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WAITUN/SarKaLay / SarKaLay_Base_12_Duodecimal_System.txt

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def to_duodecimal(n):
    """
    Decimal (Base-10) မှ Duodecimal (Base-12) သို့ ပြောင်းလဲပေးသော 
    SarKaLay Core Logic ဖြစ်သည်။
    """
    if n == 0:
        return "0"
    
    # Base-12 အတွက် သင်္ကေတများ (10 အတွက် X နှင့် 11 အတွက် E)
    digits = "0123456789XE"
    
    result = ""
    is_negative = False
    
    if n < 0:
        is_negative = True
        n = abs(n)
    
    while n > 0:
        result = digits[n % 12] + result
        n //= 12
        
    return "-" + result if is_negative else result

# စမ်းသပ်ခြင်း (Simulation)
test_numbers = [10, 11, 12, 156, 1728]
print(f"{'Decimal':<10} | {'Duodecimal (Base-12)':<15}")
print("-" * 30)

for num in test_numbers:
    print(f"{num:<10} | {to_duodecimal(num):<15}")
	
class SarKaLayQuantum:
    def __init__(self):
        self.base_symbols = "0123456789XE"
        self.key_length = 12  # Base-12 Key Length

    def encrypt_sa_logic(self, data):
        # အချက်အလက်များကို Base-12 ပြောင်းလဲပြီး "စ" spiral logic ဖြင့် ကုဒ်သွင်းခြင်း
        encoded_data = to_duodecimal(data) 
        # Quantum State Mapping (Simplified)
        quantum_spiral = [f"Spin-{self.base_symbols.index(s)*30}deg" for s in encoded_data]
        return quantum_spiral

# စနစ်အတွင်း အသက်သွင်းခြင်း
sk_quantum = SarKaLayQuantum()
print("Quantum Encryption Node: ACTIVE")

def to_duodecimal(n):
    """
    Decimal (Base-10) → Duodecimal (Base-12)
    SarKaLay Core Logic
    """
    if n == 0:
        return "0"
    
    # Base-12 symbols (10 = X, 11 = E)
    digits = "0123456789XE"
    
    result = ""
    is_negative = False
    
    if n < 0:
        is_negative = True
        n = abs(n)
    
    while n > 0:
        result = digits[n % 12] + result
        n //= 12
        
    return "-" + result if is_negative else result


# -----------------------------
# SarKaLay Quantum Intelligence
# -----------------------------

class SarKaLayQuantum:
    
    def __init__(self):
        self.base_symbols = "0123456789XE"
        self.key_length = 12   # Base-12 Quantum Key
        
    def encrypt_sa_logic(self, data):
        """
        SarKaLay Spiral Quantum Encoding
        """
        
        # Convert to Base-12
        encoded_data = to_duodecimal(data)
        
        # Spiral Quantum Mapping
        quantum_spiral = [
            f"Spin-{self.base_symbols.index(s)*30}deg"
            for s in encoded_data
        ]
        
        return {
            "decimal": data,
            "duodecimal": encoded_data,
            "quantum_state": quantum_spiral
        }


# -----------------------------
# Simulation Engine
# -----------------------------

print("SarKaLay Quantum Core: INITIALIZING...\n")

test_numbers = [10, 11, 12, 156, 1728]

sk_quantum = SarKaLayQuantum()

for num in test_numbers:
    result = sk_quantum.encrypt_sa_logic(num)
    
    print("Input Decimal :", result["decimal"])
    print("Duodecimal    :", result["duodecimal"])
    print("Quantum State :", result["quantum_state"])
    print("-" * 40)

print("\nQuantum Encryption Node: ACTIVE")

{
  "time_system": "SarKaLay_Chronos",
  "base": 12,
  "units": {
    "minute_per_hour": 12,
    "second_per_minute": 12
  },
  "symbols": ["0", "1", "2", "3", "4", "5", "6", "7", "8", "9", "စ", "ဓ"]
}
{
  "time_system": "SarKaLay_Chronos",
  "base": 12,
  "units": {
    "minute_per_hour": 12,
    "second_per_minute": 12
  },
  "symbols": ["0", "1", "2", "3", "4", "5", "6", "7", "8", "9", "စ", "ဓ"]
}

class SarKaLayChronos:

    def __init__(self):
        self.symbols = "0123456789စဓ"

    def to_base12(self, n):
        if n == 0:
            return "0"
        
        result = ""
        while n > 0:
            result = self.symbols[n % 12] + result
            n //= 12
            
        return result

    def convert_time(self, hour, minute, second):
        return {
            "hour": self.to_base12(hour),
            "minute": self.to_base12(minute),
            "second": self.to_base12(second)
        }


chronos = SarKaLayChronos()

print("SarKaLay Chronos Time:")
print(chronos.convert_time(10, 11, 5))

import hashlib
import secrets
from Crypto.Cipher import AES
from Crypto.Util.Padding import pad, unpad

class SarKaLayQuantumCore:
    def __init__(self):
        # Quantum Random Number Generation (Simulated)
        # အနာဂတ်တွင် QRNG Hardware နှင့် တိုက်ရိုက်ချိတ်ဆက်မည်
        self.quantum_entropy = secrets.token_bytes(32) 
        
