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Vibro-acoustic simulation minimises reliance on expensive physical testing by identifying acoustic and vibration vulnerabilities that could compromise system reliability.
Casting simulation predicts defects such as porosity, shrinkage, and hot spots, enabling aerospace teams to ensure engine component strength and durability before tooling.
Composite forming simulation reveals wrinkles, distortions, and thickness variations so engineers can validate manufacturability and meet weight reduction targets confidently.
Certification often depends on accurate assembly and ergonomic validation. Immersive VR enables teams to verify processes and safety standards before the physical build.
Stamping simulation identifies springback, splits, and thinning risks early, helping engineers deliver precise aerospace structures without costly trial and error tooling loops.
Vibro‑acoustic simulation predicts structural responses of spacecraft and satellites to harsh launch vibro‑acoustic loads, supporting lightweight design and certification.
Control shell thickness, radiation effects, and temperature gradients for complex parts.
Simulate seat structures for strength, safety, and comfort—balancing crash performance with ergonomic design.
Control curing and distortion to ensure safety-critical tolerance compliance.
Streamlining stretch forming by accurately predicting material behavior, springback, and thinning, enabling precise tool adjustments for high-quality, wrinkle-free results.
By immersively visualizing future products and components, analyzing product integration, and synthesizing human-centric assembly and maintenance processes, aerospace and defense manufacturers can avoid costly and limited physical prototype testing without compromising accuracy, safety, or time-to-market.
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