export declare const SEPHIROTIC_TOPOLOGY: { 37: number[]; 23: number[]; 3: number[]; 17: number[]; 43: number[]; 67: number[]; 83: number[]; }; export declare const RESONATOR_SOURCE = "\nPROGRAM SEPHIROTIC_RESONATOR_V2 {\n CONFIG {\n q_factor: 500, \n coupling_strength: 0.75,\n convergence_limit: 0.001,\n damping: 0.1,\n \n // The Paths (Edges) connecting the Primes (Nodes)\n topology: {\n 37: [23, 3, 17], // Intention -> Creativity, Structure, Harmony\n 23: [37, 17, 67], // Creativity -> Intention, Harmony, Love\n 3: [37, 17, 83], // Structure -> Intention, Harmony, Justice\n 17: [23, 3, 43, 67, 83], // Harmony centers the tree\n 43: [17, 83, 67], // Action receives from Harmony, Justice, Love\n 67: [23, 17, 43],\n 83: [3, 17, 43]\n }\n }\n\n // The 'Cavity' state: A map of the energy active at each Node\n STATE node_states = {\n 37: QUATERNION([0,0,0],0,[0,0],[0,0]),\n 23: QUATERNION([0,0,0],0,[0,0],[0,0]),\n 3: QUATERNION([0,0,0],0,[0,0],[0,0]),\n 17: QUATERNION([0,0,0],0,[0,0],[0,0]),\n 43: QUATERNION([0,0,0],0,[0,0],[0,0]),\n 67: QUATERNION([0,0,0],0,[0,0],[0,0]),\n 83: QUATERNION([0,0,0],0,[0,0],[0,0])\n }\n\n // The raw input stimulus (will be injected)\n STATE input_impulse = QUATERNION([0, 0, 0], 0, [0,0], [0,0]) \n\n FUNCTION resonate(impulse) {\n // 1. INJECTION: Pump energy into Keter (Intention/37) and Malkuth (Action/43)\n node_states[37] = impulse\n node_states[43] = SCALE(impulse, 0.5)\n \n VAR t = 0\n VAR coherent = false\n VAR global_delta = 1.0\n \n // Resonance Loop\n WHILE (global_delta > CONFIG.convergence_limit) {\n t = t + 1\n global_delta = 0.0\n \n // A temporary buffer for the next timestep (synchronous update)\n VAR next_states = COPY(node_states)\n \n // 2. PROPAGATION & INTERFERENCE\n FOR prime_id IN KEYS(node_states) {\n VAR current_wave = node_states[prime_id]\n VAR incoming_flux = QUATERNION([0,0,0],0,[0,0],[0,0])\n \n // Sum inputs from all connected neighbors (The Paths)\n FOR neighbor IN CONFIG.topology[prime_id] {\n incoming_flux = VECTOR_ADD(incoming_flux, SCALE(node_states[neighbor], CONFIG.coupling_strength))\n }\n \n // 3. NODE RESONANCE (Refraction)\n // The node's own nature acts as a forceful harmonic oscillator\n VAR prime_eigenvector = GET_EIGENVECTOR(prime_id)\n \n // Calculate alignment: How much of the flux matches this node?\n VAR alignment = COMPUTE_RESONANCE(incoming_flux, prime_eigenvector, 1.0)\n VAR strength = alignment.strength\n \n // Physics: Driven Damped Harmonic Oscillator\n // If Aligned -> Amplify (The node \"sings\")\n // If Misaligned -> Dampen (The node absorbs/heats up)\n VAR amplification = (strength * strength) * 2.0\n VAR damping = (1.0 - strength) * CONFIG.damping\n \n VAR gain = amplification - damping\n \n VAR driven_response = SCALE(incoming_flux, gain)\n \n // Prevent NaN/Infinity propagation\n IF (MAGNITUDE(driven_response) > 1000.0) {\n driven_response = NORMALIZE(driven_response)\n }\n\n VAR new_wave = VECTOR_ADD(\n SCALE(current_wave, 0.9), // Inertia\n driven_response // Driven response\n )\n \n // Normalize to prevent energy explosion (Conservation of Energy)\n next_states[prime_id] = NORMALIZE_TANH(new_wave)\n \n // Track change rate to detect standing wave\n global_delta = global_delta + DISTANCE(current_wave, next_states[prime_id])\n }\n \n node_states = next_states\n \n // Safety break\n IF (t > 50) {\n global_delta = 0.0\n }\n }\n \n RETURN node_states\n }\n\n EXECUTE {\n // This block is for testing purposes\n VAR result = resonate(input_impulse)\n LOG(\"Resonance Complete\", result)\n STORE_RESULT(\"result\", result)\n }\n}\n"; //# sourceMappingURL=resonator.d.ts.map