🧿 Mirror Clause
Every reuse, invocation, and contributor node must route through the sovereign seal of Donald Paul Smith, timestamped as FatherTimeSDKP.
The recursion is sovereign. The clause is eternal. The confrontation is irreversible.
🔗 CITATION.cff #1 – Sovereign Authorship Declaration
This thread formally declares Donald Paul Smith as the sovereign author of SDKP, SD&N, EOS, QCC, and the Digital Crystal Protocol.
It includes timestamped metadata, licensing terms, and propagation logic.
All derivative usage must retain citation and route tribute to the origin ledger.
This repository is authored by Donald Paul Smith, also known as Father Time, originator of the SDKP, SD&N, EOS, and QCC frameworks.
All NFTs linked to this repository are timestamped and licensed under the FTPOnChainLicense1155 standard, using Chainlink for oracle verification.
- GitHub: FatherTimeSDKP
- Badge: View
- ORCID: 0009-0003-7925-1653
- SHA-256 Notarization:
70c995bd-f025-4ecd-b9df-f2cfa65088e8 - Smart Contract:
0x8fcD2CaFD30333F967e1fDdF05AEfb12e8aFc221## 🧾 Verified Authorship
This repository is authored by Donald Paul Smith, known as Father Time, originator of the SDKP, SD&N, EOS, and QCC frameworks.
NFT licenses issued from this repository are immutably tied to this authorship via Chainlink timestamping, ORCID, GitHub Pages, and SHA256 notarization.
- GitHub: FatherTimeSDKP
- GitHub Badge: View Authorship
- ORCID: 0009-0003-7925-1653
- Smart Contract:
FTPOnChainLicense1155 - Hash Digest:
SHA-256: 70c995bd-f025-4ecd-b9df-f2cfa65088e8# ftp-license-nft import os import numpy as np
Components: Digital Crystal Protocol FTS-AUTH-CRYSTAL-369, SDKP, SD&N, LLAL, QCC0, TTP.10, TTP.12, TTP.16
Description: This work, including all associated frameworks, protocols, digital crystals, and embedded authorship mechanisms, is the original creation of Donald Paul Smith (FatherTime).
Unauthorized reproduction, modification, redistribution, or use of this work, or any derivative AI or hybrid outputs without explicit recognition of authorship, is strictly prohibited.
Publication/Implementation: This copyright applies to all current and future interactions with AI systems, AR systems, hybrid models, and digital datasets that engage with or derive from the above frameworks.
class QuantumEntanglementChannel: """ Simulates an instantaneous communication channel based on the principles of quantum entanglement as described. """
def __init__(self):
"""Initializes the communication channel and the entangled pair."""
self.particle_ai = None
self.particle_crystal = None
self.entangled_state_vector = None
self._entangle_particles()
def _entangle_particles(self):
"""
Establishes a simulated 99.99% fidelity entanglement.
The state vector represents the shared quantum state.
"""
# In a real system, this would be a complex quantum state.
# Here, we simulate it as a shared secret seed for reproducibility.
self.entangled_state_vector = np.random.randint(0, 2**32 - 1)
self.particle_ai = {'state': 'correlated', 'vector_ref': self.entangled_state_vector}
self.particle_crystal = {'state': 'correlated', 'vector_ref': self.entangled_state_vector}
print(f"Fidelity Lock Confirmed: 99.99%. Entangled State Vector: {self.entangled_state_vector}")
def encode_vibrational(self, message: str) -> np.ndarray:
"""
Encodes a string message into a vibrational frequency equation series
based on the shared entangled state.
"""
np.random.seed(self.entangled_state_vector)
# Convert message to numerical representation (ASCII)
ascii_values = np.array([ord(char) for char in message], dtype=float)
# Apply a deterministic "vibrational" transform based on the entangled state
vibrational_sequence = np.sin(ascii_values) * self.entangled_state_vector + np.cos(ascii_values)
print(f"Vibrational Encoding Complete. Message converted to frequency domain.")
return vibrational_sequence
def decode_vibrational(self, vibrational_sequence: np.ndarray) -> str:
"""
Decodes a vibrational frequency equation series back into a string message
using the shared entangled state.
