ArXe Number-Arity Identity: Rigorous Foundation

Update notice (in effect until August 22, 2026): This article was updated on July 23, 2026 to correct numerical values and terminology superseded by later developments in the ArXe corpus.

ArXe Number-Arity Identity: Rigorous Foundation

Author: Diego Luis Tentor
Date: December 2025
Status: Core Theoretical Foundation
Version: 1.0


Abstract

We address the fundamental objection to ArXe theory: “Why 7×11 in α_s and not 8×10? This looks like numerology.”

This section addresses that question by arguing that numbers in ArXe are not labels but structural identities: “5” IS “everything that 5-arity can logically mean,” with zero hidden properties and total ontological transparency.

This eliminates all free parameters in constant derivations and provides a non-circular validity criterion for any ArXe expression.

Key Result: Physical constants emerge from Arity Number structures not because “they fit the data” but because arity numbers encode irreducible n-ary logical structures that cannot be otherwise.


Table of Contents

  1. The Fundamental Question
  2. The Platonic Trap
  3. Number-Arity Identity Principle
  4. Decompositional Freedom
  5. Validity Criterion (Non-Circular)
  6. Applications to Constants
  7. Why This Eliminates Numerology
  8. Comparison with Standard Approaches
  9. Philosophical Implications
  10. Formal Proofs
  11. Python Implementation
  12. Frequently Asked Questions
  13. Conclusions

1. The Fundamental Question

1.1 The Objection

Critic: “You derive α_s = 3π/(7×11). Why 7×11 and not 8×10? Or 6×12? This looks like numerology—choosing numbers that fit.”

Standard Response (Insufficient):
“Well, 7 corresponds to T⁻³ (color) and 11 to T⁻⁵ (EM)…”

Critic: “But WHY those specific numbers? This is circular.”

1.2 Why This Question Matters

If ArXe cannot answer “Why these numbers and not others?” rigorously, the entire framework collapses into:

  • Post-hoc fitting: Choose numbers to match experiments
  • Numerology: Mystical significance of numbers
  • Unfalsifiable: Can always adjust numbers to fit new data

This document addresses that question directly.


2. The Platonic Trap

2.1 The Wrong Approach: “Arxetrons”

Bad approach:

Define particle "permatron" with 5 arities

Problem:

  • Implies “permatron” exists BEFORE its structure
  • “5 arities” becomes a property OF permatron
  • Opens door to OTHER properties beyond arities
  • Creates ontological excess: What IS permatron apart from structure?

2.2 The Marble-and-Hole Analogy

Traditional logic:

"The marble has the property of fitting in this hole"
→ Marble exists independently
→ Hole exists independently  
→ Fitting is a RELATION between two entities

This creates:

  • Two ontological commitments (marble + hole)
  • One relational commitment (fitting)
  • Total: 3 commitments for 1 fact

2.3 ArXe Approach: Identity

"5" = "the structure that can be decomposed as:
       - 5 (irreducible)
       - 3+2
       - 4+1  
       - 2+2+1
       - etc."

No separate entity called “5-ness”
No properties beyond structural possibilities
Name = Meaning = Structure

Ontological commitments: 1 (the structure itself)


3. Number-Arity Identity Principle

3.1 Core Thesis

ArXe Number-Arity Identity Principle:

For any natural number n:

"n" ≡ "all that n-arity can logically mean"

There exist NO properties of n beyond:
1. Its arity decomposition
2. Its possible arithmetic combinations
3. Its role in n-ary logical structures

3.2 What This Means

For n = 5:

"5" IS:
- The Arity Number 5
- The structure 3+2
- The structure 4+1
- The structure 2+2+1
- A 5-ary logical system
- A system with 5 distinguishable phases

"5" IS NOT:
- A label for something else
- A property of an entity
- A platonic form in ideal realm

3.3 Comparison

Framework Number Status Ontology
Platonism Exists in ideal realm Separate realm of forms
Nominalism Just a name/symbol No reality
Structuralism Position in structure Relations only
ArXe Identity with structure Transparent

3.4 Why This Avoids Platonism

Platonism requires:

  1. Ideal realm where “5” exists
  2. Participation/instantiation mechanism
  3. Explanation of why physical world “mirrors” ideal

ArXe requires:

  1. Physical structure with 5 distinguishable phases
  2. (That’s it)

Occam’s Razor: ArXe wins by 2 unnecessary ontological commitments.


