Simcenter FEMAP is an advanced finite element modeling environment that helps engineers create, analyze, and evaluate complex components, assemblies, and systems. Its powerful mesh-centric workflows enable faster model preparation, accurate simulation, and deeper insight into real-world product performance.
Advanced
FEA Meshing
Multi-Solver
Flexible Analysis
Multi-CAD
Import From Any CAD System
Powerful
Post-Processing
Finite Element Analysis
Model, analyze, and optimize structural performance using advanced finite element simulation tools.
Finite Element Analysis
Create, prepare, analyze, and evaluate complex finite element models with advanced FEA tools.
Geometry Preparation
Import, clean, simplify, and idealize CAD geometry to quickly create simulation-ready models.
FEA Meshing
Create high-quality 1D, 2D, and 3D meshes with precise control over element size, type, and quality.
FE Model Management
Manage materials, properties, loads, constraints, connections, and complex finite element assemblies efficiently.
Structural Analysis
Evaluate stress, deformation, vibration, buckling, thermal behavior, and other structural responses.
Multi-Solver Support
Prepare and run models using Simcenter Nastran and other leading industry-standard FEA solvers.
Simcenter FEMAP Simulation Applications
Solve complex real world engineering challenges across industries.
- Linear Static Analysis
- Buckling Analysis
- Normal Modes
- Dynamic Response
- Heat Transfer
- Nonlinear Analysis
- Composite Structures
- Aeroelasticity
Linear Static Analysis
Evaluate stress, strain, displacement, and structural behavior under static loading conditions. Engineers can identify highly stressed regions, understand load paths, and verify whether components can withstand expected operating forces. This helps improve structural reliability and reduce the need for repeated physical prototypes.
Buckling Analysis
Predict how structures may lose stability when subjected to compressive loads and determine their critical buckling limits. This is especially important for slender, lightweight, and thin-walled structures where instability can occur before material failure. Engineers can use the results to strengthen designs and improve structural safety.
Normal Modes
Identify natural frequencies and mode shapes to understand how a structure behaves under vibration. This allows engineers to recognize potential resonance conditions that could lead to excessive vibration, fatigue, noise, or structural damage. Design changes can then be evaluated early to improve dynamic performance.
Dynamic Response
Analyze how structures respond to time-dependent, frequency-based, harmonic, transient, and random vibration loads. This provides a more realistic understanding of how products behave under changing operating conditions and external excitation. Engineers can use these insights to improve durability, reliability, and overall structural performance.
Heat Transfer
Analyze steady-state and transient temperature distribution, heat flow, and thermal behavior across components and assemblies. Engineers can evaluate how heat moves through a product and identify areas where excessive temperatures may affect performance or reliability. These insights support better thermal management, cooling strategies, and material selection.
Nonlinear Analysis
Simulate complex structural behavior involving large deformation, nonlinear materials, contact, and changing boundary conditions. These capabilities allow engineers to study situations where traditional linear assumptions are no longer sufficient. The result is a more realistic prediction of how products will perform under demanding loads and operating conditions.
Composite Structures
Model and evaluate layered composite materials with detailed control over ply orientation, thickness, materials, and laminate configuration. Engineers can examine stresses, strains, and potential failure across individual layers of the composite structure. This helps optimize lightweight designs while maintaining the strength and performance required for real-world applications.
Aeroelasticity
Evaluate the interaction between aerodynamic forces and structural deformation in applications where airflow affects structural behavior. Engineers can study static aeroelastic effects, flutter, and other stability-related conditions to understand how structures respond under aerodynamic loading. This is particularly valuable for aerospace and other high-performance engineering applications.
The Simcenter FEMAP Advantage
A flexible, CAD-independent FEA environment for faster and more accurate structural simulation.
CAD-Independent Modeling
Import and prepare geometry from multiple CAD systems without being tied to a single design platform.
Advanced Meshing Control
Create high-quality 1D, 2D, and 3D meshes with precise control for complex engineering models.
Advanced Multi-Solver Support
Work with Simcenter Nastran and other leading FEA solvers from one pre- and post-processing environment.
Structural & Thermal Analysis
Evaluate stress, vibration, buckling, nonlinear behavior, and thermal performance before physical testing.
Powerful Post-Processing
Visualize contours, deformation, animations, and simulation results to quickly understand product behavior.
Faster Simulation Workflows
Streamline geometry preparation, meshing, model setup, and results evaluation to improve engineering productivity.
Insights
Thinking that moves
the industry
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What’s New in Simcenter FLOEFD 2019
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