This paper reports an empirical readout for when a zero-training cognitive runtime actuates (emits a say-event), independent of the emitted semantic content. Using an archived 1k-node run segment containing 68, 403 ticks (t = 316, 741. . . 385, 143) and 312 actuation ticks (rate 0. 004561), a compact logistic motor-gate model predicts didₛay from a small set of internal state proxies with near-perfect discrimination (time-split test AUC 0. 9994, average precision 0. 8600). The dominant predictor is a boundary-pulse proxy (b1ᵦ), which alone achieves univariate AUC 0. 9812 and yields a high-precision actuation aperture when thresholded (e. g. , duty cycle about 0. 4% at conditional say-rate about 0. 68). Ablations indicate that adding input text-topic features provides negligible improvement to actuation prediction, supporting a separation between motor gating and downstream content selection. Appendix A documents known proxy-physics components in the logged runtime and the canonical replacements required for physics-native interpretation.
Justin Lietz (Thu,) studied this question.