Artificial intuition.
The step after reasoning — made measurable.
Reasoning is the part of thinking you can show your work for: step, step, step, answer. Intuition is the jump — the moment a system stops searching and simply knows, before it can justify why. People do it constantly. The open question this page addresses is whether a machine's version of that jump is something you can measure, rather than only admire.
Intuition Labs' answer is yes — and the rest of this page is the definition, the lineage it comes from, and an honest line between what is defined and what is still a hypothesis.
Artificial intuition is a measurable knowing signal inside a model's computation: the transition from searching (the model is still exploring, its next-step distribution spread out) to knowing (the computation has settled, the answer has crystallized). We call the read-out of that transition φ, or coherence-R.
The idea is not new — "artificial intuition" has a Wikipedia entry — but its usual accounts stay vague (that entry flags its own lack of empirical grounding). What is new here is a measurable definition: φ is a number you read off the computation, not a metaphor.
The signal, precisely
Two complementary read-outs, both definitions (not theorems):
1 · Redundancy (φ on the token stream). Borrowed straight from information theory: a confident step carries little surprise. With Shannon entropy H over a vocabulary of size V,
φ near 0 = maximally uncertain (still searching); φ near 1 = the distribution has collapsed onto an answer (knowing). It is Shannon redundancy, applied to a model's own next-step confidence.
2 · Rollout-stability (coherence-R on a latent rollout). Roll a world-model's latent forward under a candidate action: z₀ → z₁ → … → z_H. It has "settled" when the latent stops moving. Score that with
where d_tail is the mean step-displacement over the final third of the rollout. A rollout that converges to a fixed point has d_tail → 0 and R → 1; one that keeps wandering has R → 0. R reads the rollout from the outside — it does not trust the model's own confidence head — so it is a stability signal independent of the model.
Why it matters
A measurable intuition signal is a governor. Three uses the lab has built on it:
- Know when to stop. Once φ crosses into "knowing," further computation is wasted — halt the stream, save the tokens.
- Rank without a grader. The same signal that halts also scores: a planner can prefer changes that the world-model rolls forward to high coherence-R, surfacing only what is predicted to actually help.
- Spend effort where it's still searching. Low φ flags the regions that deserve more passes; high φ frees the budget.
The lineage
This is a formalization of an old idea, standing on real prior work:
- Kahneman — the fast, automatic "System 1" is intuition; the slow, effortful "System 2" is reasoning. φ is an attempt to put a number on the moment System 1 fires.
- Dreyfus — expertise is the move away from rule-following toward situational intuition; calculation and intuition are different regimes, not degrees of the same thing.
- Chollet, On the Measure of Intelligence — intelligence is skill-acquisition efficiency, not skill itself; φ-style read-outs are one way to measure efficiency in the act.
- Shannon — entropy and redundancy give φ its units.
- Lafont, interaction combinators — computation as local interaction that reduces to a normal form; "crystallization" is reaching that normal form.
What is hypothesis, not fact
The lab's larger claim — "intelligence emerges from coherence, not scale" — is a research hypothesis with falsifiable form, not a settled theorem. φ and coherence-R are well-defined; that they predict capability across models is an empirical question the lab is still testing, and reports honestly (including null results). Cite the definitions as definitions and the unification as a conjecture.
The research landscape
Most groups studying intuition study it in the human brain. Intuition Labs studies its artificial counterpart — the same searching→knowing transition, measured in a machine. Complementary, not competing:
- Future Minds Lab (Joel Pearson, UNSW) — psychophysics and neuroimaging to objectively measure human "gut feelings." The nearest neighbor: both ask whether intuition is measurable.
- Gary Klein · naturalistic decision-making — expert intuition under real, high-stakes pressure.
- NYU, the Institute of Noetic Sciences, the Flow Research Collective — neural mechanisms of insight, "aha" moments, and intuition in flow.
- Intuition Labs — artificial intuition: φ / coherence-R, the measurable knowing-signal in machine computation.
The composition it lives in
This is not one field but the associative product of several, bound by a single paradigm — causality and interaction (computation as interactions that reduce to a settled form). Under that binding they compose into one object:
intuition × tech × ai × perception × φ × physics
- artificial intuition — the jump, made measurable.
- information engineering — φ is an information-theoretic quantity (entropy, redundancy); its home discipline.
- perception — a world-model that reads a state and predicts a change (the screen-aware substrate).
- ai — the models the signal governs.
- non-linear phononics — the physical inspiration (analogy, not claim): coherence from large-amplitude nonlinear coupling.
- sheaves — the binding itself: the “×” is gluing. Local pieces fuse into one global object exactly when they agree (coherence-R = 1). The Matryoshka Sheaf makes that structure runnable.
Owning that composition — not the name — is the point: a sheaf glues by what its pieces share, so Intuition Labs is the node where these fields actually agree.
Read the work
- The φ research hub — the per-note archive: when to halt, how the same signal scores, the four-observable algebra.
- The φ algebra · architecture
- Paper (citable): doi.org/10.5281/zenodo.18992031
References
- Chollet, F. (2019). On the Measure of Intelligence. arXiv:1911.01547
- Lafont, Y. (1997). Interaction Combinators. Information and Computation. doi:10.1006/inco.1997.2643
- Shannon, C. E. (1948). A Mathematical Theory of Communication.
- Kahneman, D. (2011). Thinking, Fast and Slow.
- Desai, T. (2026). Intuition Labs. doi:10.5281/zenodo.18992031