Professional Finite Element Analysis (FEA) Services

Resolve your structural and thermal analysis challenges with Fabrixon’s expert Finite Element Analysis (FEA) services. We accelerate your product development by providing basic to intermediate FEA solutions.

  • Reliable performance forecasts for standard engineering applications
  • Capability to handle nonlinear, dynamic, and coupled problems
  • Reduced product complexity and expenses through virtual prototyping.
  • Design and performance optimization using proven analysis methods
  • Enhanced competitive positioning with cost-effective FEA solutions

Make your analysis more accurate. Get started with Fabrixon now!

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What is Finite Element Analysis (FEA)?

FEA is a computational technique that divides complex geometries into smaller, manageable finite elements. By applying fundamentals of finite element analysis, our engineers accurately predict your product's performance under real-world conditions.

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What do we offer under Finite Element Analysis Services (FEA)?

Under our Finite Element Analysis Services, we provide detailed simulations for structural strength, deformation, and performance optimization. We apply finite element analysis concepts via SolidWorks Simulation  to deliver accurate insights for optimized product design.

We provide detailed FEA reports that summarize all analysis results. These comprehensive reports include stress maps, deformation visuals, safety factors, and key findings. They are designed for easy understanding by engineers, clients, or certification bodies. Reports support design decisions and regulatory approvals.

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Our Linear analysis evaluates material behavior that remains elastic and follows Hooke’s Law. Using SolidWorks Simulation, we analyze stress distributions, safety factors, and component reliability under normal operating conditions. This fundamental analysis is essential for most engineering applications and design validation.

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We perform comprehensive fatigue analysis to predict component life under cyclic loading conditions. We evaluate high-cycle and low-cycle fatigue, helping identify critical areas prone to fatigue failure. This analysis is crucial for components experiencing repeated loading in automotive, aerospace, and machinery applications.

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Our dynamic simulations identify natural frequencies and mode shapes to prevent resonance issues. We analyze vibration characteristics, helping you avoid harmful frequencies that could cause excessive vibration or structural failure. This is essential for rotating machinery and vibration-sensitive applications.

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We simulate impact and shock scenarios to evaluate product durability under drop conditions. Our SolidWorks Simulation analysis helps optimize packaging, consumer electronics, and portable devices for impact resistance. This virtual prototyping approach reduces physical testing requirements and accelerates product development.

We analyze thermal behavior including temperature distribution and heat transfer using SolidWorks Simulation. Our analysis evaluates thermal stress effects, helping optimize cooling strategies and prevent thermal-induced failures. This is particularly valuable for electronics, automotive, and industrial applications.

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Our parametric optimization studies use SolidWorks Simulation to evaluate design variations automatically. We analyze multiple design parameters simultaneously, identifying optimal configurations for weight, stress, and performance. This approach accelerates design iterations and improves overall product efficiency.

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We perform advanced contact analysis to evaluate interactions between components in assemblies. Using SolidWorks Simulation, we analyze contact stress, friction effects, and load transfer between parts. This analysis is essential for bolted joints, interference fits, and multi-component assemblies.

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We provide detailed FEA reports that summarize all analysis results. These comprehensive reports include stress maps, deformation visuals, safety factors, and key findings. They are designed for easy understanding by engineers, clients, or certification bodies. Reports support design decisions and regulatory approvals.

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How do we work?

Step-by-Step Process

We perform FEM simulation with great accuracy. Here's our systematic approach to delivering reliable FEA results that you can trust for critical design decisions.

1

Problem Definition & Boundary Conditions

Initially, our team defines objectives, load conditions, and constraints. Then, we determine physical phenomena (structural, thermal, etc.) to simulate. We work closely with your team to understand real-world operating conditions and ensure our SolidWorks Simulation analysis reflects actual usage scenarios.

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Material & Load Application

We assign precise material properties such as Young's modulus, Poisson's ratio, and thermal conductivity. Then, we apply relevant loads and solve the model. Our material database includes thousands of engineering materials, ensuring accurate representation of your design materials.

2

Geometry Modeling & Meshing

We create or import the CAD model and discretize it into finite elements using a suitable mesh density and element type to balance accuracy for the analysis. Our engineers select optimal mesh strategies that provide accurate results while maintaining computational efficiency.

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Post-Processing & Optimization

We analyze contour plots for stress, strain, displacement, or temperature. Based on these insights, we refine the design based on critical response zones. This analysis-driven approach ensures optimal performance while identifying potential failure modes before they become costly problems.

Benefits of Using Our Finite Element Analysis (FEA) Services

The Finite Element Analysis in the SolidWorks software impacts the clients.

01.

Affordable Product Development

Virtual prototyping dramatically reduces physical testing requirements, while early detection of design issues cuts redesign costs by up to 80%. Our clients typically see ROI within the first project through reduced prototype iterations and faster time-to-market.

02.

Good Product Performance

We identify stress concentrations and strain hotspots to optimize performance using advanced SolidWorks Simulation. Our dynamic simulations and thermal analysis results in products that not only meet specifications but exceed customer expectations for durability and reliability.

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Accelerated Time to Market

With automated meshing, integrated solvers, and parametric modeling capabilities, we accelerate design iterations and validate products faster than traditional testing methods. Most FEA projects are completed within 1-5 business days, depending on the complexity, compared to months for physical testing.

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Good Safety and Compliance

Our FEA evaluates industry-standard yield criteria and failure theories, checking safety margins under thermal stress, seismic loads, and buckling conditions. We ensure your products meet or exceed regulatory requirements before manufacturing begins.

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Simulation Solutions

We offer static simulations, dynamic simulations, thermal simulations, and Multiphysics analysis using SolidWorks Simulation. Our nonlinear material modeling and advanced contact analysis capabilities make us your reliable source for basic to intermediate FEA needs.

Your questions answered

Common questions

FEM is used for solving structural, thermal, fluid flow, and vibration problems. It works well for complex shapes and material behaviors.

FEA is used in automotive, medical, and manufacturing industries. It helps improve product safety and performance.

FEA helps engineers test designs early. It saves time and cost by reducing the need for physical prototypes.