deepdac.ai · Mathematical Foundations

Theory

The geometry connecting diffusion maps, transformers, and stochastic dynamics — and the infrastructure to run it at scale.

The company equation
$\partial_\Lambda c \;=\; F \;-\; c \wedge c$
Foundational Paper

The Diffusion–Attention Connection

Julio Candanedo · julio@sparsetrace.ai

Transformers, diffusion maps, and magnetic Laplacians are different regimes of a single Markov geometry built from query–key scores — unified through the static Schrödinger bridge framework. DMAP is the equilibrium sector. Attention is NESS. The same equation governs both.

Concepts
Foundations
DMAP

Diffusion Manifold Approximation and Projection. Coifman–Lafon diffusion maps — kernel construction, normalization, eigenvectors, and the $P^+$ operator.

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P⁺
Unification
The DAC Connection

How diffusion maps and transformers emerge from the same Markov geometry. DMAP as equilibrium, attention as NESS, and Cartan's structure equation as the unifying object.

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∂Λc
Generative
Diffusion Map Autoencoder

Using diffusion coordinates as an interpretable latent space. Conditioning generative models — DiT, RFDiffusion — on physically meaningful geometry.

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Ψ
Architecture
DiT & Flow Matching

Diffusion Transformers and flow-based generative models. How DMAP coordinates guide generation toward physically meaningful outputs.

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v(x,t)
Algorithm
FlashDiffusion Method

Sparse eigensolver, Nyström approximation, B300-native kernel. How DMAP achieves $O(N \cdot D)$ scaling in practice.

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O(N·D)
Coming soon
SE(3)–FlashDiffusion

Non-abelian SO(3) connections and vector-valued diffusion maps for protein structure space. Complement to RFDiffusion.

c∧c
$P^+ = \mathrm{diag}(Z)^{-1}P$
Diffusion operator

Row-stochastic transition matrix. Central object of DMAP — encodes manifold geometry, not sampling density.

$\partial_\Lambda c = F - c \wedge c$
Cartan's structure equation

The company equation. $F=0$ gives DMAP (equilibrium). $F \neq 0$ gives attention (NESS).

$\Psi_t = (\lambda_1^t \psi_1, \ldots, \lambda_m^t \psi_m)$
Diffusion coordinates

Eigenvector embedding of $P^+$ weighted by eigenvalues. Euclidean distance = diffusion distance.