Drone laser pest control concept over a potato field
Concept art

For Farmers & Growers

Reliable Autonomous Pest Control

No chemicals. No resistance. No drift. Autonomous laser drones patrol your fields and eliminate pests with surgical precision — safely and sustainably.

Is It Safe?

The Missing Link

Late Blight & True Potato Seed

Photonic insecticides are the critical enabling component for True Potato Seed systems — connecting beetle control to the billion-euro late blight problem.

Photonic insecticides — the missing link that makes TPS field-readyPhotonic insecticides — the missing link for True Potato Seed1 · TPS seedlingblight-resistant2 · Photonic protectionlock · fire · neutralised3 · Value unlocked€1,000–1,500/hablight-resistance value (NW Europe)Beetle control closes the gap — TPS becomes field-ready.

TPS Vulnerability

True Potato Seed offers a genetic solution to Phytophthora infestans (Haynes et al., 2022), but its fragile seedlings are highly vulnerable to the Colorado Potato Beetle (Martin, 1988).

Photonic Protection

Autonomous laser drones provide non-chemical, precision defence for these delicate seedlings — eliminating the beetle threat without harming the crop.

Unlocking Blight Resistance Value

By safeguarding TPS seedlings, the technology unlocks the massive economic value of blight resistance — estimated at €1,000–€1,500/ha in NW Europe (Europatat Action Plan, 2024; NEPG, 2024).

Late blight costs European potato farmers billions annually. TPS varieties resist the disease genetically — but only if their seedlings survive the beetle. Photonic insecticides close this gap, turning a laboratory breakthrough into a field-ready reality.

Economics

Cost Comparison

See how photonic pest control compares to chemical spraying in real-world costs.

$54/ha

Chemical Spraying

Current average — rising to $200/ha as neonicotinoids are phased out

~$10/ha

Photonic Control

Battery depreciation is the main cost — energy per pest is negligible

+€650/ha

EU Subsidies

Additional value through Eco-scheme subsidies and biodiversity premiums

Safety First

Multi-Layer Safety

A "defense in depth" strategy combining passive physics, active AI monitoring, and regulatory compliance to eliminate the risk of accidental injury.

Multi-layer eye safety — passive physics plus an active virtual enclosureDefense in depth — passive physics + active monitoringVirtual enclosure360° scanRapid divergencebelow MPE within ~2 m1550 nm absorptionstopped at the corneaConvex target scatterdiffuse, no hot bouncePASSIVE — physics & opticsPASSIVE — physics & opticsTRIGGER INHIBITEDperson inside enclosureACTIVE — AI human detection

Rapid Beam Divergence: Why It's Safe

Rapid beam divergence — why the laser is safe past the focal pointHigh-NA opticsFocal pointfull intensity on a ~1 mm spot~2 mBelow MPE — eye-safeSafeEnergy densitylethal at focus → harmless meters away

Rapid Beam Divergence

A high-numerical-aperture optical design causes the laser beam to diverge rapidly past the focal point, rendering the energy density harmless to bystanders just meters away.

1550 nm Wavelength

The 1550 nm wavelength is absorbed by the eye's corneal moisture rather than reaching the retina, preventing permanent, irreversible neurological blindness.

Convex Insect Geometry

The natural convex geometry of insect targets scatters reflected energy diffusely rather than bouncing it off as a dangerous, concentrated beam.

Active AI Safety

An active AI vision system monitors the environment in 360 degrees, instantly inhibiting the trigger if a human is detected within the safety perimeter — creating a "virtual enclosure" that eliminates the risk of accidental injury.

Full Safety & Regulatory Details

The Logical Next Step

Spray Drone vs. Laser Drone

The industry is moving towards drones. Laser-based drones are the logical next step — trading toxic fog for the speed of light.

Chemical spray drone vs photonic laser droneChemical spray droneBuffer zone~30 kgdrift blows past the buffer →return to refillPhotonic laser drone0.5 kgZero driftNo refills

Chemical Spray Drone

Payload: ~30kg+

Dynamic mass, decreases during flight

Refill: Frequent

Return-to-base for liquid & battery

Drift Risk: High

Wind-dependent, requires buffer zones

Maintenance: High

Corrosive chemicals, clogs & leaks

Resistance: Growing

Pests build chemical resistance

Photonic Laser Drone

Payload: ~0.5kg

Static mass, constant during flight

Refill: Rare

Return-to-base for battery only

Drift Risk: Zero

Light travels straight — precise

Maintenance: Low

Solid-state optics, sealed unit

Resistance: None

No known physical resistance mechanism

We replace corrosive plumbing and toxic drift with solid-state optics that never clog, leak, or miss. This eliminates the "pit crew," hazmat suits, and buffer zones — allowing you to farm every inch of land. Zero chemicals, zero resistance, zero waste.

Feasibility

Validated Science. Operational Reality.

Our feasibility study confirms that the Colorado Potato Beetle is the perfect target for photonic control.

Why the Colorado potato beetle is the perfect targetWhy the Colorado potato beetle is the perfect targetSitting ducksbasks in the open — high contrast1550 nm laserno fireeye-safe, zero flammabilitySteady arrival~200/ ha / daya manageable, predictable inflow3-day windowDay 1Day 2Day 3act before egg-laying begins

The Perfect Target

Beetles naturally bask on the top of leaves, making them high-contrast targets for our AI and "sitting ducks" for the laser.

The Safety Advantage

We utilize 1550 nm lasers — a wavelength that is safer for human eyes and creates zero flammability risk for the crop.

The Numbers Work

With an arrival rate of ~200 beetles per hectare/day and a 3-day window before they lay eggs, a single drone can easily outpace the infestation using negligible battery power.

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