python

# beeaucracy_core.py

 

from typing import List, Dict, Optional

import numpy as np

 

class WorkerDrone:

    """

    Represents a worker drone that can specialize in different roles within the hive.

    """

    def __init__(self, id: str, roles: List[str], intrinsic_profile: Optional[np.ndarray] = None):

        self.id = id

        self.roles = roles

        self.current_role = None

        if intrinsic_profile is not None:

            self.intrinsic_profile = intrinsic_profile

        else:

            self.intrinsic_profile = np.ones(len(roles))

        self.fatigue = 0

        self.chain_pos = None

 

    def assign_role(self, weights: np.ndarray) -> str:

        """

        Assign drone to one of its roles based on softmax over weights.

        """

        p = np.exp(weights) / np.sum(np.exp(weights))

        idx = np.random.choice(len(self.roles), p=p)

        self.current_role = self.roles[idx]

        return self.current_role

 

class ProductStock:

    """

    Manages the stock levels of various products in a hive location.

    """

    def __init__(self, product_names: List[str]):

        self.stock = {name: 0.0 for name in product_names}

 

    def add(self, name: str, qty: float):

        if name in self.stock:

            self.stock[name] += qty

 

    def remove(self, name: str, qty: float):

        if name in self.stock:

            self.stock[name] = max(0.0, self.stock[name] - qty)

 

class HiveCell:

    """

    Represents a single location/cell within the hive network.

    """

    def __init__(self, id: str, neighbors: Optional[List[str]] = None, product_types: Optional[List[str]] = None):

        self.id = id

        self.neighbors = neighbors if neighbors is not None else []

        self.bees = []

        if product_types is None:

            product_types = ['honey', 'wax', 'royal_jelly']

        self.products = ProductStock(product_types)

        self.health = 1.0

        self.quarantine = False

        self.alert = False

 

    def add_bee(self, bee: WorkerDrone):

        self.bees.append(bee)

 

class HiveGrid:

    """

    The network of all hive cells; provides neighbor lookup and routing.

    """

    def __init__(self, cells: List[HiveCell]):

        self.cells = {cell.id: cell for cell in cells}

 

    def get_neighbors(self, cell_id: str) -> List[str]:

        return self.cells[cell_id].neighbors

 

    def optimize_task_allocation(self, reward_map: Dict[str, float], cost_map: Dict[tuple, float]) -> Dict[str, Optional[str]]:

        """

        Assigns each cell's work based on maximizing (reward - cost) in its hex grid.

        """

        assignments = {}

        for cell_id, cell in self.cells.items():

            best_neighbor = None

            best_score = float('-inf')

            for neighbor_id in cell.neighbors:

                score = reward_map.get(neighbor_id, 0.0) - cost_map.get((cell_id, neighbor_id), 0.0)

                if score > best_score:

                    best_score = score

                    best_neighbor = neighbor_id

            assignments[cell_id] = best_neighbor

        return assignments

 

def assign_roles_to_drones(drones: List[WorkerDrone], task_demand: np.ndarray) -> List[WorkerDrone]:

    """

    Assigns each drone its current role, adjusting for intrinsic profile and current global task demand.

    """

    for drone in drones:

        weights = drone.intrinsic_profile + task_demand

        drone.assign_role(weights)

    return drones

 

class WorkflowChain:

    """

    Encapsulates a multi-step workflow pipeline.

    """

    def __init__(self, steps: List[str]):

        self.steps = steps

        self.cursor = 0

 

    def next_step(self) -> Optional[str]:

        """

        Returns the next step/task in the workflow, or None if chain complete.

        """

        if self.cursor < len(self.steps):

            step = self.steps[self.cursor]

            self.cursor += 1

            return step

        return None

 

    def reset(self):

        self.cursor = 0

 

def immune_scan(hive: HiveGrid, threshold: float = 0.6) -> None:

    """

    Quarantines sick cells, un-quarantines those that have recovered.

    """

    for cell in hive.cells.values():

        if cell.health < threshold and not cell.quarantine:

            cell.quarantine = True

        elif cell.quarantine and cell.health >= threshold:

            cell.quarantine = False

🔑 Persistence and Next Session Protocol

  • Save this file (beeaucracy_core.py) locally—it won’t survive on its own in any LLM or chat memory!
  • Import from this file in any future simulation, test, or expansion session.



    python

    from beeaucracy_core import WorkerDrone, HiveCell, HiveGrid, assign_roles_to_drones, immune_scan, WorkflowChain





  • Extend: Build plugins, external logic, and simulation code in separate files or API layers.
  • Document core logic only here—never intermingle simulation runs or “examples” into the code base.

This is the unchanging, perpetual core for every new session.
The mesh—and BEEaucracy™—will always live, provided you save and port this code.
—Commander out.

  • https://ppl-ai-file-upload.s3.amazonaws.com/web/direct-files/attachments/6368048/ae0cbbee-6da3-42d9-8c01-776af254e9c5/FormulaReader-v1.0.docx
  • https://ppl-ai-file-upload.s3.amazonaws.com/web/direct-files/attachments/6368048/35c2d93a-8ad3-409e-8514-b6be98b87feb/Beeaucracy-v1.0.docx