SKYDOME

Overview

SKYDOME is a non-chemical, climate-based locust suppression system: instead of exterminating, it removes the breeding and flight conditions swarms need. Localized atmospheric ionization raises humidity and induces rainfall (conditions adult locusts avoid and larvae cannot survive); AI predicts swarm movement from satellite and meteorological data; drones deploy TEG-based aerosols carrying safe biological and mineral payloads to disrupt swarm cohesion. No poisons, no residue — "environmental inversion" makes the land inhospitable before swarms arrive.

Applications

Pre-emptive locust suppression across the >20 million km² global risk zone (60+ countries); deployable across borders, near water, villages, protected zones, conflict areas, deserts, and highlands where chemical sprays are restricted.

Users: agriculture ministries, agri-defense and biosecurity agencies, food-security programs.

Operating Principle

Locusts thrive in low-humidity zones after rain; SKYDOME brings humidity early. Ion generators push charged particles into the air, stimulating microcondensation and localized rainfall; drones then spread TEG aerosols to enhance precipitation targeting and deliver neutral carriers for bioactive agents such as entomopathogenic fungi. Humidity well above the ambient baseline triggers stress behavior — locusts avoid landing, stop egg-laying, and disperse; eggs/larvae suffer delays or mortality. The swarm collapses from "climate denial," not poison.

Division of roles — area and point. SkyManager operates at area scale: an array of ground-based ionizers works in coordination to influence atmospheric conditions across a wide surrounding region. That area-level effect does not by itself give precision at the level of a specific field or a swarm's exact path. Precision comes from a second stage: drones apply ARBOK's thermally expanded graphite directly over the infested area. The material further promotes cloud formation and precipitation — including in conditions where rain would not otherwise be forecast — and simultaneously acts as a carrier for the biological agents released alongside it. In this way, an area-wide rain effect is turned into a targeted tool.

Why rain. Rain washes out egg beds and breaks the reproduction cycle; it cools the air and soil, slowing larval development; and it makes flight difficult or impossible, so swarms avoid humid areas. Once humidity rises well above the ambient baseline, mass avoidance of the zone by adult locusts is observed, particularly among breeding females. No chemical residue is left in the soil.

Four components of the system:

1. SkyManager — the rain source, through atmospheric ionization.
2. Drones that deliver thermally expanded graphite and aerosols to infested fields.
3. AI that coordinates the system and predicts swarm movement.
4. Biological agents for gentle population reduction.

The stated goal is a climate barrier and swarm disorientation, without lethal chemical control.

Limitations: integrated system unproven at deployment scale; weather-modification efficacy and reliability are the key open questions.

Key Parameters

Atmospheric control: an array of SkyManager ground units with autonomous ion generators, sized to the protected area. Coverage: a single array induces precipitation over roughly 100–120 km². Cost per induced ton of rainwater: $0.10–0.20. Humidity target: a level well above the ambient baseline (suppresses flight/reproduction). Drones deploy TEG aerosol post-rain. Energy: low, fully electric, solar-compatible. AI: swarm-path prediction via satellite NDVI, radar, wind, humidity. Payloads: entomopathogenic fungi and inert mineral carriers, plus microbiome modifiers. Footprint: soil-safe, biodegradable, no bioaccumulation.

Note: rain-induction and suppression figures need field validation.

Architecture and Components

SkyManager ion-generator nodes (array); AI swarm-prediction module (satellite/radar/met data); drone fleet with TEG aerosol + biological/mineral payloads; payload options (entomopathogenic fungi and inert mineral carriers). Modular, mobile, electric/solar.

Advantages

Technical: removes swarm conditions rather than killing; no resistance over repeated use; pollinator/biodiversity-safe. Economic: $40–70/km² full-cycle vs $200–600/km² chemical; +30–35 % yield preservation; ROI 10–12× per season. Environmental: no poisons/residue, soil-safe, biodegradable. Strategic: cross-border, no pesticide legal restrictions near water/villages/protected zones; deployable in conflict zones.

Integrations

Combines SkyManager atmospheric units, TEG aerosol carriers, AI agri-forecasting, and drone deployment; complements ARBOK climate/atmosphere systems and biocontrol agents.

Deployment & Operation

AI predicts swarm path → position ion-generator array to induce humidity/rain ahead of the swarm → drones spread TEG aerosol + biocontrol post-rain. Modular, mobile, low-energy. Pre-deployment readiness checks underway in East Africa and MENA. Remaining: integrated field demonstration.

TRL

TRL 5 (confirmed by Michael). Validated in relevant environment at component level (ionizers, drones, AI modules operational), with the integrated SKYDOME system in pre-deployment readiness (East Africa, MENA) and field demonstration pending. (Legacy "TRL 6–7" set to 5 per Michael.)

TRL scale:

• TRL 1 — basic principles observed
• TRL 2 — technology concept formulated
• TRL 3 — experimental proof-of-concept
• TRL 4 — validated in lab
• TRL 5 — validated in relevant environment ← SKYDOME
• TRL 6 — demonstrated in relevant environment
• TRL 7 — prototype in operational environment
• TRL 8 — system complete and qualified
• TRL 9 — proven in operational environment

Market Potential

60+ countries face seasonal locust threats over a >20 million km² risk zone; the 2020 East Africa outbreak (worst in 70 years) affected 13+ million people with $1.3B losses. A non-chemical, cross-border, resistance-proof suppression system addresses agri-defense and food-security markets where chemicals are slow, toxic, and legally restricted.

Typical Project Economics

$40–70/km² full-cycle (weather + drones) vs $200–600/km² chemical; +30–35 % yield preservation; ROI 10–12× per season. Example: 1,000 ha barley = 3,200 t feed ≈ $800,000 lost if untreated — system pays for itself in a single crop cycle in outbreak zones.

Risk Factors

Integrated system unproven at deployment scale — weather-modification (rain induction) reliability is the central open question. Efficacy of humidity-based suppression vs real swarms needs field proof. Cross-border coordination and airspace/drone regulation. Dependence on accurate AI swarm prediction. Legacy TRL adjusted down pending integrated demonstration.

Related Technologies

· SkyManager

SkyManager-SMOG (Fog & Smog Remover) · Arbok-Repeel · TEG-Blanket