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Sym9 & SNFT Unified Explorer

An interactive hub for exploring Symbolic Numerical Field Theory (SNFT) convergence, scaling laws, digit symbology, and non-linear numerical attractors.

◉ Digit Symbology & Number Theory

In Symbolic Numerical Field Theory (SNFT), numbers are not merely magnitudes; they possess structural traits stemming from their base-10 digit symbology. The spatial placement, sum, modular congruence, and internal patterns (like palindromes or arithmetic sequences) form a "field" of forces guiding the transformation of an integer through iterative maps.

This unified explorer brings together two primary modalities of this theory:

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Sym9 Adaptive Transforms

Single-path simulations focusing on the "Sym9" rulesets — highly non-linear, adaptive maps incorporating digit sums, modular arithmetic, and cubic gates (e.g., subtracting cubes of first/last digits).

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SNFT 5-Digit Space

Batch processing of numerical intervals to discover global attractors, convergence landscapes, and mapping macroscopic scaling behaviors across thousands of integers.

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Resonance Patterns

Analysis of numbers displaying specific resonances (like containing "27", "127", or "3141") to see how symbol-level traits perturb macroscopic convergence.

Theoretical Foundations

Numerical Attractor Descent Curves (NADCs) map the convergence from a highly energetic "seed" down to stable loops or static zeros. SNFT explores these paths not in continuous phase space, but in discrete, integer-based topology.

  • Universality: We often find that regardless of the initial starting band (10000 vs 90000), halting times fall into universal statistical distributions.
  • Gate Functions: Specific transform steps (like the 27-Gate or Cubic Gate) act as filters, rapidly collapsing entropy for specific sets of integers.
  • Attractors: Terminal nodes (like 0, 90, 729, or cycle-loops) represent the lowest energy states of the arithmetic field.

↘ Sym9 Transformation Explorer

Simulate the exact trajectory of a single seed integer using the Enhanced Adaptive Transform ruleset. Observe how specific algorithmic "gates" alter the descent curve.

Final Value
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Steps Taken
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Path Trajectory

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⊞ SNFT 5-Digit Batch Framework

Execute transformations across thousands of integers to map the macro-landscape. Discover statistical norms, convergence efficiencies, and global attractors within the 10000-99999 space.

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Avg Convergence
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Attractor Landscape & Patterns

✨ Discoveries & Anomalies

This panel isolates numbers with unusual behaviors discovered during SNFT batch processing: extreme efficiencies, fast convergence, or unmapped cyclic attractors.

New Patterns Found
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Total Anomalies
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Pattern Type Count Avg Steps Efficiency Primary Attractor
Run an SNFT Batch Analysis to populate discoveries.