Code quality metrics based on Golden Ratio (φ) mathematical invariants
phi-complexity is the first code quality library that measures the health of your Python code using universal mathematical invariants derived from the Golden Ratio (φ = 1.618...).
Unlike pylint (cultural rules) or radon (McCabe metrics), phi-complexity answers:
"Is this code in resonance with the natural laws of order, or is it collapsing under its own entropy?"
pip install phi-complexity# Audit a file
phi check my_script.py
# Audit a folder
phi check ./src/
# Generate a Markdown report
phi report my_script.py --output report.md
# CI/CD strict mode (exit 1 if radiance < 75)
phi check ./src/ --min-radiance 75from phi_complexity import auditer, rapport_console, rapport_markdown
# Get metrics as a dict
metrics = auditer("my_script.py")
print(metrics["radiance"]) # → 82.4
print(metrics["statut_gnostique"]) # → "EN ÉVEIL ◈"
print(metrics["oudjat"]) # → {"nom": "process_data", "ligne": 42, ...}
# Print console report
print(rapport_console("my_script.py"))
# Save Markdown report
rapport_markdown("my_script.py", sortie="report.md")| Metric | Description | Mathematical basis |
|---|---|---|
| Radiance Score | Global quality score (0–100) | 100 - f(Lilith) - g(H) - h(Anomalies) - i(Fib) |
| Variance de Lilith | Structural instability | Population variance of function complexities |
| Shannon Entropy | Information density | H = -Σ p·log₂(p) |
| φ-Ratio | Dominant function ratio | max_complexity / mean → should tend toward φ |
| Fibonacci Distance | Natural size alignment | `Σ |
| Zeta-Score | Global resonance | ζ_meta(functions, φ) converging series |
| Score | Status | Meaning |
|---|---|---|
| ≥ 85 | HERMÉTIQUE ✦ | Stable, harmonious, production-ready |
| 60–84 | EN ÉVEIL ◈ | Potential exists, some entropy zones |
| < 60 | DORMANT ░ | Deep restructuring recommended |
╔══════════════════════════════════════════════════╗
║ PHI-COMPLEXITY — AUDIT DE RADIANCE ║
╚══════════════════════════════════════════════════╝
📄 Fichier : my_script.py
📅 Date : 2026-04-08 17:11
☼ RADIANCE : ██████████████░░░░░░ 72.6 / 100
⚖ LILITH : 11221.9 (Structural variance)
🌊 ENTROPIE : 2.48 bits (Shannon)
◈ PHI-RATIO : 3.43 (ideal: φ = 1.618, Δ=1.81)
ζ ZETA-SCORE : 0.3656 (Global resonance)
STATUT : EN ÉVEIL ◈
🔎 OUDJAT : 'process_data' (Line 42, Complexity: 376)
⚠ SUTURES IDENTIFIED (2):
🟡 Line 18 [LILITH] : Nested loop (depth 2). Consider a helper function.
>> for j in range(b):
🔵 Line 67 [SOUVERAINETE] : 'load_data' receives 6 arguments. Encapsulate in an object.
>> def load_data(path, sep, enc, cols, dtype, na):
The Radiance Formula is derived from:
- φ-Meta Framework (Tomy Verreault, 2026) — Axioms AX-A0 through AX-A58
- Law of Antifragility (EQ-AFR-BMAD):
φ_{t+1} = P_φ(φ_t + k·Var(E_t)·E_t) - Cybernetics (Korchounov, Mir, 1975) — Feedback and variance as control metrics
- Shannon Information Theory — Code as an information channel
The Sovereign Coding Rules are derived from:
- The C Book (Banahan, Brady, Doran) — Scope hermeticity, resource lifecycle
- JaCaMo / Multi-Agent Programming — Agent independence and encapsulation
Full mathematical proof: docs/MATHEMATIQUES.md
Zero external dependencies.
Pure Python standard library (ast, math, json).
phi_complexity/
├── core.py ← Golden constants (PHI, TAXE_SUTURE, ETA_GOLDEN...)
├── analyseur.py ← AST fractal dissection
├── metriques.py ← Radiance Index calculation
├── rapport.py ← Console / Markdown / JSON rendering
└── cli.py ← phi check / phi report
repos:
- repo: https://github.com/spockoo/phi-complexity
rev: v0.1.0
hooks:
- id: phi-check
args: [--min-radiance, "70"]- name: Phi-Complexity Audit
run: |
pip install phi-complexity
phi check ./src/ --min-radiance 75MIT — Tomy Verreault, 2026
Anchored in the Bibliothèque Céleste — Morphic Phi Framework (φ-Meta)