Fundamental laws
Thermodynamics, electromagnetism, continuum mechanics, radiation transport: the model comes from physics, not from empirical correlations.
A problem understood can be modeled; a problem modeled can be predicted. We build a physical model of the phenomenon from fundamental laws, so we understand how it behaves before ever touching hardware.
We translate the phenomenon into equations: energy, mass and momentum balances, material constitutive equations, radiation and heat physics. We identify the few parameters that truly govern behavior and estimate orders of magnitude before any heavy computation.
The culture we come from — that of the great scientific laboratories — teaches that a good model is worth more than a thousand simulations run blindly.
Thermodynamics, electromagnetism, continuum mechanics, radiation transport: the model comes from physics, not from empirical correlations.
Every parameter has a value and an uncertainty. Knowing how much each one weighs guides design choices.
We identify the critical variables: where a small error matters a lot and where there's margin.
A tool that tells how the system will behave as conditions change.
A ranked list of the factors that matter: where to focus effort.
Design decisions made on quantitative grounds, not intuition.
We build the physical model you need to decide with data, not by trial and error.
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