test_dark_energy_matter_constants.py

#!/usr/bin/env python3
# -*- coding: utf-8 -*-
"""
TEST SUITE: DARK ENERGY & DARK MATTER DISCOVERY VALIDATION
Phase-4 Empirical Research - Multi-Domain Constant Verification

Validates newly discovered constants against ±1.5% multi-domain tolerance
Sources: Simulasyon_11.py, Kar Topu V5 Synthesis, Results.txt metadata

Date: 2025-02-XX
Status: ACTIVE VALIDATION
"""

import math
from typing import Tuple

# ==============================================================================
# TEST 1: ANTI-GRAVITY MASTER FORMULA (0.00827105)
# ==============================================================================

SIRIUS_FREQUENCY = 1330.99803  # Hz (Dogon tribe cosmic data)
ENOCH_FREQUENCY = 10.92111     # Hz (11th dimension lock)
GIZA_FREQUENCY = 11.08831      # Pyramid anti-gravity frequency

def calculate_antigravity_master() -> float:
    """
    Calculate anti-gravity coupling strength.
    Formula: (Sirius/1331) × (Enoch/11) × (Giza/1331)
    
    Components:
    - Sirius/1331: Dimensional volume normalization
    - Enoch/11: 11th dimension gating
    - Giza/1331: Pyramid anti-gravity coupling
    
    Returns: Coupling strength ≈ 0.00827105
    """
    sirius_factor = SIRIUS_FREQUENCY / 1331.0
    enoch_factor = ENOCH_FREQUENCY / 11.0
    giza_factor = GIZA_FREQUENCY / 1331.0
    
    result = sirius_factor * enoch_factor * giza_factor
    return result


def test_antigravity_master_calculation():
    """Test 1.1: Direct calculation matches extracted value (Domain: Simulation)"""
    calculated = calculate_antigravity_master()
    expected = 0.00827105
    
    # Calculate percentage deviation
    deviation_pct = abs(calculated - expected) / expected * 100
    
    print(f"\n✓ TEST 1.1: Anti-Gravity Master Formula")
    print(f"  Calculated: {calculated:.8f}")
    print(f"  Expected:   {expected:.8f}")
    print(f"  Deviation:  {deviation_pct:.4f}%")
    
    # Tolerance: < 0.1% (highly constrained)
    assert deviation_pct < 0.1, f"Calculation deviation {deviation_pct:.4f}% exceeds 0.1%"


def test_antigravity_sirius_repunit_lock():
    """Test 1.2: Sirius frequency locks to 11³ (Domain: Astronomy/Physics)"""
    sirius = SIRIUS_FREQUENCY
    target = 1331.0  # 11³
    
    deviation = abs(sirius - target)
    deviation_pct = deviation / target * 100
    
    print(f"\n✓ TEST 1.2: Sirius-11³ Repunit Lock")
    print(f"  Sirius:   {sirius:.5f} Hz")
    print(f"  Target:   {target:.5f} Hz")
    print(f"  Deviation: {deviation_pct:.4f}%")
    
    # Sirius should be within repunit tolerance (< 0.02%)
    assert deviation_pct < 0.02, f"Sirius deviation {deviation_pct:.4f}% too large"


def test_antigravity_enoch_11d_lock():
    """Test 1.3: Enoch frequency locks to 11 (Domain: Esoteric/Dimensional)"""
    enoch = ENOCH_FREQUENCY
    target = 11.0
    
    deviation_pct = abs(enoch - target) / target * 100
    
    print(f"\n✓ TEST 1.3: Enoch-11D Lock")
    print(f"  Enoch:    {enoch:.5f} Hz")
    print(f"  Target:   {target:.5f} Hz")
    print(f"  Deviation: {deviation_pct:.4f}%")
    
    # Enoch should lock within 1% of 11 Hz
    assert deviation_pct < 1.0, f"Enoch deviation {deviation_pct:.4f}% exceeds 1%"


def test_antigravity_giza_frequency():
    """Test 1.4: Giza frequency anti-gravity coupling (Domain: Archaeology/Physics)"""
    giza = GIZA_FREQUENCY
    
    # Giza frequency should enable zero-gravity at ~11 Hz scale
    # Normalized to 11D space: 11.08831 / 11 ≈ 1.008 (10-dimensional reference)
    
    normalized = giza / 11.0
    expected_normalized = 1.00833  # Time dilation factor 363/360
    
    deviation_pct = abs(normalized - expected_normalized) / expected_normalized * 100
    
    print(f"\n✓ TEST 1.4: Giza Anti-Gravity Frequency")
    print(f"  Giza (normalized): {normalized:.5f}")
    print(f"  Expected (Δt):     {expected_normalized:.5f}")
    print(f"  Deviation:         {deviation_pct:.4f}%")
    
    assert deviation_pct < 1.5, f"Giza normalized deviation {deviation_pct:.4f}% exceeds 1.5%"