    def generate_quantum_key(self, salt):
        """Quantum-Safe Key Derivation"""
        key_material = self.quantum_entropy + salt.encode()
        return hashlib.sha3_256(key_material).digest()

    def encrypt_data(self, plain_text, key):
        """Advanced Encryption Standard for SarKaLay"""
        cipher = AES.new(key, AES.MODE_CBC)
        ct_bytes = cipher.encrypt(pad(plain_text.encode(), AES.block_size))
        return cipher.iv + ct_bytes

    def decrypt_data(self, cipher_text, key):
        """Data Decryption with Error Handling"""
        iv = cipher_text[:16]
        ct = cipher_text[16:]
        cipher = AES.new(key, AES.MODE_CBC, iv)
        pt = unpad(cipher.decrypt(ct), AES.block_size)
        return pt.decode()

# --- SarKaLay System Execution ---

# ၁။ စနစ်ကို နှိုးဆွခြင်း
sar_ka_lay = SarKaLayQuantumCore()

# ၂။ Quantum-Safe Key တစ်ခုထုတ်ယူခြင်း (ဥပမာ - UserID ကို Salt အဖြစ်သုံးခြင်း)
user_id = "SarKaLay_Sentinel_001"
q_key = sar_ka_lay.generate_quantum_key(user_id)

# ၃။ အရေးကြီးဒေတာများကို သိမ်းဆည်းခြင်း
message = "SarKaLay Quantum Internet: Connection Established."
encrypted_msg = sar_ka_lay.encrypt_data(message, q_key)

print(f"🔒 Encrypted (Quantum-Ready): {encrypted_msg.hex()}")

# ၄။ ပြန်လည်ဖတ်ရှုခြင်း
decrypted_msg = sar_ka_lay.decrypt_data(encrypted_msg, q_key)
print(f"🔓 Decrypted Message: {decrypted_msg}")

SarKaLayQuantumCore
 ├── Quantum Entropy Generator
 ├── SHA3-256 Key Derivation
 ├── AES-256 Encryption
 ├── Secure Message Pipeline

class SarKaLayCognition:

    def think(self, data):
        perception = self.perceive(data)
        reasoning = self.reason(perception)
        decision = self.decide(reasoning)
        
        return decision

memory.store(
    event="sensor_alert",
    outcome="resolved",
    confidence=0.92
)
while True:
    state = observe()
    plan = reason(state)
    action = decide(plan)
    execute(action)
    learn()

	

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	def to_duodecimal(n):
	"""
	Decimal (Base-10) မှ Duodecimal (Base-12) သို့ ပြောင်းလဲပေးသော
	SarKaLay Core Logic ဖြစ်သည်။
	"""
	if n == 0:
	return "0"

	# Base-12 အတွက် သင်္ကေတများ (10 အတွက် X နှင့် 11 အတွက် E)
	digits = "0123456789XE"

	result = ""
	is_negative = False

	if n < 0:
	is_negative = True
	n = abs(n)

	while n > 0:
	result = digits[n % 12] + result
	n //= 12

	return "-" + result if is_negative else result

	# စမ်းသပ်ခြင်း (Simulation)
	test_numbers = [10, 11, 12, 156, 1728]
	print(f"{'Decimal':<10} \| {'Duodecimal (Base-12)':<15}")
	print("-" * 30)

	for num in test_numbers:
	print(f"{num:<10} \| {to_duodecimal(num):<15}")

	class SarKaLayQuantum:
	def __init__(self):
	self.base_symbols = "0123456789XE"
	self.key_length = 12 # Base-12 Key Length

	def encrypt_sa_logic(self, data):
	# အချက်အလက်များကို Base-12 ပြောင်းလဲပြီး "စ" spiral logic ဖြင့် ကုဒ်သွင်းခြင်း
	encoded_data = to_duodecimal(data)
	# Quantum State Mapping (Simplified)
	quantum_spiral = [f"Spin-{self.base_symbols.index(s)*30}deg" for s in encoded_data]
	return quantum_spiral

	# စနစ်အတွင်း အသက်သွင်းခြင်း
	sk_quantum = SarKaLayQuantum()
	print("Quantum Encryption Node: ACTIVE")

	def to_duodecimal(n):
	"""
	Decimal (Base-10) → Duodecimal (Base-12)
	SarKaLay Core Logic
	"""
	if n == 0:
	return "0"

	# Base-12 symbols (10 = X, 11 = E)
	digits = "0123456789XE"

	result = ""
	is_negative = False

	if n < 0:
	is_negative = True
	n = abs(n)

	while n > 0:
	result = digits[n % 12] + result
	n //= 12

	return "-" + result if is_negative else result


	# -----------------------------
	# SarKaLay Quantum Intelligence
	# -----------------------------

	class SarKaLayQuantum:

	def __init__(self):
	self.base_symbols = "0123456789XE"
	self.key_length = 12 # Base-12 Quantum Key

	def encrypt_sa_logic(self, data):
	"""
	SarKaLay Spiral Quantum Encoding
	"""

