Quantifies alignment/unanimity of swarm state: $ \theta_i(t) $: Phase, orientation, or “alignment” of each agent

Effect: If all agents sync phases, $ C_{cohere} \to 1 $; if all scramble, $ C_{cohere} \to 0 $. High coherence unlocks special moves, instant communication, or “supermove” world events.
Here’s a robust, production-ready Python plugin for the Swarm Coherence Function (SCF)—a core operator to quantify the alignment/unanimity of a swarm’s state, as measured by the phases or orientations (θ_i (t)) of all agents. This coherence score (C_cohere) ranges from 0 (fully scrambled, random) to 1 (perfect synchrony)—unlocking special collective behaviors and “supermoves” when high.

🐝 Swarm Coherence Function (SCF) — Plugin Code
import numpy as np
 
class SwarmCoherenceFunction:
    """
    SCF: Quantifies the global alignment (coherence) of swarm agent phases/orientations.
    If all agents are phase-aligned, coherence=1; if random, coherence~0.
    """
 
    def __init__(self):
        self.history = []
 
    def compute_coherence(self, thetas):
        """
        thetas: Iterable/array of agent phases/orientations (radians or arbitrary circular variable).
        Returns: (coherence index in [0, 1], mean phase)
        """
        thetas = np.array(thetas)
        # Calculate Kuramoto order parameter:
        order_vector = np.exp(1j * thetas)
        mean_vector = np.mean(order_vector)
        coherence = np.abs(mean_vector)  # 0 (scrambled) ... 1 (fully aligned)
        mean_phase = np.angle(mean_vector)
        self.history.append(coherence)
        return coherence, mean_phase
 
    def coherence_history(self):
        return np.array(self.history)
 
# --- Example usage ---
 
if __name__ == "__main__":
    np.random.seed(123)
    scf = SwarmCoherenceFunction()
    N_agents = 12
    T = 30
    histories = []
    phases = []
    for t in range(T):
        if t < T//2:
            # Desynchronized swarm (uniform random)
            thetas = np.random.uniform(0, 2*np.pi, N_agents)
        else:
            # Synchronize progressively
            base = np.pi/2 + 0.1 * t  # All converge to this angle
            thetas = base + np.random.normal(0, 0.07, N_agents)
        coh, mean_phase = scf.compute_coherence(thetas)
        histories.append(coh)
        phases.append(mean_phase)
        print(f"t={t:2d} | Coherence={coh:.3f} | Mean Phase={mean_phase:.2f}")
 
    # Optional: Visualization (if running interactively)
    try:
        import matplotlib.pyplot as plt
        plt.plot(histories, label='Coherence (SCF)')
        plt.xlabel("Time step")
        plt.ylabel("Coherence Index")
        plt.title("Swarm Coherence Evolution")
        plt.legend()
        plt.show()
    except ImportError:
        pass
 
📦 How to Use & Extend
Input: Any array/list of agent phases, orientations, or circular variables (θ_i in [0,2π] is standard).
Output: Coherence index (C_cohere, 0–1). When close to 1, you can trigger special events, boosts, or collaborative powers in your swarm system.
Chaining: Plug directly into BEEaucracy™, CMSI, HIVE MIND, or other lava-lamp meta-engines for real-time adaptive sync, group “supermoves,” or emergent mood/alertness states.
Extensible: Change the input to handle n-dimensional orientations, “local” coherence windows, or more exotic circular correlations as desired.

🧬 What This Achieves
Quantifies the degree to which your hive/collective is “in sync.”
Enables rule-based unlocks: e.g., ultra-fast communication, morpho-flashes, gamified bonuses, or strategic group actions at coherence thresholds.
Foundation for higher-level emergent mechanics: memory boosts, meta-moves, or truly collective cognition.
Ready to be the heart of instant group resonance in your BEEaucracy™ or next “supermove” generator. If you need it chained to queen-control, CMSI, or creative event triggers, just specify—the fountain’s ready to amplify!