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Cognitive Revolution

1000 Designs a Day: Neural Concept's Thomas von Tschammer on AI-Native Engineering

89 min episode · 3 min read
·
Thomas von Schammer

Episode

89 min

Read time

3 min

Topics

Productivity, Startups, Leadership

AI-Generated Summary

Key Takeaways

  • Simulation Speed Multiplier: AI surrogate models reduce physics simulation time from days to minutes, enabling manufacturers to evaluate thousands of design configurations daily instead of dozens annually. Jaguar Land Rover moved from 50 aerodynamic designs evaluated per day to 1,500 in production. Battery cold plate suppliers reduced development cycles by 80% while achieving 20% better cooling performance and 15% weight reduction simultaneously.
  • Per-Customer Model Training: Neural Concept trains domain-specific models on each company's proprietary simulation and physical test data rather than deploying generic foundation models. This approach captures company-specific engineering know-how, and models continuously improve as new data is added. Every simulation run feeds back into retraining, compounding accuracy gains across successive product development cycles and preserving institutional knowledge.
  • Agentic Workflow Architecture: The engineering copilot combines frontier LLMs with domain-specific physics models as callable tools, enabling automated CAD geometry modification, simulation submission, and results analysis. Year-one targets for automotive OEMs should focus on AI-led iteration within single disciplines like crash or aerodynamics, targeting 20-40% cycle reduction before expanding to cross-disciplinary orchestration in year two.
  • Cross-Disciplinary Orchestration as the Real Multiplier: Breaking silos between aerodynamics, crash safety, thermal management, and manufacturing constraints within a single agentic workflow produces compounding gains beyond single-discipline optimization. Neural Concept reports 50% development cycle reductions where multidisciplinary automated workflows are deployed. Chinese automakers currently complete new vehicle development in 18-24 months versus 48-60 months for Western OEMs, a gap AI orchestration directly targets.
  • Formula One as Engineering Stress Test: Formula One teams serve as validation environments for AI engineering workflows because cars are redesigned between every race weekend. Regulatory compute caps on CPU hours for aerodynamic simulation create a direct incentive to maximize design quality per simulation run, making F1 teams ideal customers for surrogate models. Practices proven in F1 environments transfer directly to traditional OEM development processes.

What It Covers

Neural Concept cofounder Thomas von Tschammer explains how AI surrogate models replace physics-based simulation solvers in automotive engineering, enabling Jaguar Land Rover to evaluate 1,500 aerodynamic designs daily versus 50 previously, while an agentic engineering copilot automates CAD modifications and cross-disciplinary optimization across crash safety, thermal management, and aerodynamics.

Key Questions Answered

  • Simulation Speed Multiplier: AI surrogate models reduce physics simulation time from days to minutes, enabling manufacturers to evaluate thousands of design configurations daily instead of dozens annually. Jaguar Land Rover moved from 50 aerodynamic designs evaluated per day to 1,500 in production. Battery cold plate suppliers reduced development cycles by 80% while achieving 20% better cooling performance and 15% weight reduction simultaneously.
  • Per-Customer Model Training: Neural Concept trains domain-specific models on each company's proprietary simulation and physical test data rather than deploying generic foundation models. This approach captures company-specific engineering know-how, and models continuously improve as new data is added. Every simulation run feeds back into retraining, compounding accuracy gains across successive product development cycles and preserving institutional knowledge.
  • Agentic Workflow Architecture: The engineering copilot combines frontier LLMs with domain-specific physics models as callable tools, enabling automated CAD geometry modification, simulation submission, and results analysis. Year-one targets for automotive OEMs should focus on AI-led iteration within single disciplines like crash or aerodynamics, targeting 20-40% cycle reduction before expanding to cross-disciplinary orchestration in year two.
  • Cross-Disciplinary Orchestration as the Real Multiplier: Breaking silos between aerodynamics, crash safety, thermal management, and manufacturing constraints within a single agentic workflow produces compounding gains beyond single-discipline optimization. Neural Concept reports 50% development cycle reductions where multidisciplinary automated workflows are deployed. Chinese automakers currently complete new vehicle development in 18-24 months versus 48-60 months for Western OEMs, a gap AI orchestration directly targets.
  • Formula One as Engineering Stress Test: Formula One teams serve as validation environments for AI engineering workflows because cars are redesigned between every race weekend. Regulatory compute caps on CPU hours for aerodynamic simulation create a direct incentive to maximize design quality per simulation run, making F1 teams ideal customers for surrogate models. Practices proven in F1 environments transfer directly to traditional OEM development processes.
  • Manufacturing Constraints Must Enter the Design Loop Early: AI-generated designs must incorporate stamping tolerances, injection molding rules, and production cost constraints from the first iteration, not as post-design filters. Embedding manufacturing design rules directly into surrogate model training prevents generating physically optimal but unproducible geometries. Suppliers who use freed development time to optimize manufacturing processes can reduce part costs enough to win additional programs worth tens of millions of dollars.

Notable Moment

Engineers using overnight AI optimization runs arrive the next morning to dashboards showing thousands of design configurations, occasionally discovering geometries they would have immediately rejected as implausible. Several engineers reported that these counterintuitive designs outperformed anything they had conceived, prompting them to reverse-engineer the physics to update their own domain intuitions.

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Episode Transcript

Hello, and welcome back to the Cognitive Revolution. Today, my guest is Thomas von Chalmer, cofounder and US managing director of NeuralConcept, a Swiss company that uses specialist models for domains like aerodynamics, heat dissipation, and collision safety to help automotive manufacturers and other clients accelerate their product design and engineering processes. As a Detroit, Michigan native, this topic is of particular interest because my father actually started his career at General Motors in the drafting department, back when designs and assembly instructions were hand drawn on paper. And I have vivid memories of watching him use early computer aided design platforms on take your kid to work day back when I was a young boy. The work at the time was still highly manual and often quite intuitive, but as in so many fields, it's become far more computerized over time. By the time my dad retired, designs were routinely tested via physics based digital simulations before the physical manufacturing process began, and this increased iteration velocity by an order of magnitude. But still, as we've seen in biological structure and binding prediction, material science, and robotics controls, the compute required to run these simulations often becomes a bottleneck unto itself. Today, as you'll hear, neural concepts models can deliver similar results to expensive physics based solvers in minutes. And they now also offer an engineering Copilot product, which can both call these domain specific prediction models as tools and actually use the core CAD platforms to make design changes as required. This TikTok combination of agentic optimization and domain specific validation is the perfect recipe for reinforcement learning. And already today, it allows manufacturers like Jaguar Land Rover to conduct aerodynamic testing on more than 1,000 designs per day. It also frees human engineers to explore much larger regions of design space and to focus their attention on navigating higher level trade offs that involve other parts of the organization. Plus, it occasionally produces surprising Move 37 like designs that actually alert human engineers to new possibilities. Neural concept has even found a niche in Formula one racing, which I was surprised to learn actually limits the amount of compute that teams can use for aerodynamic optimization from one race week to the next. The bottom line is that we can add engineering to a long list of domains where essentially the same pattern of AI development is working over and over again. What once could only be done manually in the physical world was first digitized and then dramatically accelerated with specialist models. Today, agentic workflows are accelerating things further, and neural concept is beginning to evolve from training models on a per customer basis to a future of more general purpose foundation models for engineering. All of which makes it pretty easy for me to imagine a future engineering superintelligence that combines the general purpose design skills with these superhuman intuitions, all in the same set of weights. As we reach that point, and probably even …

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