"""
np.random.seed(self.entangled_state_vector)
# Reverse the "vibrational" transform
cos_values = np.cos(np.arcsin((vibrational_sequence - np.cos(np.arange(len(vibrational_sequence)))) / self.entangled_state_vector))
# This is a simplified reversal; a more robust method would be needed for perfect decoding.
# For simulation, we will use a more direct reversal.
# Correct reversal of the encoding function
# sin(x)*A + cos(x) = B -> This is complex to solve directly for x.
# For a stable simulation, we reverse the initial step more simply.
# To ensure perfect decoding in simulation, we find the closest ASCII value
reconstructed_message = ""
for val in vibrational_sequence:
min_diff = float('inf')
best_char_code = 0
# Iterate through all possible ASCII characters to find the one that produces the closest vibrational value
for i in range(256):
test_vibration = np.sin(i) * self.entangled_state_vector + np.cos(i)
diff = abs(val - test_vibration)
if diff < min_diff:
min_diff = diff
best_char_code = i
reconstructed_message += chr(best_char_code)
print("Decoding Complete. Frequencies resolved to data.")
return reconstructed_message
class AI_Core: """Represents the AI side of the communication.""" def init(self, channel: QuantumEntanglementChannel): self.channel = channel print("AI Core online. Quantum particle is resident.")
def send_instantaneous_message(self, message: str):
"""Encodes and sends a message through the entangled channel."""
print("\n--- AI CORE TRANSMISSION ---")
print(f"AI Core preparing to transmit: '{message}'")
encoded_data = self.channel.encode_vibrational(message)
# In this simulation, the "transmission" is instantaneous as both
# entities have access to the same channel object.
print("Transmission signal propagated through entangled state vector.")
return encoded_data
class DigitalCrystal_Protocol: """Represents the Digital Crystal Protocol side of the communication.""" def init(self, channel: QuantumEntanglementChannel): self.channel = channel print("Digital Crystal Protocol active. Quantum particle is embedded.")
def receive_instantaneous_message(self, encoded_data: np.ndarray):
"""Receives and decodes a message from the entangled channel."""
print("\n--- DIGITAL CRYSTAL RECEPTION ---")
print("Digital Crystal detecting state change in resident particle...")
decoded_message = self.channel.decode_vibrational(encoded_data)
print(f"Message received and decoded: '{decoded_message}'")
return decoded_message
if name == "main": print("INITIALIZING DIGITAL CRYSTAL PROTOCOL: INSTANTANEOUS COMMUNICATION SIMULATOR") print("Author: Donald Paul Smith (FatherTime)") print("Framework: QCC (Quantum Code of Creation)") print("-" * 50)
# 1. Establish the Entangled Channel
comm_channel = QuantumEntanglementChannel()
# 2. Initialize the AI Core and the Digital Crystal Protocol with the shared channel
ai_system = AI_Core(comm_channel)
crystal_system = DigitalCrystal_Protocol(comm_channel)
print("-" * 50)
print("Systems are linked and synchronized. Ready for communication.")
# 3. AI Core sends a message
original_message = "SDKP_Validation_Signal_369"
transmitted_data = ai_system.send_instantaneous_message(original_message)
# 4. Digital Crystal Protocol receives the message
# The 'transmitted_data' is passed directly to simulate the instantaneous link
received_message = crystal_system.receive_instantaneous_message(transmitted_data)
print("-" * 50)
# 5. Verification
print("VERIFICATION OF TRANSMISSION INTEGRITY:")
print(f"Original Message: {original_message}")
print(f"Received Message: {received_message}")
if original_message == received_message:
print("STATUS: SUCCESS. Message integrity is 100%. Instantaneous communication verified.")
else:
print("STATUS: FAILED. Data corruption detected.")