The Program

Intelligence as a physical field: governed by a free energy functional, on a substrate you can measure.

We treat intelligence the way physics treats matter. Not metaphor, not analogy. A continuous field on a Riemannian manifold, evolving under equations that yield numbers you can refute.

I. The Object

A continuous data field on a Riemannian manifold.

Intelligence is carried by a vector-valued field φ : M × Badj → Rd on a compact Riemannian manifold (M, g). Two commitments do the load-bearing work. The field is not a representation of data — it is the cognitive activity. The substrate is not a coordinate system — its metric encodes the system's inductive bias.

II. The Dynamics

Gradient flow of a free energy functional.

t φ = Δg φ − m² φ − λ φ³ + η

One equation. Δg is the Laplace-Beltrami operator on (M, g); sets the spectral gap; λ drives nonlinear pattern formation; η is stochastic forcing tied to fluctuation-dissipation. The free energy F[φ] is the Lyapunov function; energy-stable schemes preserve dF/dt ≤ 0 at the discrete level.

III. The Four Predictions

Specific. Quantitative. Falsifiable.

01

Diverging correlation length

At concept-formation transitions. Power-law ξ ~ |t − tc|−ν with ν ≈ 0.71.

02

1/fβ temporal fluctuations

With β ≈ 1.22. Critical dynamics on every timescale.

03

Spectral robustness bound

εgen ≤ K / m²gap; empirical ρ ≈ −0.81 across three domains.

04

Finite effective causal speed

In the trained regime. The trained system has an operational light-cone.

Developed in the empirical-signatures chapter, the mass-robustness paper, the universal-critical-phenomena paper, the geometric-foundations paper, and the empirical-validation chapter.

IV. The Universality

One fixed point, three domains.

The same critical exponents appear across vision, language, and reinforcement control within shared uncertainty bands. This is universality: distinct microscopic theories flow under the renormalization group to the same fixed point, where universal observables are determined.

ν = 0.71 ± 0.018
β = 0.348 ± 0.011
γ = 1.386 ± 0.028
Domain Transition ν (measured) Status
Vision Concept boundary 0.72 ± 0.02 Confirmed
Language Semantic phase transition 0.70 ± 0.03 Confirmed
Control Policy collapse 0.71 ± 0.04 Replicating
V. The Honesty

We audit ourselves before we ask others to.

The corpus contains real disagreements on load-bearing claims. Three values for ν. Five functional forms for one mass-robustness law. Eight operational definitions of the mass gap. Two within-chapter formal instabilities (the synthesis chapter's Law I has a formula-vs-caption mismatch; the empirical-validation chapter's abstract disagrees with its body on the scaling-law labels). We name each one publicly and run a three-stream stabilization plan against it. External replication remains the test that matters.

Read the program audit
VI. The Lab

A focused program. A foundational question.

DFT Labs is an independent research program pursuing a physics-grade theory of intelligence. Single author at present; one secondary academic affiliation on the structural-analogies paper. The short points at how we handle that institutional shape openly.