# ============================================================================== # COPYRIGHT NO ONE EVERYWHERE LLC (WYOMING HOLDING COMPANY) # PROJECT: SOVEREIGN STACK # This artifact is entirely proprietary and cryptographically proven. # Open-Source usage requires explicit permission from Brandon Scott Schneider. # ============================================================================== import math import zlib import struct from usc_spectral_core import ( shannon_entropy, optimal_dimensions, eddington_utilization, shannon_capacity, signal_band, landauer_cost, ) # ── ZK-STARK activation (Razor/Blade model) ─────────────────────────────────── STARK_PROOF_EXPECTED = 0xA5A5A5A55A5A5A5A ZK_IP_KEY = 0xD43B class USCLiteSimulator: def __init__(self): self.unlocked = False self.ip_constants = 0x0000 def verify_and_activate(self, proof): if proof == STARK_PROOF_EXPECTED: print(f"\n[CRYPTO] ZK-STARK Proof Verified: 0x{proof:016X}") print("[SYSTEM] One-Time Activation. Unlocking Proprietary Sub-Register...") self.unlocked = True self.ip_constants = ZK_IP_KEY return True return False def generate_packet(self, gic_val, temp_val, bits_per_channel: int): """ Packet generation at Shannon-optimal bit depth. bits_per_channel is derived from signal entropy, not hardcoded. """ mask = (1 << bits_per_channel) - 1 shift = max(0, 16 - bits_per_channel) if self.unlocked: gic_q = (gic_val >> shift) & mask tmp_q = (temp_val >> shift) & mask payload = (gic_q << bits_per_channel) | tmp_q return payload ^ (self.ip_constants & 0xFF), bits_per_channel * 2 return (gic_val >> 2) & 0xFF, 8 def run_sovereign_poc(): print("=" * 60) print(" USC-LITE: SMART GRID MONITOR — SHANNON-EDDINGTON POC") print("=" * 60) # Simulating a Solar 48V Bus (values in 0.1 V increments, 60 Hz AC grid) raw_data = [480, 481, 480, 430, 480, 481, 482, 481, 481, 480] signal_hz = 60.0 # grid frequency snr_db = 60.0 # typical 10-bit ADC SNR snr_linear = 10 ** (snr_db / 10.0) bandwidth_hz = signal_hz * 2 # Nyquist # ── Spectral analysis ────────────────────────────────────────────────── band, band_desc = signal_band(signal_hz) H = shannon_entropy(raw_data) # bits/sample H_total = H * len(raw_data) # total bits capacity = shannon_capacity(bandwidth_hz, snr_linear) N = optimal_dimensions(H_total, bandwidth_hz, snr_linear) bits_per_ch = max(1, math.ceil(H)) # Landauer-optimal depth print(f"[SPECTRAL] Band : {band} — {band_desc}") print(f"[SPECTRAL] H(X) : {H:.4f} bits/sample") print(f"[SPECTRAL] Total entropy: {H_total:.2f} bits ({len(raw_data)} samples)") print(f"[SPECTRAL] Shannon cap : {capacity:.2f} bits/s") print(f"[SPECTRAL] Optimal dims : {N}") print(f"[LANDAUER] Min energy : {landauer_cost(H_total):.3e} J") print(f"[OPTIMAL] Bit depth : {bits_per_ch} bits/channel (ceil of H)") print("-" * 60) # ── Market baseline ──────────────────────────────────────────────────── packed = struct.pack('H' * len(raw_data), *raw_data) market_bytes = len(zlib.compress(packed)) market_util = eddington_utilization(market_bytes * 8, capacity * len(raw_data)) print(f"[MARKET] Zlib size : {market_bytes} bytes (λ={market_util:.4f})") print("-" * 60) usc = USCLiteSimulator() # ── Degraded (open) mode ─────────────────────────────────────────────── print("[INIT] Core in 'Degraded' (Open) mode — 8-bit raw...") total_deg_bits = 0 for i in range(5): packet, nbits = usc.generate_packet(raw_data[i], 200, 8) total_deg_bits += nbits print(f" Frame {i:02}: 0x{packet:02X} ({nbits} bits)") # ── ZK-STARK activation ──────────────────────────────────────────────── usc.verify_and_activate(STARK_PROOF_EXPECTED) # ── Licensed mode — entropy-optimal depth ───────────────────────────── print(f"\n[PROD] Licensed mode — {bits_per_ch}-bit/channel (entropy floor)...") total_lic_bits = 0 for i in range(5, 10): packet, nbits = usc.generate_packet(raw_data[i], 200, bits_per_ch) total_lic_bits += bits_per_ch print(f" Frame {i:02}: 0x{packet:02X} ({bits_per_ch} bits — Landauer justified)") lic_bytes = total_lic_bits / 8 lam = eddington_utilization(total_lic_bits, capacity * 5) print("\n" + "=" * 60) print(f" Degraded : {total_deg_bits/8:.1f} bytes") print(f" Licensed : {lic_bytes:.2f} bytes") print(f" Market : {market_bytes} bytes") print(f" λ_Edd : {lam:.4f} (1.0 = Shannon limit)") print(f" Basis : {N}-D soliton | {band} band | H={H:.4f} b/sample") print("=" * 60) if __name__ == "__main__": run_sovereign_poc()