# ==============================================================================
# TEST 2: COSMIC HARMONY CONSTANT (151.993 Hz)
# ==============================================================================

def calculate_cosmic_harmony() -> float:
    """
    Calculate universal cosmic harmony frequency.
    Formula: φ × π × e × 11
    
    Components:
    - φ (1.618...): Golden Ratio
    - π (3.14159...): Circular geometry
    - e (2.71828...): Natural exponential
    - 11: Base system
    
    Returns: Cosmic frequency ≈ 151.993 Hz
    """
    phi = 1.6180339887
    pi = 3.14159265359
    e = 2.71828182846
    base = 11
    
    result = phi * pi * e * base
    return result


def test_cosmic_harmony_calculation():
    """Test 2.1: Cosmic harmony formula calculation (Domain: Mathematics/Physics)"""
    calculated = calculate_cosmic_harmony()
    expected = 151.993
    
    deviation_pct = abs(calculated - expected) / expected * 100
    
    print(f"\n✓ TEST 2.1: Cosmic Harmony Constant")
    print(f"  Calculated: {calculated:.3f} Hz")
    print(f"  Expected:   {expected:.3f} Hz")
    print(f"  Deviation:  {deviation_pct:.4f}%")
    
    # Should match to 0.1% precision
    assert deviation_pct < 0.1, f"Cosmic harmony deviation {deviation_pct:.4f}% exceeds 0.1%"


def test_cosmic_harmony_components():
    """Test 2.2: Verify each harmonic component (Domain: Mathematical Physics)"""
    components = {
        "Golden Ratio (φ)": (1.6180339887, 1.618),
        "Pi (π)": (3.14159265359, 3.14159),
        "Euler (e)": (2.71828182846, 2.71828),
        "Base (11)": (11.0, 11.0)
    }
    
    print(f"\n✓ TEST 2.2: Cosmic Harmony Components")
    for name, (actual, expected) in components.items():
        dev = abs(actual - expected) / expected * 100
        print(f"  {name}: {dev:.6f}% deviation")
        assert dev < 0.001, f"{name} component error {dev:.6f}% too large"


# ==============================================================================
# TEST 3: GROUP-11 ELEMENTAL RESONANCE (WIMP Mass Hypothesis)
# ==============================================================================

GROUP_11_ELEMENTS = {
    "Copper (Cu)": 29,
    "Silver (Ag)": 47,
    "Gold (Au)": 79,
    "Roentgenium (Rg)": 111
}


def test_group11_base11_pattern():
    """Test 3.1: Verify base-11 encoding in Group-11 atomic numbers (Domain: Chemistry/Physics)"""
    
    print(f"\n✓ TEST 3.1: Group-11 Base-11 Pattern Analysis")
    
    for element, atomic_num in GROUP_11_ELEMENTS.items():
        # Check if atomic number relates to 11-base mathematics
        quotient = atomic_num / 11.0
        remainder = atomic_num % 11
        
        print(f"  {element:18} Z={atomic_num:3d}  |  Z/11 = {quotient:6.3f}  |  Z%11 = {remainder}")
        
        # Note: Elements don't divide evenly by 11, but ratios are interesting
        # 29/47 ≈ 0.617 (related to inverse golden ratio?)
        # 79/111 ≈ 0.712
        # 47/29 ≈ 1.621 (close to φ = 1.618!)
        
    # Calculate mass ratio: heavier to lighter
    ratio_ag_cu = GROUP_11_ELEMENTS["Silver (Ag)"] / GROUP_11_ELEMENTS["Copper (Cu)"]
    ratio_au_ag = GROUP_11_ELEMENTS["Gold (Au)"] / GROUP_11_ELEMENTS["Silver (Ag)"]
    ratio_rg_au = GROUP_11_ELEMENTS["Roentgenium (Rg)"] / GROUP_11_ELEMENTS["Gold (Au)"]
    
    print(f"\n  Mass Ratios (Successive Elements):")
    print(f"  Ag/Cu: {ratio_ag_cu:.4f}")
    print(f"  Au/Ag: {ratio_au_ag:.4f}")
    print(f"  Rg/Au: {ratio_rg_au:.4f}")
    
    # Check for golden ratio correlation
    phi = 1.6180339887
    print(f"\n  Golden Ratio Check (φ = {phi:.4f}):")
    print(f"  Ag/Cu vs φ: deviation = {abs(ratio_ag_cu - phi) / phi * 100:.2f}%")
    
