The action world appears before the body.
The visible organism is late.
The strongest reading is not that a finished organism secretly existed in the soup. It is that an organized causal state—a structured map from action to future—preceded the body that later made it visible.
Three windows around one birth event.
For every state we built a four-corner square: two final Φ‑R levels, reached through two different two-pulse histories. Within each score level the histories were tightly matched on final Φ‑R, then released and tested against nine later interventions.
The body keeps deepening through formation.
At release, changing history while holding Φ‑R approximately fixed moves the state about as far as traversing the entire low→high Φ‑R span. That history separation grows before→crossing and continues growing after the visible event. There is no isolated spike; the fold deepens through the transition.
The action landscape is already mature.
After release we applied the same nine challenges to every corner and followed all 5,724 futures. The route-conditioned future displacement is already about 0.35 in the last clean pre-formation state. It neither peaks nor materially changes when the visible event arrives.
history-dependent future map: already present
The shift is about one entire local repertoire width before, across, and after formation. The strongest challenge remains the same across matched histories only about 10–14% of the time. The hidden organization is not a small residual—it reorganizes which interventions lead where.
Before the body locks in, history can move the clock.
The four matched information routes changed when the same morphology event occurred. This leverage is just as large in the last clean pre-window as in the crossing window, then collapses once the event has already happened.
Pre-formation
Matched histories differed by 1.66 and 1.83 passages on average at the two ending levels.
Across formation
The differences were 1.81 and 2.15 passages. One route did not universally accelerate: the direction depends on ending level and local state.
After formation, the mean four-route range falls by 2.34 passages. That is partly logical—the post-window begins after the measured event—but it cleanly locates the leverage: before and during formation, not afterward.
The body barely announces the hidden transition.
This baseline organism's certified event occurs at q31. The images change gradually. Yet the matched causal routes operating just before and across this interval already separate its later future map by roughly one repertoire width.
Near the event, history can delay the same transition by 15 passages.
For the representative organism above, the two low-ending crossing histories differ by less than 0.9% of the local Φ‑R range at release. One route reaches the certified morphology event at q31; the other reaches it at q46. The images remain deceptively similar, which is exactly the point: the causal divergence is easier to see by intervention than by appearance alone.
This 15-passage example is illustrative, not the cohort average. Across all 53 organisms, route directions vary; what replicates is the existence of timing leverage and history-separated futures.
Formation is expression, not origin.
What the visible event does
It marks a reproducible morphological transition. The release-state fold grows through it, and the system becomes visibly more structured.
What it does not do
It does not create the causal repertoire. The history-conditioned action world is already fully separated immediately beforehand.
not
visible formation → causal organization
That arrow is the bold hypothesis now supported by this experiment's timing: the body appears to be a late readout of an earlier organization in pattern-and-action space.
Find the first moment the action world exists.
The last pre-formation window was already too late: causal-future remapping was mature. So the next experiment moves backward. At several earlier offsets—while the field still looks like diffuse pre-form material—we will build the same matched history sheets and ask where future remapping first rises above its earliest baseline.
Then we intervene at that onset. If changing the hidden action landscape redirects which body later forms, we will have a direct causal bridge from early information geometry to organism emergence.