Can a missing concept keep an entire piece of reality out of reach?
Can the Many-Worlds Interpretation of quantum mechanics be turned into an experimental question?
Human beings do not encounter reality from nowhere. We are built from multiple clocks: sensory resolution, perceptual integration, action, memory, prediction and lifespan. The inquiry asks whether that temporal architecture influences which patterns feel naturally like objects, events and causes — and therefore which concepts a civilization builds its first science around.
A radically faster or slower intelligence might study the same universe while beginning from very different primitives. The deeper possibility is that observer architecture shapes not only perception, but the epistemology through which reality becomes scientifically describable.
The work remains exploratory: the goal is not to claim that human science is wrong, but to ask how much of its conceptual structure is local to the kind of observer we happen to be.
Same underlying physical process, different observer integration windows: fast → Structure · matched → Event / mechanism · slow → Rate / average / statistics.
Science does more than collect facts. Language, instruments, mathematics and representation help determine which differences become visible enough to count as facts in the first place.
That raises a stranger possibility: perhaps some scientific unknowns are not missing answers, but missing maps on which the questions could appear.
The inquiry asks whether such absences might still leave a detectable outline — persistent anomalies, translation failures or strangely similar distortions across otherwise different theories. It proposes ontology tomography: compare how multiple scientific maps fail and look for structure that survives the change of representation.
Advanced AI could eventually help by building genuinely different maps, but novelty only matters if it produces new predictions or interventions that reality can push back against.
Compare how non-equivalent scientific representations fail and look for residual structure that survives the change of map.
I started with a deliberately audacious question: could a quantum computer create two world-branches and allow one to send a message to the other? We pushed the idea far enough to design an explicit protocol — world-branch-conditioned operations, encoded messages, parity checks, acknowledgments, qubit allocations and coherence budgets.
Then the physics pushed back.
Under standard linear quantum mechanics, independently decohered world-branches cannot exchange a usable signal. Preserve coherence and deliberately recombine them, and you can recover interference — but that is not communication between autonomous worlds, nor does it uniquely confirm Many-Worlds.
Later Wigner’s-friend-style variants sharpened the same boundary: coherent observer records can in principle be reversed and recombined, but doing so also undoes the classical record that made the world-branches independently experienced.
So the original mechanism failed, making the question even more interesting!
