AI-Driven Physics & Surrogate Modeling
Redistributing structural material algorithmically to achieve 20% to 45% weight savings while maximizing stiffness and respecting production manufacturing constraints.
Cutting Deadweight Without Sacrificing Rigidity
Traditional design-by-intuition places metal in low-stress neutral zones while under-reinforcing critical load paths. In aerospace, automotive suspension, and robotics, every excess gram compounds inertia and power consumption.
Our generative CAE methodology leverages density-based SIMP algorithms to iteratively strip away non-functional material. We incorporate draft angles, split lines, and 3D print overhang limits so the generated geometry is immediately machinable or printable.
OPTIMIZATION TARGETS
Industrial Scenarios
- → Sub-second aerodynamic prediction for generative styling studios
- → Real-time industrial boiler thermal monitoring via digital twins
- → Predictive maintenance remaining useful life (RUL) estimation
- → Battery degradation prognosis under stochastic duty cycles
What You Receive
- ✓ Exportable ONNX / FMU functional mock-up units for 1D systems
- ✓ Trained neural surrogate weights with automated error bounds
- ✓ Interactive web-based engineering exploration dashboards
- ✓ Full training corpus and Latin hypercube sampling manifests
Transform Heavy Structures Into Optimized High-Performance Hardware
Partner with our generative CAE engineers to minimize mass, enhance natural frequencies, and accelerate component efficiency.