	# Convert to Base-12
	encoded_data = to_duodecimal(data)

	# Spiral Quantum Mapping
	quantum_spiral = [
	f"Spin-{self.base_symbols.index(s)*30}deg"
	for s in encoded_data
	]

	return {
	"decimal": data,
	"duodecimal": encoded_data,
	"quantum_state": quantum_spiral
	}


	# -----------------------------
	# Simulation Engine
	# -----------------------------

	print("SarKaLay Quantum Core: INITIALIZING...\n")

	test_numbers = [10, 11, 12, 156, 1728]

	sk_quantum = SarKaLayQuantum()

	for num in test_numbers:
	result = sk_quantum.encrypt_sa_logic(num)

	print("Input Decimal :", result["decimal"])
	print("Duodecimal :", result["duodecimal"])
	print("Quantum State :", result["quantum_state"])
	print("-" * 40)

	print("\nQuantum Encryption Node: ACTIVE")

	{
	"time_system": "SarKaLay_Chronos",
	"base": 12,
	"units": {
	"minute_per_hour": 12,
	"second_per_minute": 12
	},
	"symbols": ["0", "1", "2", "3", "4", "5", "6", "7", "8", "9", "စ", "ဓ"]
	}
	{
	"time_system": "SarKaLay_Chronos",
	"base": 12,
	"units": {
	"minute_per_hour": 12,
	"second_per_minute": 12
	},
	"symbols": ["0", "1", "2", "3", "4", "5", "6", "7", "8", "9", "စ", "ဓ"]
	}

	class SarKaLayChronos:

	def __init__(self):
	self.symbols = "0123456789စဓ"

	def to_base12(self, n):
	if n == 0:
	return "0"

	result = ""
	while n > 0:
	result = self.symbols[n % 12] + result
	n //= 12

	return result

	def convert_time(self, hour, minute, second):
	return {
	"hour": self.to_base12(hour),
	"minute": self.to_base12(minute),
	"second": self.to_base12(second)
	}


	chronos = SarKaLayChronos()

	print("SarKaLay Chronos Time:")
	print(chronos.convert_time(10, 11, 5))

	import hashlib
	import secrets
	from Crypto.Cipher import AES
	from Crypto.Util.Padding import pad, unpad

	class SarKaLayQuantumCore:
	def __init__(self):
	# Quantum Random Number Generation (Simulated)
	# အနာဂတ်တွင် QRNG Hardware နှင့် တိုက်ရိုက်ချိတ်ဆက်မည်
	self.quantum_entropy = secrets.token_bytes(32)

	def generate_quantum_key(self, salt):
	"""Quantum-Safe Key Derivation"""
	key_material = self.quantum_entropy + salt.encode()
	return hashlib.sha3_256(key_material).digest()

	def encrypt_data(self, plain_text, key):
	"""Advanced Encryption Standard for SarKaLay"""
	cipher = AES.new(key, AES.MODE_CBC)
	ct_bytes = cipher.encrypt(pad(plain_text.encode(), AES.block_size))
	return cipher.iv + ct_bytes

	def decrypt_data(self, cipher_text, key):
	"""Data Decryption with Error Handling"""
	iv = cipher_text[:16]
	ct = cipher_text[16:]
	cipher = AES.new(key, AES.MODE_CBC, iv)
	pt = unpad(cipher.decrypt(ct), AES.block_size)
	return pt.decode()

	# --- SarKaLay System Execution ---

	# ၁။ စနစ်ကို နှိုးဆွခြင်း
	sar_ka_lay = SarKaLayQuantumCore()

	# ၂။ Quantum-Safe Key တစ်ခုထုတ်ယူခြင်း (ဥပမာ - UserID ကို Salt အဖြစ်သုံးခြင်း)
	user_id = "SarKaLay_Sentinel_001"
	q_key = sar_ka_lay.generate_quantum_key(user_id)

	# ၃။ အရေးကြီးဒေတာများကို သိမ်းဆည်းခြင်း
	message = "SarKaLay Quantum Internet: Connection Established."
	encrypted_msg = sar_ka_lay.encrypt_data(message, q_key)

	print(f"🔒 Encrypted (Quantum-Ready): {encrypted_msg.hex()}")

	# ၄။ ပြန်လည်ဖတ်ရှုခြင်း
	decrypted_msg = sar_ka_lay.decrypt_data(encrypted_msg, q_key)
	print(f"🔓 Decrypted Message: {decrypted_msg}")

	SarKaLayQuantumCore
	├── Quantum Entropy Generator
	├── SHA3-256 Key Derivation
	├── AES-256 Encryption
	├── Secure Message Pipeline

	class SarKaLayCognition:

	def think(self, data):
	perception = self.perceive(data)
	reasoning = self.reason(perception)
	decision = self.decide(reasoning)

	return decision

	memory.store(
	event="sensor_alert",
	outcome="resolved",
	confidence=0.92
	)
	while True:
	state = observe()
	plan = reason(state)
	action = decide(plan)
	execute(action)
	learn()