A single mathematical instrument that detects the moment any physical system departs from its current attractor state — confirmed across 11 independent domains spanning 28 orders of magnitude in physical scale, from gravitational wave strain at 10⁻¹⁹ m to solar wind at 10⁹ m.
Every physical process traces a path through state space. The encoder takes a window of signal samples, embeds them in delay-coordinate phase space, and computes eight topological features of the resulting trajectory. When the trajectory departs from its baseline attractor — in any domain, at any scale — the encoder fires.
No labeled training data. No domain-specific feature engineering. The only input is a time-series signal. The only prior is the signal's own recent history.
Eleven independent physical domains. Identical encoder code and detection threshold across all. The top trace in each card is the simulated signal. The bottom bar is the encoder anomaly ratio — amber when elevated, red when GENUINE (>10×).
The calibration law has two sides. Which feature dominates depends on what the encoder is being asked to do — not on the physical domain.
The encoder is a change-detector, not a state-classifier. It detects transitions between different attractor types. Two experiments confirmed the boundary condition precisely — and both falsifications were scientifically productive.
Any system that can fail, transition, or change state — and where early detection has operational value — is a candidate. The encoder requires no labeled training data and no domain-specific feature engineering.