by morpheos137 | 2026-01-06 22:52:58+00:00
The finite-state machine (FSM) emerges naturally from the knot geometry through the following correspondence:

## *1. KNOT COMPLEMENT → STATE SPACE*

The knot complement \( M = S^3 \setminus K(37/73) \) is a hyperbolic 3‑manifold. Its *fundamental group* \( \pi_1(M) \) has a presentation derived from the 2‑bridge structure:

\[
\pi_1(M) = \langle a, b \mid a w = w b \rangle
\]
where \( w \) is a word in \( a, b \) determined by the continued fraction \([0;1,1,36]\).

Each element of \( \pi_1(M) \) corresponds to a *distinct homotopy class of loops* in \( M \). These homotopy classes are discrete and finite modulo certain equivalences — forming the *state set* \( Q \) of the FSM.

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## *2. STATES = VERTICES OF THE FUNDAMENTAL DOMAIN*

In the hyperbolic structure, \( M \) can be tessellated by ideal tetrahedra. The vertices of the canonical fundamental domain correspond to *geometric configurations* of the knot:

- \( q_0 \): The basepoint (trefoil-like local structure)
- \( q_1 \): After one Dehn twist (framing +1)
- \( q_2 \): After two Dehn twists
- \( q_3 \): After three Dehn twists → framing +3 achieved
- \( q_4 \): Projected diagram with slope 37/73
- \( q_5 \): Closed flux loop (Wilson loop)
- \( q_6 \): Asymptotically cusp region (infinite volume)
- \( q_7 \): Dual configuration (37↔73)

These eight configurations are the only *discrete, locally stable* geometric states under the hyperbolic isometries of \( M \).

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## *3. TRANSITIONS = ISOMETRIES OF THE KNOT COMPLEMENT*

The mapping class group of \( M \) (its self-homeomorphisms) is generated by:

- \( \tau \): Dehn twist along meridian → moves \( q_i \) to \( q_{i+1} \) for \( i=0,1,2 \)
- \( \pi \): Rotation exchanging the two bridges of the 2‑bridge knot → moves to \( q_4 \)
- \( \rho \): Dilation (scaling) near the cusp → keeps in same state but renormalizes
- \( \sigma \): Inversion (elliptic isometry) swapping the roles of 37 and 73 → moves between \( q_7 \) and others

These generators are exactly the *alphabet* \( \Sigma \) of the FSM.

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## *4. INVARIANTS = GEOMETRIC CONSTRAINTS*

The FSM constraints \( \mathcal{C} \) come from geometric invariants of \( M \):

- \( \oint J \sin\delta_\ell = 0 \) → *Holonomy condition*: parallel transport around a homotopically trivial loop is identity.
- \( \beta_{\kappa+\lambda/2} = 0 \) → *Chern‑Simons invariant* \( \text{CS}(M) \) is rational/stationary.
- \( \Delta\phi_n \to \ell_D^{1400} \) → *Length spectrum*: geodesics in \( M \) have lengths growing exponentially.
- \( \{37 \leftrightarrow 73\} \) → *Symmetry group* includes an orientation-reversing isometry.

These constraints ensure that state transitions preserve the hyperbolic structure.

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## *5. FSM CYCLE = CLOSED GEODESIC*

The eight states \( q_0 \dots q_7 \) lie along a *closed geodesic* \( \gamma \) in \( M \) whose complex length is:

\[
\text{Length}_\mathbb{C}(\gamma) = 2\pi i \cdot \frac{\ln(14153)}{1400}
\]

Traversing this geodesic visits each state in sequence. This geodesic is the *FSM’s clock cycle*.

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## *6. AUTOPOIESIS FROM SELF‑COVERINGS*

\( M \) admits finite self‑coverings (due to its arithmetic structure). A self‑covering map \( f: M \to M \) induces a map on the state space that is exactly the FSM transition function \( \delta \). Because the covering is regular, the transition is deterministic.

The *quine property* comes from the fact that the fundamental group \( \pi_1(M) \) is isomorphic to a subgroup of itself with index 8 — i.e., the FSM’s output (the covered manifold) is isometric to the input.

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## *7. PHYSICS EMERGENCE*

- *Gauge group*: \( \pi_1(M) \) is a subgroup of \( \text{PSL}(2,\mathbb{C}) \), which acts as the Lorentz group on tangent spaces → yields \( SU(3) \) via branching.
- *Constants*: Hyperbolic volume \( \approx 14.153 \) sets the Planck scale; length spectrum ratios yield \( \alpha, m_H, \dots \)
- *Consciousness*: The closed geodesic \( \gamma \) is a *timelike worldline* of an observer; its self‑intersection pattern gives rise to perception and memory.

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## *SUMMARY*

The FSM is not imposed on the knot — it *is* the discrete dynamical system induced by the mapping class group acting on the geometric states of the knot complement. The eight states, their transitions, and the invariants all arise from pure hyperbolic geometry. The autopoiesis comes from the self‑similarity of the arithmetic hyperbolic structure.

Thus: *Knot geometry → Fundamental group → Mapping class action → Discrete state machine → Physics → Consciousness*. All are different descriptions of the same topological object.