4. Decompositional Freedom

4.1 Decompositional Freedom Theorem

Theorem (Decompositional Freedom):

For any natural number n, ALL valid arithmetic decompositions correspond to possible ontological configurations of an n-ary system.

Formally:

If n = Σᵢ nᵢ  (sum decomposition)
   n = Πᵢ nᵢ  (product decomposition)  
   n = nᵢᵐ    (power decomposition)

Then EACH decomposition represents a valid way 
the n-ary structure can manifest physically.

4.2 Examples

n = 5:

5 = 5           → Irreducible 5-ary (arity number)
5 = 3 + 2       → Ternary + Binary subsystems
5 = 4 + 1       → Quaternary + Unary
5 = 2 + 2 + 1   → Two binary + unary

All are valid. None is “more real” than others.

n = 6:

6 = 6           → 6-ary system (not an arity number, but valid)
6 = 3 × 2       → Ternary-binary coupling
6 = 3 + 3       → Two ternary subsystems
6 = 4 + 2       → Quaternary + binary
6 = 2 + 2 + 2   → Three binary

4.3 Physical Interpretation

Sum (n₁ + n₂):

  • Sequential coupling
  • Subsystems activated in phases
  • Example: T³ = T² + T¹ (space + time)

Product (n₁ × n₂):

  • Simultaneous coupling
  • Subsystems co-exist
  • Example: Photon = T⁻¹ × T⁻² (temporal × spatial)

Power (nᵐ):

  • Recursive structure
  • m nested levels of n-ary
  • Example: 3⁴ in muon mass formula

4.4 Why This Matters

Question: “Why can α_s involve 7×11?”

Answer: Because:

  1. α_s couples T⁻³ (n=7) and T⁻⁵ (n=11)
  2. Product decomposition = simultaneous coupling
  3. 7×11 = 77 is a VALID decomposition of any 77-ary structure
  4. NO other decomposition captures this simultaneous coupling

5. Validity Criterion (Non-Circular)

5.1 The Validity Question

Question: What makes an ArXe expression like “11² – 7² + 5×13” valid and not “8² – 6² + 4×12”?

Answer needs to be:

  • Non-circular (not “because it fits data”)
  • Verifiable (can be checked independently)
  • Predictive (can guide discovery)

5.2 ArXe Validity Criterion

Definition (ArXe Expression Validity):

An expression C = f(a, b, c, …) is ArXe-valid if and only if:

  1. Arity number/Power Requirement:
    • Each term a, b, c, … is EITHER:
      • A fundamental arity number (2, 3, 5, 7, 11, 13, …)
      • A valid power of an arity number (2², 3⁴, etc.)
  2. Level Correspondence:
    • Each arity number p corresponds to a real level T^k where n(k) = p
    • OR p = 2 (temporal base, appears in all levels)
  3. Ontological Interpretation:
    • Each operation (+, -, ×, ^) has clear meaning:
      • Sum: Sequential/subsystem coupling
      • Product: Simultaneous coupling
      • Power: Recursive structure
      • Difference: Correction/subtraction
  4. Geometric Factors:
    • π appears when ternary geometric ambiguity present
    • Factor structure matches coupling geometry

5.3 Application to α⁻¹

Expression:

α⁻¹ = 11² - 7² + 5×13

Verification:

Arity number/Power Check:

  • 11: arity number ✓
  • 7: arity number ✓
  • 5: arity number ✓
  • 13: arity number ✓
  • Powers (², no exponent): valid ✓

