Finite Element Analysis (FEA) for structural, thermal, fatigue, and dynamic simulation — helping you validate CAD designs, identify failure risks, reduce physical prototyping, and confidently verify performance under real-world load conditions.
Every job starts as one of these categories. Most engagements combine two or three — a bracket redesign is rarely just a static check.
Stress, deflection, and factor-of-safety under fixed loads — the baseline check for any load-bearing part or assembly.
Finds natural frequencies and predicts response to shaking, road input, or rotating equipment before resonance becomes a field failure.
Temperature distribution and heat flow through parts and assemblies, standalone or coupled back into a structural check.
Predicts how many cycles a part survives under repeated loading, and where the first crack is likely to start.
For loads or materials that don't behave in a straight line — large deflection, plastic yielding, rubber, or shifting contact.
Checks whether thin-walled or slender members will buckle before they yield — a separate failure mode from static stress.
Explicit dynamic simulation of short-duration, high-energy events, used in place of or alongside physical drop and crash testing.
Uses simulation results to remove mass or improve performance systematically, instead of by trial and error.
Whichever category applies, the model has to pass through these stages before a number leaves our hands.
Defeature and simplify the geometry so it meshes cleanly without changing the load path.
Element type, size, and refinement chosen for the physics being solved, not left at software defaults.
Loads, constraints, and contacts set to match how the part is actually mounted and loaded in service.
Run the solver, check convergence, and confirm the results make physical sense before trusting them.
Mesh convergence and hand-calc sanity checks against the solved result.
A traceable report with assumptions, load cases, and margins — built to survive a design review.
We work in whichever environment matches your CAD source and internal review process.
The techniques carry across sectors, but the load cases, standards, and failure modes we check for change with the industry.
Airframe brackets, mounts, and structures under fatigue- and buckling-critical loads.
Chassis, suspension, and powertrain components checked for NVH, vibration, and crash performance.
Equipment frames, gearboxes, and pressure-bearing components under static and fatigue loading.
Surgical instruments and implants validated for drop, fatigue, and in-service load limits.
Enclosures and internal structures checked for drop test, thermal, and shipping vibration.
Piping, pressure vessels, and structural supports for oil & gas, power, and renewable energy assets.
Blended figures across recent projects — your result depends on part complexity and how many load cases apply.
turnaround for a single-part static check
avg. mass removed via topology optimization
physical prototypes avoided per redesign
reports include traceable assumptions & margins
Share your engineering requirement with our team and we can determine the appropriate analysis approach.