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AeroPotatocontrolled potato production
CONTROLLED POTATO PRODUCTION PLATFORM

Controlled potato production — from plant material to target tuber.

AeroPotato combines separate shoot and root/tuber environments, plant-state monitoring and robotic crop handling in one modular production architecture.

2separately controlled zones
4+3robotic architecture
≤48hemergency-design window

Final operating regimes, output and economics are validated through a pilot for the specific variety and production objective.

AeroPotato
SHOOT ZONElight · temperature · gases · humidity
ROOT / TUBER ZONEnutrition · microclimate · monitoring
WHY THIS ARCHITECTURE

Not one automated operation. One controlled biological process.

01

Control shoot and root needs independently

Two physically separated zones can run different climate and gas regimes.

02

Base decisions on plant state

Observation and measurements are used to change the regime, not just display data.

03

Keep non-ready tubers growing

Support, measurement and selective harvest enable different target specifications.

04

Scale only what has been validated

The modular architecture is scaled after pilot validation of variety response, output, energy and economics.

CLOSED CONTROL LOOP

The plant is the control reference.

AeroPotato observes the plant, interprets data, changes the regime and measures the response again through the growing cycle.

01Observe

leaves, roots, tubers and spatial position

02Analyse

images, spectral data and measurements

03Adjust

microclimate, nutrition and operating modes

04Validate

the variety map and production result

THE SYSTEM AT A GLANCE

Two biological zones. One control loop.

The system connects plant state to microclimate, nutrition and robotic operations without exposing critical constructive details.

HOW WE TREAT EVIDENCE

Separate the architecture, the validation and the protected know-how.

A deeptech project should be explicit about what belongs to the system, what a pilot must prove, and what remains proprietary.

ARCHITECTURE

What the system is designed to control

Separate environments, nutrition, monitoring, tuber support, robotic operations and emergency modes.

Explore technology →
PILOT

What must be validated for each project

Variety response, target output, regime stability, energy, productivity and unit economics.

Validation approach →
IP / KNOW-HOW

What is not disclosed publicly

Critical environment-distribution geometry and mechanics, plus other constructive details that form part of the technology know-how.

PATH TO AN INDUSTRIAL PROJECT

Validate first. Scale what works.

Every project starts with a measurable target and moves through a pilot before industrial scale-up.

01

Requirement

variety · product · volume · site

→
02

Specification

configuration and criteria

→
03

Pilot

controlled cycles and measurement

→
04

Validation

output · stability · energy · economics

→
05

Scale

replicate the validated architecture

NEXT STEP

Start with the product you need to produce.

For the first conversation, the target product, variety or variety group, approximate volume and project location are enough.

Discuss feasibility→