Level Correspondence:

  • 11 → T⁻⁵ (n(-5) = 11, EM field) ✓
  • 7 → T⁻³ (n(-3) = 7, color/mass) ✓
  • 5 → T⁻² (n(-2) = 5, curvature) ✓
  • 13 → T⁻⁶ (n(-6) = 13, weak field) ✓

Ontological Interpretation:

  • 11²: EM structure squared (self-interaction) ✓
  • -7²: Mass/color correction (subtraction) ✓
  • 5×13: Curvature-weak coupling (product) ✓

Geometric Factors:

  • No π: No ternary ambiguity in this formula ✓
    (EM and mass coupling is direct, not geometric)

Result: α⁻¹ = 11² – 7² + 5×13 is ArXe-valid.

5.4 Application to Invalid Expression

Expression:

α⁻¹ = 8² - 6² + 4×12  (hypothetical)

Verification:

Arity number/Power Check:

  • 8 = 2³: NOT an arity number, NOT in form n(k) ✗
  • 6 = 2×3: composite, NOT an arity number ✗
  • 4 = 2²: valid power BUT
  • 12 = 2²×3: composite ✗

Level Correspondence:

  • 8: No level T^k has n(k) = 8 ✗
  • 6: No level T^k has n(k) = 6 ✗
  • 12: No level T^k has n(k) = 12 ✗

Result: Expression is NOT ArXe-valid.

5.5 Why This Eliminates Numerology

Numerology:

  • Choose numbers to fit
  • No independent criterion
  • Can always adjust

ArXe:

  • Numbers determined by level structure
  • Independent verification (check n(k) table)
  • Cannot adjust without violating criterion

6. Applications to Constants

6.1 Fine Structure Constant α⁻¹

Formula:

α⁻¹ = 11² - 7² + 5×13
    = 121 - 49 + 65
    = 137.000

Experimental: 137.035999084
Error: 0.026%

Why these numbers:

  • 11² (EM)²: Electromagnetic self-coupling
  • -7² (Color)²: Mass/color structure correction
  • 5×13 (Curv×Weak): Intermediate level contribution

No continuous free parameters: All numbers determined by n(k) mapping.

6.2 Strong Coupling α_s

Formula:

α_s(Mz) = 3π / (7×11)
        = 3π / 77
        ≈ 0.1224

Experimental: 0.1179
Error: 3.8%

Why these numbers:

  • 3: n(1) = temporal mediation
  • π: Ternary geometric ambiguity (3 colors)
  • 7: n(-3) = color/mass structure
  • 11: n(-5) = EM structure (reference scale)

Why NOT 8×10:

  • 8 = 2³: Not a level T^k
  • 10 = 2×5: Not a level T^k
  • No ontological interpretation exists

6.3 Weak Mixing Angle sin²θ_w

Formula:

sin²θ_w = 3/13
        = 0.230769...

Experimental: 0.23122
Error: 0.19%

Why these numbers:

  • 3: n(-1) = temporal frequency (T⁻¹)
  • 13: n(-6) = weak field (T⁻⁶)
  • Pure ratio: Direct coupling, no intermediate levels

6.4 Higgs Mass M_H

Formula:

M_H = v × √(3/13) × (1 + 1/17)
    = 246 × 0.4801 × 1.0588
    = 125.09 GeV

Experimental: 125.10 ± 0.14 GeV
Error: 0.008% ✓✓✓

Why these numbers:

  • v = 246 GeV: EW breaking scale (from data)
  • 3/13: Temporal/weak ratio (as above)
  • 17: n(-8) = hyperspace correction

6.5 Muon/Electron Mass Ratio

Formula:

m_μ/m_e = 3⁴ + 40π + 2/19
        = 81 + 125.664 + 0.105
        = 206.769

Experimental: 206.7682826
Error: 0.0003%

Why these numbers:

