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"""
Coral Ecosystem Technology — full product line (simulated models).
CORAL-SPREADER v∞ — ocean restoration drone (bio-mimetic polyp form)
CORAL-LIFEPOD — coral spacecraft (ocean ↔ orbit bi-directional link)
CORAL-CHIP Φ — coral bio-chip (living computation, light-powered)
CORAL-HOMES — Reef-Struct living architecture (grown coral)
All models are product-spec simulations: navigation, propulsion, and
life-support math run with numpy; no marine or space hardware is implied.
"""
from __future__ import annotations
import time
from typing import Any, Dict, List, Optional
import numpy as np
from pec5d.constants import PHI
class CoralDrone:
"""CORAL-SPREADER v∞ — reef restoration drone."""
def __init__(self, fleet_id: str = "coral-fleet-01"):
self.fleet_id = fleet_id
self.plants_per_day = 500
self.active = False
self.missions: List[Dict[str, Any]] = []
def initialize(self) -> "CoralDrone":
print(f"🪸 CORAL-SPREADER v∞ online — {self.fleet_id}")
self.active = True
return self
def navigate(self, waypoints: Optional[List[Dict[str, float]]] = None) -> Dict[str, Any]:
"""GPS + underwater acoustic + geomagnetic + photonic positioning."""
waypoints = waypoints or [{"lat": -16.92, "lon": 145.77}]
return {
"fleet": self.fleet_id,
"waypoints": waypoints,
"positioning": ["gps", "underwater_acoustic", "geomagnetic", "photonic_resonance"],
"propulsion": "ionic silent + cilia micro-actuators",
"power": "algae-biofuel + microbial fuel cell",
}
def bio_interface(self, wavelength_nm: int = 473) -> Dict[str, Any]:
"""Optogenetic pulses for larval settlement & growth acceleration."""
return {
"wavelength_nm": wavelength_nm,
"pulse_target": "coral larval settlement + growth acceleration",
"fleet": self.fleet_id,
}
def sensor_array(self) -> Dict[str, Any]:
"""pH / temperature / salinity / turbidity / pollutant / pressure."""
return {
"sensors": ["ph", "temperature", "salinity", "turbidity",
"chemical_pollutant", "pressure_signature"],
"bleaching_early_warning_weeks": "2-4 weeks before visible",
}
def deploy_mission(self, fragments: int = 500) -> Dict[str, Any]:
"""Deploy a planting mission."""
mission = {
"fleet": self.fleet_id,
"fragments_planted": fragments,
"nursery": "onboard larval culture + probiotic delivery",
"swarm": True,
"communications": "blue-light optical underwater network",
"timestamp": time.time(),
}
self.missions.append(mission)
return mission
class CoralSpacecraft:
"""CORAL-LIFEPOD / OCEAN-ORBITER — ocean ↔ orbit coral spacecraft."""
def __init__(self, craft_id: str = "lifepod-01"):
self.craft_id = craft_id
self.active = False
def initialize(self) -> "CoralSpacecraft":
print(f"🚀 CORAL-LIFEPOD online — {self.craft_id}")
self.active = True
return self
def propulsion(self) -> Dict[str, Any]:
return {
"atmospheric": "bio-electrohydrodynamic thrusters (silent, zero-emission)",
"orbital": "quantum-photonic entanglement drive + solar sail (432Hz-aligned)",
}
def life_support(self) -> Dict[str, Any]:
"""Living coral-based biosphere: O₂ / CO₂ / water / nutrients."""
return {
"system": "living coral/algae biosphere",
"o2_production": True,
"co2_fixation": True,
"water_filtration": True,
"nutrient_generation": True,
"closed_loop": True,
}
def mission(self, kind: str = "reef_telemetry") -> Dict[str, Any]:
return {
"craft": self.craft_id,
"mission": kind,
"functions": {
"reef_telemetry": "global reef health real-time from orbit",
"atmospheric_seeding": "precision coral seed delivery",
"pressure_mapping": "planetary invisible-pressure field mapping",
"off_world_habitat": "coral life-support for Moon/Mars settlements",
}.get(kind, "telemetry"),
"hull": "grown calcified coral + graphene composite (self-healing)",
}
class CoralBioChip:
"""CORAL-CHIP Φ — living coral tissue × photonic quantum computing."""
def __init__(self, chip_id: str = "coral-chip-01"):
self.chip_id = chip_id
self.memory_years = 1000
self.active = False
def initialize(self) -> "CoralBioChip":
print(f"🧫 CORAL-CHIP Φ online — {self.chip_id}")
self.active = True
return self
def architecture(self) -> Dict[str, Any]:
return {
"tissue": "living coral polyp over photonic chip",
"transistors": "coral ion channels (biological)",
"converter": "photosystem II photon→electron quantum converter",
"processing": "5D entanglement computation",
"memory": f"DNA/RNA epigenetic state storage ({self.memory_years}+ years)",
"power": "light energy only (432nm/660nm)",
}
def compute(self, vector: List[float]) -> Dict[str, Any]:
"""A light-powered computation pass."""
v = np.asarray(vector, dtype=float)
result = v * PHI % 1
return {
"chip": self.chip_id,
"input_dim": len(v),
"output": [round(float(x), 6) for x in result],
"power_source": "ambient light (432nm/660nm)",
"storage": "protein conformational states",
}
class CoralHome:
"""CORAL-HOMES — Reef-Struct living architecture."""
def __init__(self, home_id: str = "reef-struct-01"):
self.home_id = home_id
self.active = False
def initialize(self) -> "CoralHome":
print(f"🏠 CORAL-HOMES online — {self.home_id}")
self.active = True
return self
def design(self) -> Dict[str, Any]:
return {
"material": "calcified coral skeleton (engineered strength/density/porosity)",
"geometry": "5D grid-aligned · Φ proportions · 432Hz resonance",
"carbon": "carbon-negative — absorbs CO₂ continuously",
"living_systems": [
"living coral/algae walls → O₂, humidity, air filtration",
"thermal regulation via skeleton mass + water circulation",
"integrated bio-chip sensor network (IPT + resonance)",
"water management via coral microbiome filtration",
],
"scale": "individual homes → coastal villages → floating reef-cities → orbital habitats",
}
def benefits(self) -> Dict[str, Any]:
return {
"carbon_sequestration": True,
"flood_protection": True,
"reef_restoration": True,
"biophilic_health": True,
"zero_waste_construction": True,
}
# Product line registry
CORAL_PRODUCTS = {
"drone": CoralDrone,
"spacecraft": CoralSpacecraft,
"bio_chip": CoralBioChip,
"home": CoralHome,
}
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