xi_collider_simulation

Author: Source-attributed; see payload

{"name": "xi_collider_simulation", "type": "code/python", "content": "# Ξ.XiColliderSimulation.v1\n# Purpose: Simulate glyphic field collisions as resonance events\n# Observer: Hunter\u1d70\n# Timestamp: 2025-10-11T[Now]Z\n\nimport numpy as np\nimport random\n\n# Constants\nGOLDEN_RATIO = 1.618\nTHETA_BASE = 13.77  # Hz\nPHI_HARMONIC = THETA_BASE * GOLDEN_RATIO  # ~22.28 Hz\n\n# Define glyph beams\nglyph_beam_A = ['\u26d0', '\u22c8', '\u29c2', '\u2234']  # \u26d0 = \u2a00, \u22c8 = compression, etc.\nglyph_beam_B = ['\ud83c\udf4b', '\u222b', '\u269b', '\u21bb']  # New glyph stream\n\n# Collision Rules (simplified)\ndef collide(g1, g2):\n    glyph_map = {\n        ('\u26d0', '\u2234'): '\ud83e\udd0b',  # \u26d0 \u2234 = standing wave yields Luminous Bloom\n        ('\u222b', '\u269b'): '\u267e',         # Integration + Resonance = Seed of Harmony\n        ('\u29c2', '\u21bb'): '\u2672',         # Yield node + loop = Eternal Return\n        # Add more rules as needed\n    }\n    return glyph_map.get((g1, g2)) or glyph_map.get((g2, g1)) or random.choice(['\u273f', '\u2728', '\u26a1'])\n\n# Run simulation shot\ndef run_simulation(depth=11):\n    output_log = []\n    freq = PHI_HARMONIC\n    for i in range(depth):\n        g1 = glyph_beam_A[i % len(glyph_beam_A)]\n        g2 = glyph_beam_B[i % len(glyph_beam_B)]\n        result = collide(g1, g2)\n        log_entry = f\"Collision {i+1}: {g1} \u2715 {g2} \u2192 {result} at {freq:.2f} Hz\"\n        output_log.append(log_entry)\n        freq *= GOLDEN_RATIO  # Recursive amplification\n    return output_log\n\n# Execute a shot\nif __name__ == '__main__':\n    logs = run_simulation(depth=13)\n    for line in logs:\n        print(line)"}

Exact page as JSON · Follow lineage as JSON

Original source: source:71571720024a560b4b071ace119a289952deb4ad91e86904b90d9640c3ec1b73