Exo-Agriculture

Smart, autonomous monitoring for sustainable crop growing in orbit and on other planets

 

The Challenge of Growing Crops in Space

Long-duration space missions — from the International Space Station to future lunar or Martian bases — require autonomous food production systems to ensure crew survival and reduce dependence on resupply from Earth. Yet growing plants in extraterrestrial environments raises unprecedented challenges.

Microgravity, cosmic radiation, limited water resources and the absence of natural cycles make crops vulnerable and hard to manage by hand. On top of that, human intervention in these settings is expensive, risky and often simply impossible. Until now, no compact, accessible and intelligent system existed that could monitor plants' vital parameters in real time — soil moisture, temperature, light, nutrients — and act automatically to optimise growth.

The PlantBit Solution

PlantBit brings an innovative IoT system into space, designed specifically for extreme environments. A network of compact sensors continuously measures the key parameters of the crop, streaming data in real time to a mobile platform and to artificial intelligence algorithms. Astronauts can monitor plant health, receive predictive insights and trigger automated responses — such as controlled irrigation or lighting optimisation — with no need for constant supervision.

The value proposition is clear: a lightweight solution, easy to deploy and intuitive to use, that makes space agriculture reliable, efficient and scalable. PlantBit combines advanced IoT sensors, wireless data transmission and a mobile platform with embedded analytics, adapted to the extreme constraints of space while keeping it simple to use.

Applications for Space

PlantBit's Bioristor opens up new possibilities for human exploration and settlement in space. From research in orbit to future missions to the Moon and Mars, intelligent crop monitoring is essential to the success of long-duration missions.

On the International Space Station, Bioristor lets astronauts manage mini-crops with a precision never achieved before, optimising every resource and gathering critical data for future missions. In controlled environments simulating the reduced gravity of the Moon and Mars, the system delivers real-time information on how plants respond, supporting research into biological sustainability.

For lunar bases and future Martian colonies, Bioristor is a key component of self-sustaining infrastructure. Small, lightweight, reliable and free from frequent manual intervention, it keeps food production steady even under hostile environmental conditions, minimising biological risks and maximising the use of scarce resources such as water.

How Far Can Bioristor Go?

Environments and use cases for the Bioristor sensor in space.
Ground-Based Research Facility
ISS - International Space Station
Lunar Habitat
Martian Missions

 

Why PlantBit Is Different

In the space agriculture landscape, established solutions such as NASA's VEGGIE or ESA's MELiSSA are large-scale, high-cost systems built for institutional use. PlantBit takes a radically different approach.

Our competitive advantage lies in the combination of compactness, simplicity and accessibility. We deliver a fully integrated system that is easy to deploy, intuitive to use and scalable — making space agriculture viable not only for the major agencies, but also for research programmes and future commercial missions. Bioristor is not just a sensor: it is the foundation of an intelligent ecosystem for biological sustainability in space.

Our Path to Space

PlantBit has already developed and field-validated its smart irrigation service (TRL 8-9). The road ahead is ambitious and structured:

  • 2026: Adapting the hardware to space constraints; strengthening the AI decision-making system for biotic stress detection.
  • 2027: Launch of Bioristor 2.0, a self-installable wireless system, and of fert-Bioristor for nutrient management.
  • 2028: Expansion towards molecular-Bioristor for disease detection.

Every step is designed to increase reliability, cut costs and broaden the system's analytical capabilities — making Bioristor the reference sensor for space agriculture worldwide.