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Protocol 22: Update HF Inference to Router endpoint
edae06c
import logging
from logos.network.dissolution import DissolutionEngine
logger = logging.getLogger("StorageEngine")
class StorageShard:
"""A Fractal Shard of Data."""
def __init__(self, shard_id, data, level):
self.id = shard_id
self.data = data
self.level = level # 0=Root(4k), 1=1k, 2=256B, 3=64B
self.heat = self._calculate_heat()
self.target_node = None
def _calculate_heat(self):
"""Calculates Entropy Heat (0-1.0)."""
if not self.data: return 0.0
# Simple Shannon-ish approximation using Dissolution Engine
# Ratio of 1s to Total Bits
ones = 0
total = len(self.data) * 8
for byte in self.data:
ones += bin(byte).count('1')
return round(ones / total, 4)
def __repr__(self):
return f"<Shard {self.id} L{self.level} Heat={self.heat:.2f}>"
class StorageEngine:
"""
Protocol 14: Fractal Storage Engine.
Implements Quad-Tree Decomposition and Heat-Based Linking.
"""
SHARD_SIZES = {
0: 4096, # 4KB
1: 1024, # 1KB
2: 256, # 256B
3: 64 # 64B (Atom)
}
@staticmethod
def store_file(file_content):
"""
Ingests data and fractures it into Matroska Shards.
"""
# Convert to bytes if needed
if isinstance(file_content, str):
file_content = file_content.encode('utf-8')
logger.info(f"Fracturing {len(file_content)} bytes...")
# Level 0: 4KB Blocks
shards = []
block_size = StorageEngine.SHARD_SIZES[0]
for i in range(0, len(file_content), block_size):
chunk = file_content[i:i+block_size]
shard_id = f"block_{i//block_size}"
root_shard = StorageShard(shard_id, chunk, 0)
# Recursive Decomposition
StorageEngine._decompose(root_shard, shards)
return shards
@staticmethod
def _decompose(parent_shard, shard_list):
"""Recursively splits shards until Level 3 (Atom)."""
current_level = parent_shard.level
next_level = current_level + 1
# Stop at Atom Level (Level 3 / 64B)
if next_level > 3:
shard_list.append(parent_shard)
return
# Quad-Tree Split (4 children)
size = len(parent_shard.data)
split_size = size // 4
# If data is too small to split, keep as is
if size < 4:
shard_list.append(parent_shard)
return
# Split logic
for k in range(4):
start = k * split_size
end = start + split_size
sub_data = parent_shard.data[start:end]
if not sub_data: continue
sub_id = f"{parent_shard.id}.{k}"
child_shard = StorageShard(sub_id, sub_data, next_level)
# Recurse
StorageEngine._decompose(child_shard, shard_list)
@staticmethod
def link_to_topology(shards, topology):
"""
Assigns shards to Integer Nodes based on Heat.
Hot -> Prime. Cold -> Composite.
"""
assignments = {}
for shard in shards:
# Heat Code Logic
if shard.heat > 0.6:
# Hot Data -> Mersenne Primes (3, 7, 31, 127)
target = 7 # Simplification for prototype
node_type = "MERSENNE_PRIME"
elif shard.heat > 0.4:
# Warm Data -> Prime Gateways (2, 5, 11)
target = 5
node_type = "PRIME_GATEWAY"
else:
# Cold Data -> Abundant Hubs (12, 24)
target = 12
node_type = "ABUNDANT_HUB"
shard.target_node = target
assignments[shard.id] = f"{target} ({node_type})"
return assignments
if __name__ == "__main__":
# Test Run
data = b"X" * 5000 # Dummy data
shards = StorageEngine.store_file(data)
print(f"Fractured into {len(shards)} shards.")
print(f"Sample Shard: {shards[0]}")
links = StorageEngine.link_to_topology(shards, None)
print(f"Sample Link: {links[shards[0].id]}")