The Theory of Persistence
Mathematical atlas

PT mathematics / dissolution

derivation

Discrete-continuous bridge

Why PT does not simply say that the continuum emerges from the discrete.

Plain

The idea

The correct reading is subtle: in PT, the discrete layer is not the raw material from which the continuum is made. The discrete layer is where a continuous mechanics marks persistent points.

It is like a standing wave: the wave is continuous, yet some nodes or antinodes become remarkable. Those points are not added to the wave; they are revealed by it.

continuous mechanics

persistent points not retained
Standard

Standard reading

The sieve gives discrete residues, but phases, angles, Fisher metrics, and anomalous dimensions are continuous objects.

PT therefore dissolves the boundary: it does not choose between discrete and continuous; it shows how discrete points are persistence points of a continuous mechanics.

Takeaways

  • The discrete layer is a persistence point of the continuum.
  • Cyclic phase connects residue and angle.
  • The Fisher metric gives the continuous geometric reading.
Technical

Technical formulation

The monograph formulates this passage through CRT, cyclic phase, Fisher geometry, and metric limit. The discrete structure $\mathbb{Z}/p\mathbb{Z}$ already has continuous characters through Pontryagin duality.

The careful statement is: PT gives a co-description where the discrete layer is the remarkable spectrum of the constrained continuum, not a crude approximation to it.

Monograph: preface, ch05_geometry, ch06_holonomy, ch13_relativity, ch24_scope.

Formulas

$\mathbb{Z}/p\mathbb{Z}\longrightarrow \widehat{\mathbb{Z}/p\mathbb{Z}}\longrightarrow \theta_p$
$g^F_{ij}=\mathbb{E}[\partial_i\log P\,\partial_j\log P]$
public code

Code and scripts

The links below point to public resources or planned GitHub repositories. No local working path is exposed to the reader.

Discrete residue, continuous phase

Turns Z/pZ channels into continuous angular phases.

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