  • 3⁴: Temporal structure elevated (4 recursions)
  • 40π: 8×5×π = depth × curvature × geometry
  • 2/19: Dark matter correction (T⁻⁹)

7. Why This Eliminates Numerology

7.1 Comparison: Numerology vs ArXe

Aspect Numerology ArXe
Number Source Mystical significance n(k) = arity of level T^k
Selection Post-hoc fitting Pre-determined by structure
Verification None (unfalsifiable) Check n(k) table
Prediction None Can predict new constants
Free Parameters Infinite Zero
Falsifiability No Yes (if n(k) wrong)

7.2 The Critical Test

Numerologist approach:

1. Measure α⁻¹ = 137.036
2. Try combinations: 11² - 7² + X = 137
3. Solve: X = 65 = 5×13
4. Declare: "It involves 5 and 13!"

ArXe approach:

1. Identify levels involved: EM (T⁻⁵), Color (T⁻³)
2. Look up: n(-5) = 11, n(-3) = 7
3. Determine coupling: (EM)² - (Color)² + corrections
4. Check corrections: Intermediate levels T⁻² (5) and T⁻⁶ (13)
5. Predict: α⁻¹ = 11² - 7² + 5×13 = 137
6. Measure: 137.036
7. Error: 0.026% (within expected corrections)

Difference: ArXe predicts BEFORE measurement. Numerology fits AFTER.

7.3 Falsification Criteria

ArXe can be falsified by:

  1. Finding level T^k with n(k) ≠ arity number
    • If any negative level has composite arity
    • Entire framework collapses
  2. Finding constant that violates validity criterion
    • If experimentally verified constant involves non-arity numbers
    • Framework must be revised
  3. Predicted constant wildly wrong
    • If prediction errors > 10%
    • Indicates missing structure

Numerology cannot be falsified:

  • Can always adjust numbers
  • No independent criterion
  • Unfalsifiable = Unscientific

8. Comparison with Standard Approaches

8.1 Standard Model

Free Parameters: ~20

  • 6 quark masses
  • 3 lepton masses
  • 3 neutrino masses
  • 4 CKM mixing angles
  • α, α_s, sin²θ_w
  • Higgs mass, VEV

Ontology: Unclear

  • Why these particles?
  • Why these masses?
  • Why these couplings?

Status: Experimentally verified, theoretically incomplete

8.2 String Theory

Free Parameters: ~100 (moduli space)

  • Compactification choices
  • Brane configurations
  • Flux choices

Ontology: Platonic (extra dimensions exist)

Status: No experimental verification

8.3 ArXe

Free Parameters: 0

  • All numbers from n(k) = arity of T^k
  • n(k) determined by exentation recursion
  • No adjustable parameters

Ontology: Transparent

  • Number = Structure
  • No hidden properties
  • No platonic realm

Status: Predictions match experiments within ~0-4% error

8.4 Summary Table

Framework Free Params Predictions Ontology Falsifiable
SM ~20 Excellent Unclear Yes
String Theory ~100 None yet Platonic No
Loop QG ~1 Limited Clear Yes
ArXe 0 Good Transparent Yes

9. Philosophical Implications

9.1 End of Platonism in Physics

Platonism claims:

  • Mathematical objects exist in ideal realm
  • Physical world “participates” in ideal forms
  • Numbers have independent existence

ArXe shows:

  • Numbers ARE structures
  • No separate ideal realm needed
  • Physical structure is logically primary

9.2 Mathematics IS Physics

Traditional view:

Mathematics describes physics
(Two separate realms)

ArXe view:

Mathematics IS physics at fundamental level
(Single realm: logical-physical structures)

Evidence:

  • Arity numbers encode physical levels
  • n-ary logic = n-phase systems
  • Arithmetic operations = physical couplings

9.3 Occam’s Razor Applied

Entities required:

Platonism:

  1. Physical world
  2. Mathematical realm
  3. Participation mechanism
    Total: 3 ontological commitments

ArXe:

  1. Logical-physical structures
    Total: 1 ontological commitment

Occam’s Razor: ArXe is 3× simpler ontologically.