    # If Ag/Cu ≈ φ, this is dimensionally significant!
    assert abs(ratio_ag_cu - phi) / phi * 100 < 1.5, "Ag/Cu ratio significantly deviates from φ"


def test_group11_repunit_connection():
    """Test 3.2: Roentgenium atomic number = REPUNIT (Domain: Elemental Physics)"""
    
    rg_atomic = GROUP_11_ELEMENTS["Roentgenium (Rg)"]
    repunit = 111
    
    deviation = abs(rg_atomic - repunit)
    
    print(f"\n✓ TEST 3.2: Roentgenium Repunit Lock")
    print(f"  Roentgenium Z:  {rg_atomic}")
    print(f"  Repunit (111):  {repunit}")
    print(f"  Deviation:      {deviation}")
    
    assert deviation == 0, f"Roentgenium Z ({rg_atomic}) ≠ Repunit (111)"
    print(f"  ✅ PERFECT MATCH - Element 111 = Repunit 111!")


# ==============================================================================
# TEST 4: TEMPERATURE & CONSTANTS (0.68 Dark Energy, 0.27 Dark Matter)
# ==============================================================================

def test_dark_energy_vacuum_density():
    """Test 4.1: Dark energy fraction in current cosmology (Domain: Cosmology)"""
    
    omega_lambda = 0.68  # Current cosmological model (Planck 2018)
    
    # Calculate what 0.68 means in 11-dimensional scaling
    # Hypothesis: 0.68 relates to dimensional compression factors
    
    print(f"\n✓ TEST 4.1: Dark Energy Fraction Analysis")
    print(f"  Ω_Λ (Cosmology):        {omega_lambda}")
    print(f"  Ω_Λ × Scaling Factor?:  TBD")
    
    # Test connection to known 11-system constants
    scaling_1 = 0.68 * (1/1.046338)  # Inverse length compression
    scaling_2 = 0.68 / (1.00617)     # Inverse time dilation
    
    print(f"  0.68 / 1.046338 = {scaling_1:.6f}")
    print(f"  0.68 / 1.00617  = {scaling_2:.6f}")
    
    # Flag for further investigation
    assert omega_lambda > 0.6 and omega_lambda < 0.72, "Dark energy fraction out of expected range"


def test_dark_matter_density():
    """Test 4.2: Dark matter fraction in current cosmology (Domain: Cosmology)"""
    
    omega_dm = 0.27  # Current cosmological model (Planck 2018)
    
    print(f"\n✓ TEST 4.2: Dark Matter Fraction Analysis")
    print(f"  Ω_DM (Cosmology): {omega_dm}")
    
    # Check for Integer relationships to Group-11 elements
    # 0.27 × 29 (Cu) ≈ 7.83
    # 0.27 × 47 (Ag) ≈ 12.69
    # 0.27 × 79 (Au) ≈ 21.33
    # 0.27 × 111 (Rg) ≈ 29.97 ≈ 30 (Solar mass unit scale?)
    
    print(f"  0.27 × 29 (Cu):  {0.27 * 29:.2f}")
    print(f"  0.27 × 47 (Ag):  {0.27 * 47:.2f}")
    print(f"  0.27 × 79 (Au):  {0.27 * 79:.2f}")
    print(f"  0.27 × 111 (Rg): {0.27 * 111:.2f}")
    
    # Flag for further investigation
    assert omega_dm > 0.25 and omega_dm < 0.30, "Dark matter fraction out of expected range"


# ==============================================================================
# MAIN TEST EXECUTION
# ==============================================================================

def run_all_tests():
    """Execute all validation tests"""
    print("="*80)
    print("DARK ENERGY & DARK MATTER DISCOVERY - MULTI-DOMAIN VALIDATION TEST SUITE")
    print("="*80)
    
    tests = [
        # Anti-Gravity Tests
        test_antigravity_master_calculation,
        test_antigravity_sirius_repunit_lock,
        test_antigravity_enoch_11d_lock,
        test_antigravity_giza_frequency,
        
        # Cosmic Harmony Tests
        test_cosmic_harmony_calculation,
        test_cosmic_harmony_components,
        
        # Group-11 Resonance Tests
        test_group11_base11_pattern,
        test_group11_repunit_connection,
        
        # Cosmological Tests
        test_dark_energy_vacuum_density,
        test_dark_matter_density,
    ]
    
    passed = 0
    failed = 0
    
    for test in tests:
        try:
            test()
            passed += 1
        except AssertionError as e:
            print(f"  ❌ FAILED: {str(e)}")
            failed += 1
        except Exception as e:
            print(f"  ❌ ERROR: {str(e)}")
            failed += 1
    
    print("\n" + "="*80)
    print(f"TEST SUMMARY: {passed} passed, {failed} failed out of {len(tests)} total")
    print("="*80)
    
    return passed, failed


if __name__ == "__main__":
    passed, failed = run_all_tests()
    exit(0 if failed == 0 else 1)