Simcenter Simsolid
Multi-physics simulation for full CAD assemblies, high accuracy results, and instant design comparisons
SimcenterTM SimsolidTM is a Siemens product
SimcenterTM SimsolidTM is a Siemens product
Simcenter Simsolid is a revolutionary simulation and structural analysis solution built for designers, engineers, and analysts who need fast, reliable insights. By removing the need for geometry cleanup and meshing, Simcenter Simsolid lets you validate structural performance in just minutes, using your full, detailed CAD models exactly as they are.
Unlike traditional FEA software, Simcenter Simsolid works directly on complete and complex CAD assemblies with no simplification required. This drastically accelerates simulation cycles, enabling rapid design iterations and earlier decision making. Powerful, precise, and incredibly fast, Simcenter Simsolid helps engineering teams explore more design options, improve product performance, and bring higher quality products to market faster.
No geometry simplification. No meshing. Simcenter Simsolid eliminates the most time consuming and error prone steps of conventional FEA. Your CAD file becomes your simulation model — instantly.
Built for speed and scalability, Simcenter Simsolid handles big assemblies and intricate parts with ease, even models with imperfect contacts, gaps, and overlapping surfaces.
Run structural analyses in seconds or minutes on a standard PC. Quickly compare multiple design iterations and accelerate simulation driven development across industries.
Simcenter Simsolid supports linear and nonlinear statics, thermal analysis, modal analysis, fatigue, stress linearization, and dynamic simulations (time, frequency, global local, buckling, composites, squeak & rattle, thermal stress, random response) for fast, end to end structural evaluation.
Includes frictional, bonded, sliding, and separating contacts, plus bolts, virtual connectors, welds, rivets, adhesives, joints, and bushings. Materials supported include isotropic, orthotropic, elastic plastic, rigid, gas, and fluid bodies.
Simulate real world conditions: fixed and sliding supports, hinges, forces, pressures, gravity, thermal loads, inertia, hydrostatic loads, bolt tightening, volumetric changes, remote masses, and remote loads.
Imports all major CAD and PLM formats (CATIA, NX, Creo, Inventor, Fusion 360, SOLIDWORKS, JT, STEP, Parasolid, ACIS, STL, and more) without conversion. Features direct integration with Onshape and Teamcenter.
Explore results through contour maps, animations, XY plots, probes, and detailed metrics for stress, strain, displacement, safety factors, modal shapes, and frequencies. Supports section cuts, datum planes, and load case combinations.
Automatically identifies part types during CAD import, reducing manual cleanup and speeding up setup.
Send your technical questions to our experts!
Connect you with an EnginSoft expert who can provide a reliable answer to your technical question or recommend a
proven solution.
CASE STUDY
In this technical case study, EnginSoft was called in to assist in the application of Computational Fluid Dynamics (CFD) to model the flame size of a regeneration gas-fired heater for a project in Oman.
ansys mechanics energy oil-gas
CASE STUDY
The adoption of SBES has significantly increased in the last two decades, driven by advancements in computing technology and the rise of Industry 4.0, which promotes nine key enabling technologies, including engineering simulation and big data analytics. SBES is crucial for the integration and automation of production systems, improving flexibility, speed, and quality.
automotive construction energy cfd metal-process-simulation
CASE STUDY
This technical article describes a human body model (HBM) wizard developed for RecurDyn and discusses what is already possible and what is in the development pipeline for the near future. Biomotion Solutions provides software to quickly build HBMs in industrial-grade simulation packages.
multibody recurdyn industry4 biomechanics
CASE STUDY
A collaborative project between Nissan Technical Centre Europe, RBF Morph, and the University of Rome “Tor Vergata” showcases how multi-physics optimization is revolutionizing automotive wheel design, particularly for electric vehicles (EVs). By integrating styling, structural analysis, and aerodynamics within a unified workflow enabled by advanced mesh morphing technology (rbfCAE), designers can optimize wheels for lightweight, strength, and aerodynamic efficiency without compromising aesthetics.
automotive optimization
CASE STUDY
In this technical article, the authors discuss the development of CAE models for simulating the behavior of shaped charges, devices used in various industrial sectors, against two types of target – a monolithic steel target and a multi-layer steel-ceramic target – in order to better understand the physics of penetration.
ansys ls-dyna civil-engineering mechanics oil-gas