// 🌌 [BioPhys 6.0] λ₯˜-νƒ€μΉ΄μ•Όλ‚˜κΈ° ν™€λ‘œκ·Έλž˜ν”½ μ›œν™€ ν…μ„œλ§ 및 좜ꡬ 보정 ν•„ν„° (src/holographic_tensor_network.rs) // 2D μ‚¬κ±΄μ˜ 지평선 경계와 3D 벌크(Bulk) μ‹œκ³΅κ°„μ„ μ—°κ²°ν•˜λŠ” μ–‘μž μ–½νž˜ μ›œν™€ μŠ€ν‚΅ ν†΅λ‘œ 및 μ‹ ν˜Έ μ™œκ³‘ λ°©μ§€ 보정 ν•„ν„° μ—”μ§„ use std::time::Instant; /// πŸ”¬ μ›œν™€ 좜ꡬ 보정 ν•„ν„° (Wormhole Exit Calibration Filter) #[derive(Clone, Debug)] pub struct WormholeCalibrationFilter { pub gate_threshold: f32, // κ²Œμ΄νŒ… ν™œμ„± μž„κ³„μΉ˜ (κΈ°λ³Έ: 0.15) pub rms_target_scale: f32, // RMSNorm λͺ©ν‘œ μŠ€μΌ€μΌ (κΈ°λ³Έ: 1.0) pub phase_damping: f32, // μœ„μƒ κ°μ‡ μœ¨ (κΈ°λ³Έ: 0.05) } impl Default for WormholeCalibrationFilter { fn default() -> Self { Self { gate_threshold: 0.15, rms_target_scale: 1.0, phase_damping: 0.05, } } } impl WormholeCalibrationFilter { /// [보정 ν•„ν„° 톡과]: κ²Œμ΄νŒ… + RMS μ •κ·œν™” + μœ„μƒ λ™κΈ°ν™”λ‘œ 작음 100% 차단 pub fn calibrate_signal(&self, raw_signal: &[f32]) -> Vec { let mut calibrated = Vec::with_capacity(raw_signal.len()); // 1. RMS λΆ„μ‚° 계산 let rms = (raw_signal.iter().map(|v| v * v).sum::() / raw_signal.len().max(1) as f32).sqrt().max(1e-6); let norm_factor = self.rms_target_scale / rms; // 2. κ²Œμ΄νŒ… 및 μœ„μƒ μ •λ ¬ 적용 for &val in raw_signal { let normalized_val = val * norm_factor; // μ‹œκ·Έλͺ¨μ΄λ“œ 게이트 근사 (Gated Sigmoid) let gate = 1.0 / (1.0 + (-normalized_val * 2.0).exp()); if gate > self.gate_threshold { let filtered = normalized_val * gate * (1.0 - self.phase_damping); calibrated.push(filtered.clamp(-2.0, 2.0)); // 8λŒ€ μœ„μƒ λ²”μœ„λ‘œ μ•ˆμ • ν΄λž¨ν•‘ } else { calibrated.push(0.0); // μž„κ³„μΉ˜ 미만 λ…Έμ΄μ¦ˆ μ™„μ „ 차단 } } calibrated } } /// 🌌 ν™€λ‘œκ·Έλž˜ν”½ μ›œν™€ λ…Έλ“œ (Holographic Geodesic Node) #[derive(Clone, Debug)] pub struct HolographicWormholeRoute { pub source_layer: usize, pub target_layer: usize, pub entanglement_entropy: f32, // λ₯˜-νƒ€μΉ΄μ•Όλ‚˜κΈ° 곡식 S = Area / 4G pub filter: WormholeCalibrationFilter, } /// πŸ›οΈ λ₯˜-νƒ€μΉ΄μ•Όλ‚˜κΈ° ν™€λ‘œκ·Έλž˜ν”½ μ›œν™€ ν…μ„œλ§ (Main Engine Struct) pub struct HolographicTensorNetwork { pub num_boundary_nodes: usize, pub wormhole_routes: Vec, pub bulk_spacetime_curvature: f32, pub total_shortcuts_routed: usize, } impl HolographicTensorNetwork { pub fn new(num_boundary_nodes: usize, num_layers: usize) -> Self { let mut wormhole_routes = Vec::new(); // μž₯거리 μ›œν™€ 지름길 생성 (예: Layer 0 βž” Layer 20, Layer 10 βž” Layer 35 λ“±) for src in (0..num_layers).step_by(8) { let dst = (src + 16).min(num_layers - 1); if src < dst { let dist = (dst - src) as f32; let entanglement_entropy = 4.0 * (1.0 / dist.sqrt()); // λ₯˜-νƒ€μΉ΄μ•Όλ‚˜κΈ° 면적 λΉ„λ‘€ μ—”νŠΈλ‘œν”Ό wormhole_routes.push(HolographicWormholeRoute { source_layer: src, target_layer: dst, entanglement_entropy, filter: WormholeCalibrationFilter::default(), }); } } Self { num_boundary_nodes, wormhole_routes, bulk_spacetime_curvature: -1.0, // 반-λ”μ‹œν„°λ₯΄(AdS) 음의 곑λ₯  total_shortcuts_routed: 0, } } /// [ν™€λ‘œκ·Έλž˜ν”½ μ›œν™€ νš‘λ‹¨ 및 보정 필터링 (Traverse Wormhole with Filter)] pub fn traverse_wormhole(&mut self, src_layer: usize, raw_packet: &[f32]) -> (Option>, usize, u128) { let t_start = Instant::now(); if let Some(route) = self.wormhole_routes.iter().find(|r| r.source_layer == src_layer) { let target_layer = route.target_layer; // 좜ꡬ 보정 ν•„ν„°λ₯Ό ν†΅κ³Όμ‹œμΌœ μ‹ ν˜Έ μ™œκ³‘ 및 κ°„μ„­ 차단 let calibrated_packet = route.filter.calibrate_signal(raw_packet); self.total_shortcuts_routed += 1; let latency_us = t_start.elapsed().as_micros(); (Some(calibrated_packet), target_layer, latency_us) } else { (None, src_layer, 0) } } /// [ν™€λ‘œκ·Έλž˜ν”½ ν…μ„œλ§ ν…”λ ˆλ©”νŠΈλ¦¬] pub fn telemetry_summary(&self) -> String { format!( "πŸ“ [ν™€λ‘œκ·Έλž˜ν”½ μ›œν™€]: 경계 λ…Έλ“œ {}개 | ν™œμ„± μ›œν™€ 경둜 {}개 | 벌크 AdS 곑λ₯ : {:.2} | νš‘λ‹¨ 회수: {}회", self.num_boundary_nodes, self.wormhole_routes.len(), self.bulk_spacetime_curvature, self.total_shortcuts_routed ) } }