Drop & Shock Assessment
Useful when the question is how a product behaves under accidental drop, sudden impact or transport-related loading.
We help turn structural concerns into confident engineering decisions using finite element analysis, stress validation, fatigue assessment, modal analysis and design optimisation before fabrication or testing.
Review stress peaks, deformation, contact behaviour, stiffness and design risk through clear finite element result interpretation.
The goal is not just to generate contour plots, but to answer whether the design is safe, efficient and ready for prototyping, certification or design improvement.
Stress concentrations, displacement, contact pressure and factor-of-safety checks for components and assemblies.
Natural frequencies, mode shapes and vibration behaviour to avoid resonance and improve stiffness.
Cycle loading, stress-life considerations and durability guidance for repeated service conditions.
Critical load estimation and stability assessment for thin structures, supports, frames and shells.
Material, geometric and contact nonlinearities for more realistic behaviour under complex loading.
Weight reduction and stiffness-driven redesign to improve performance while controlling material usage.
Finite Element Analysis helps engineers predict structural behaviour before building prototypes. By dividing a part or assembly into small elements, we can estimate stress, deformation, vibration behaviour and safety margins under realistic loading conditions.
In this service, we do more than create colourful contour plots. We translate the model into decisions: whether a bracket is strong enough, where a frame needs reinforcement, whether vibration could become a problem, and which design change improves stiffness or reduces weight.
FEA capabilities are presented through clear explanation and embedded media so structural analysis scope, setup and expected outputs are easy to understand.
The examples highlight typical FEA work: static stress, impact, nonlinear contact and structural response review.
Useful when the question is how a product behaves under accidental drop, sudden impact or transport-related loading.
Ideal for assemblies or clips where contact, local yielding or material nonlinearity affects the true response.
This type of analysis is used where time-dependent impact or transient loading must be evaluated instead of a simple static load case.
Supports design checks for machine parts where fillets, holes or geometry transitions can cause local stress peaks.
Relevant for welded frames, supports and load-bearing assemblies where stiffness and load path matter.
Shows how FEA can also support bigger industrial structures where stiffness, stress distribution and reinforcement strategy are critical.
Structural result visuals are paired with concise explanation to clarify analysis scope, inputs and expected deliverables.
A practical introduction to how a structural model is prepared, constrained, loaded and solved.
Illustrates the workflow behind load application, solver setup and result interpretation.
Every FEA engagement is documented through assumptions, material data, load paths, contact definitions, mesh decisions and interpretation of the final results.
A concise engineering report, annotated stress plots, displacement visuals, comparison tables and clear design recommendations.
We define the component, target performance, loading scenarios, acceptable limits and what decision the analysis must support.
We clean the geometry, assign materials and contacts, simplify where appropriate and generate a mesh that captures the critical physics.
Boundary conditions, bolt loads, gravity, contact behaviour, material models and solver settings are configured and checked.
We review stress, strain, deformation, contact pressure, reaction forces and modes, then connect the results to engineering meaning.
We compare alternatives, rank design changes and deliver a final report that supports manufacturing, redesign or further testing.
Assumptions, material definitions, loading, constraints, solver setup and engineering interpretation.
Stress, displacement, factor of safety, modal results and comparison views prepared for clear communication.
Actionable structural changes ranked by impact, feasibility and expected improvement.
Send your CAD model, loading assumptions, materials and design concerns. We will help define the right FEA scope and deliver structural insight you can act on.
The media section connects FEA examples, workflow explanation and service outcomes under a consistent engineering presentation.