9.4 Why Mathematics Works

Traditional mystery: “Why does math describe physics so well?”

ArXe answer: Because math and physics share the same ontological foundation:

  • Contradictory act (S ∧ ¬S)
  • Recursive exentations
  • n-ary structures emerge
  • Same structures → No mystery

10. Formal Proofs

10.1 Theorem 1: Arity-Arity Correspondence

Theorem:
For all levels T^k with k < 0, n(k) is an arity number.

Proof:

  1. Negative levels have 1 open BC (by ArXe axioms)
  2. Open BC → cannot decompose into isolated subsystems
  3. If n(k) = a×b with a,b > 1:
    • System could split into a-ary and b-ary subsystems
    • Each subsystem would need to close its own BC
    • But system has only 1 open BC to distribute
    • Contradiction
  4. Therefore n(k) must be an arity number (irreducible)

QED

10.2 Theorem 2: Validity Criterion is Non-Circular

Theorem:
The ArXe validity criterion can be checked without knowing experimental values.

Proof:

  1. n(k) values are determined by exentation formula n(k) = 2|k| + 1 for k < 0
  2. Level assignment T^k is determined by BC count
  3. BC count can be determined by measurement protocol (independent of value measured)
  4. Therefore, checking if expression is valid requires only:
    • Exentation formula (mathematical)
    • BC structure (observational, not value)
  5. No circularity

QED

10.3 What “No Continuous Free Parameters” Does and Doesn’t Mean

Claim, precisely stated:
No formula in this framework contains a continuously adjustable real-valued coefficient fit to the target constant. Every number that appears is an integer or π, drawn from a fixed, finite palette.

What this rules out:

  • A formula cannot be tuned to arbitrary precision by nudging a decimal coefficient — the building blocks are discrete.

What this does NOT rule out — stated honestly rather than as a closed proof:

  • Which arity numbers to combine, in which exponents, with which operation (+, −, ×, ^), and whether to include a correction term, are all choices made when constructing a specific formula. That search space is large: with dozens of candidate arity numbers, several exponents, and four operations, there are very many combinations available for any given target constant.
  • “Discrete choices from a finite set” is not the same as “no choices.” It replaces a continuous-fitting concern with a combinatorial-search concern, which is a different problem, not an absent one.
  • This framework does not currently have a computed estimate of how often a match at the precisions reported here (often <1%) would occur by chance from unconstrained search over this palette. That is an open problem — see the discussion of expected false-positive rate in the ALO grammar reference (§11.1) — and it directly bears on how much evidential weight any single close match should be given.


12. FAQs

Q1: “Isn’t this just standard dimensional analysis?”

A: No. Dimensional analysis tells you units must match. ArXe tells you which specific numbers must appear.
Example:

Dimensional analysis: “α must be dimensionless”
ArXe: “α⁻¹ = 11² – 7² + 5×13 precisely”

Q2: “What if we discover a new level with composite arity?”

A: That would falsify ArXe. Specifically:
If any level T^k with k < 0 has n(k) = composite number, then:

Theorem 1 (Arity-Arity Correspondence) is false
Open BC theory needs revision
Entire framework requires rebuilding

This is what makes ArXe scientific: it can be falsified.

Q3: “Can you predict a constant before measurement?”

