PhysicsML & AI for Manufacturing in CAE Airbag Design
PhysicsML & AI for Manufacturing in CAE Airbag Design
In automotive safety, each design choice involves balancing speed, precision, and cost. Nowhere is this more evident than in airbag development, where the inflated shape of the airbag must precisely conform to both vehicle geometry and occupant physiology while meeting regulatory standards and crash performance targets.
A leading automotive airbag manufacturer approached us with a familiar challenge:
And yet, they were sitting on a goldmine: a rich repository of validated FEA simulations spanning hundreds of design variants. The question was, can we put that data to work to accelerate the next round of designs?
The process started with the Application Engineer visiting the OEM, sketching potential airbag designs as 2D drawings, accounting for car interior geometry and passenger profiles. These sketches were returned to the engineering team for further review, refinement, and validation.
This loop, repeated over multiple designs, consumed weeks of engineering effort and solver hours often for routine variations.
We developed a lightweight App that enables the AE to predict the 3D inflated airbag shape directly from their 2D sketch without waiting on CAD teams or solver runs.
The App acts like a digital assistant, providing fast, reliable, and explainable results.
This is not just about airbags. It is about how manufacturers across industries can use existing simulation data to train AI models that augment their design process.
AI for manufacturing enables teams to extract more value from historical CAE data, turning past simulations into predictive tools that drive smarter decisions. By embedding physics-informed AI into early-stage workflows, companies can:
At Intelimek, we specialize in building these hybrid AI solutions by combining domain expertise, validated physics, and practical ML. Our goal is to make AI for manufacturing not just a concept—but a day-to-day productivity tool that delivers measurable impact on the ground.