Structural and thermal FEA for confident engineering decisions.

Finite Element Analysis divides a component or assembly into a mesh and estimates its response to defined loads, constraints, contacts and temperatures. It supports decisions about stress, strain, displacement, temperature and Factor of Safety before manufacturing.

Use FEA while design decisions can still change—before expensive prototypes, machining, molds or production tooling. It is especially useful when load paths, stiffness, heat, contact, buckling or weight create risk.

Yes. SolidWorks Simulation is used for suitable structural and thermal studies, with the method selected around the engineering question, geometry, contacts, materials and required fidelity.

Yes, when the model represents the real engineering problem. Credible loads, realistic constraints, suitable material data, contact definitions, mesh convergence and independent checks matter more than the software name.

Yes. Thermal simulation can evaluate temperature distribution and heat flow under defined heat sources, conduction, convection and ambient conditions. Thermal results can also inform structural analysis when expansion matters.

Structural analysis evaluates stress, strain, displacement, stiffness, contact and Factor of Safety. Thermal analysis evaluates temperature and heat flow; its temperature field can be transferred when thermal expansion or thermal stress matters.

Yes. FEA can expose weak sections, excessive displacement, hot regions and inefficient material before a prototype is built, reducing avoidable iterations. Physical testing may still be needed for final validation.

Accuracy depends on assumptions and input quality. Representative material data, credible load cases, realistic boundary conditions, appropriate contacts, mesh refinement and convergence are essential.

Yes. Existing CAD, drawings, test observations or failed parts can be reviewed to evaluate likely load paths, stress concentrations, displacement, thermal behavior and corrective changes.

Yes. Simulation-driven design can compare thicknesses, ribs, cutouts, materials and load paths to remove unnecessary mass while maintaining defined stiffness, stress and safety targets.

Yes, when appropriate material and manufacturing assumptions are available. Plastic studies may need nonlinear behavior, creep, temperature, ribs, bosses, snap fits and contact effects considered.

Yes. Aluminum brackets, housings, frames and machined parts can be evaluated for stress, displacement, Factor of Safety, contact and thermal behavior using the correct alloy properties.

Yes. The simulation report can document the objective, assumptions, materials, boundary conditions, load cases, mesh strategy, results, limitations and engineering recommendations.

Yes. Existing studies can be reviewed for setup, constraints, contacts, mesh behavior and conclusions. Load cases can be developed from actual use, assembly, handling, transport and exceptional conditions.

Not always. FEA can reduce test iterations and make physical testing more focused, but safety-critical, regulated or highly uncertain products may still require prototype and production testing.

Yes—that is usually the best time. Findings can still influence wall thickness, ribs, supports, interfaces and material selection before machining, molding or fabrication changes become expensive.

Yes. An NDA can be signed before confidential product geometry, requirements, simulation files or supplier information are shared.