonlinearity, modal and harmonic response, transient impact, contact, fatigue, crack growth, plasticity and creep, plus thermal–structural and fluid–structure coupling.

Which software platforms are listed?

Abaqus, Ansys, Ansys Fluent, Ansys LS-DYNA, Zencrack and Optimus, supported by 15 networked high-performance CAE workstations.

How does the analysis connect to testing?

The stated method uses physical experimental data as the final validation reference. Available measurements, comparison quantities and any additional testing are identified in the project plan.

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The next step

Bring us your engineering question.

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