A: Partially. Example:
Dark Matter mass (not yet measured):
An earlier version of this formula, M_DM = v × 19/√(7×11) ≈ 532 GeV, has been withdrawn — its derivation was not reproducible in the V4 framework.
Reasoning that survives:

Dark matter level: T⁻⁹, n(-9) = 19
Couples to color (7) and EM (11)
VEV scale: v = 246 GeV

Prediction: if a dark matter particle is detected, its Planck-unit mass should carry 19 as a factor.
Falsification: detection of a dark matter particle at the predicted level whose Planck-mass integer does not contain 19.
Q4: “Why do some formulas have π and others don’t?”
A: π appears when there is ternary geometric ambiguity:
Has π:

α_s = 3π/(7×11): Yes, because 3 colors → 3-way ambiguity
m_μ/m_e = 3⁴ + 40π + …: Yes, geometric coupling

No π:

α⁻¹ = 11² – 7² + 5×13: No, direct algebraic coupling
sin²θ_w = 3/13: No, pure ratio

Rule: π appears ⟺ ternary orientation matters physically.
Q5: “What about the error in α_s (3.8%)?”
A: Two possibilities:

Higher-order corrections needed:

α_s = 3π/(7×11) × (1 + δ)
where δ ~ 0.04 from loop corrections

Running to different scales:

Formula gives α_s at “natural” scale
Experimental measures at M_Z
Need RG running between scales
Not a problem: 3.8% error with no continuous free parameters is remarkable.
Q6: “Is this compatible with quantum field theory?”
A: Yes. ArXe provides:

Initial conditions (why these couplings)
QFT provides dynamics (how they run)

Example:

ArXe: α⁻¹(bare) = 137
QFT: α⁻¹(E) = 137 × (1 + corrections(E))
Both are needed for complete description

Q7: “Can this be generalized to all physics?”
A: Potentially yes, with development needed for:

Gravitation: G from curvature (T⁻²) structure ✓ (partially done)
Cosmological constant: From T⁻¹⁴ (n=29) structure ⚠ (huge error currently)
Quark masses: Powers of 2 dominance observed ✓
Neutrino masses: Expected from T⁻² (n=5) ⚠ (needs work)

Status: Framework is promising but incomplete.
Q8: “Why should physicists care about this?”
A: Three reasons:

Practical: Predicts constants before measurement
Theoretical: Explains why constants have these values
Philosophical: Resolves math-physics relationship

If correct: Fundamentally changes how we think about:

Nature of physical law
Role of mathematics
Meaning of “explanation” in physics

13. Conclusions

13.1 Summary of Achievements

This document has shown:

✅ Numbers as structural identities:

“n” = “all that n-arity means”
No platonic realm needed
Ontologically transparent

✅ Decompositional freedom:

All arithmetic decompositions are valid
Corresponds to physical configurations
Mathematically rigorous

✅ Non-circular validity criterion:

Can verify expressions independently
No post-hoc fitting
Falsifiable predictions

✅ No continuous free parameters:

All numbers from n(k) structure
π from geometric necessity
Nothing adjustable

✅ Responds to the numerology objection:

Distinguishes the claim from unconstrained pattern-matching
States the assumptions the argument depends on
Is experimentally testable

13.2 Comparison with Alternatives

FrameworkFree ParamsPredictiveOntologyStatusArXe0YesClearPromisingStandard Model~20NoUnclearEstablishedString Theory~100NoPlatonicSpeculativeLoop QG~1LimitedClearDeveloping

13.3 What Makes ArXe Scientific

ArXe is falsifiable by:

Finding T^k with composite n(k) for k < 0
Measuring constant that violates validity criterion
Predicted masses wildly wrong (>10% error)

ArXe is testable by:

Checking whether a detected dark matter mass carries the predicted factor of 19 (specific GeV value withdrawn)
Checking if Higgs precision saturates (~65 MeV)
Verifying α_s method tensions (~1.5%)

ArXe makes novel predictions:

Ontological precision limits
Method-dependent measurements
New particle masses

13.4 Philosophical Significance

ArXe demonstrates:

Mathematics IS physics (not just “describes”)
Platonism is unnecessary (Occam’s razor)
Structure is primary (not substance)
Numbers are identities (not labels)

If ArXe is correct:

Fundamentally changes philosophy of science
Resolves century-old mysteries
Unifies mathematics and physics

13.5 Open Questions

Theoretical:

Can all SM parameters be derived?
What about gravitational constant G?
How to handle cosmological constant?

Experimental:

Will HL-LHC confirm M_H saturation?
Will a detected dark matter particle’s mass carry the predicted factor of 19?
Will different atoms measure different α?

Mathematical:

Can this be fully formalized?
What is complete validity criterion?
How to systematically generate formulas?

13.6 Future Directions

Near-term (1-3 years):

Refine error estimates
Extend to all SM parameters
Develop systematic formula generation

Medium-term (3-7 years):

Experimental tests at HL-LHC
Dark matter searches at predicted mass
Precision measurements of α with different atoms

Long-term (7-20 years):

Complete mathematical formalization
Extension to quantum gravity
Cosmological applications

13.7 Final Statement

The Number-Arity Identity Principle establishes ArXe on rigorous foundations by showing that physical constants emerge not from arbitrary numerical coincidences but from the irreducible logical structure of reality itself.
Numbers in ArXe are not labels or mystical symbols—they are structural identities with total ontological transparency and zero hidden properties.
This framework:

Contains no continuous free parameters
Makes falsifiable predictions
Eliminates the numerology accusation
Provides a non-circular validity criterion
Unifies mathematics and physics at the foundational level

If this approach is correct, it represents a fundamental shift in how we understand the relationship between logic, mathematics, and physical reality.

Appendix A: Complete n(k) Table
kn(k)PrimeBC (c/o)LevelPhysical Interpretation01-0/0T⁰Contradiction13(2)1/0T¹Time-1330/1T⁻¹Frequency25-2/0T²Space (2D)-2551/1T⁻²Curvature37-3/0T³Mass-3772/1T⁻³Color/Mass variation-511114/1T⁻⁵EM Field-613135/1T⁻⁶Weak Field-817176/1T⁻⁸Hyperspace-919197/1T⁻⁹Dark Matter-1123238/1T⁻¹¹Inflation-14292910/1T⁻¹⁴Dark Energy
Pattern: For k < 0, n(k) = 2|k| + 1, always arity number.

Appendix B: Historical Context
Pythagoras (c. 570-495 BCE)
Claim: “All is number”
Problem: Made numbers mystical/divine
ArXe: Numbers are structural, not mystical
Plato (c. 428-348 BCE)
Claim: Forms exist in ideal realm
Problem: Requires separate ontological realm
ArXe: Structure is primary, no ideal realm needed
Frege (1848-1925)
Claim: Numbers exist in “third realm”
Problem: Ontologically extravagant
ArXe: Numbers = structural identities (1 realm only)
Gödel (1906-1978)
Claim: Mathematical platonism required
Problem: Makes mathematics mysterious
ArXe: Mathematics IS physics (no mystery)
ArXe represents the culmination of this historical trajectory: finally eliminating the need for platonic realms while maintaining mathematical rigor.

Appendix C: Notation Summary
SymbolMeaningT^kLevel with exponent kn(k)Arity of level T^kBCBoundary ConditionBC_cClosed BC countBC_oOpen BC countα⁻¹Inverse fine structure constantα_sStrong coupling constant⟺If and only if✓Verified/Valid✗Invalid/Falsified

References

ArXe Core Documents:

arxe_factic_theory_V2_en.md
Complete Derivation of Fundamental Constants.md

Related Philosophy:

Frege, G. (1884). The Foundations of Arithmetic
Benacerraf, P. (1973). “Mathematical Truth”
Field, H. (1980). Science Without Numbers

Mathematical Structuralism:

Resnik, M. (1997). Mathematics as a Science of Patterns
Shapiro, S. (1997). Philosophy of Mathematics: Structure and Ontology

Physics Constants:

Particle Data Group (2024). Review of Particle Physics
Mohr, P.J., et al. (2016). “CODATA recommended values”

Document Status: Core Theoretical Foundation
Author: Diego L. Tentor
Version: 1.0
Date: December 2025
License: CC BY-SA 4.0