Growinspace

NuCLEUS

We work together

EsaNasaAstrolabNasa food challengeVast
EsaNasaAstrolabNasa food challengeVast
EsaNasaAstrolabNasa food challengeVast

We pave the way towards bioregenerative life-support systems by developing autonomous pods for plant cultivation beyond Earth.

Our space program

  • LEO - EDEN - RESEARCH2027
  • LEO - EDEN - Mission Little Prince 2027
  • MOON - BLOOM - RESEARCH2028
  • MOON - BLOOM - Mission Little Prince 2029
Mars Orbit
Earth Orbit
  • Earth
  • Orbital Stations
  • Moon
  • Mars

Micro-GResearch

Micro-G Research

Our microgravity research explores how plants adapt and respond to the unique conditions of space. By studying these stress responses at the cellular and molecular levels, we uncover mechanisms that are difficult to observe on Earth. This work enables the identification of traits linked to improved resilience, optimized growth, and the production of high-value bioactive compounds, with direct applications in agriculture, pharmaceuticals, and cosmetics.

Research

Microgravity Research

We explore how plants and living systems adapt to microgravity, enabling breakthroughs for long-duration space missions.

Eden payload in wireframe
Fig 1. Eden payload in wireframe

Discover Eden : next-gen payload for life-science research in orbit.

Advancing plant science in microgravity, Eden studies space-grown flora to benefit both off-world missions and Earth’s agriculture.

  • Eden 1.0 - Credit: Interstellar LabEden 1.0 - Credit: Interstellar Lab
    Fig 1Eden 1.0 - Credit: Interstellar Lab
  • Haven-1 Lab Experience - Credit: VastHaven-1 Lab Experience - Credit: Vast
    Fig 2Haven-1 Lab Experience - Credit: Vast
  • Eden in the Haven-1 Lab Eden in the Haven-1 Lab
    Fig 3Eden in the Haven-1 Lab
  • Vast Haven-1Vast Haven-1
    Fig 4Vast Haven-1

Eden in Orbit: Four Missions Inside Haven-1

Interstellar Lab is partnering with Vast to conduct cutting-edge research aboard Haven-1, a next-generation commercial space station scheduled to launch in 2027. Over a three-year period, this program will support four orbital missions, each carrying a crew of four astronauts for approximately fourteen days. During these missions, Eden 1.0 will be deployed within the station’s laboratory to perform a series of microgravity experiments, advancing our capabilities in space-based research. One of these missions, Mission Little Prince, will focus on growing roses in orbit, symbolizing both scientific innovation and a poetic exploration of life beyond Earth.

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OUR PARTNER

Vast’s Haven-1 is set to be the first commercial space station designed for microgravity research, development, and manufacturing. The Haven-1 Lab will provide a state-of-the-art platform for a variety of industries, from biotechnology and pharmaceuticals to advanced materials and scientific experiments. Haven-1 is scheduled to be the world’s first commercial station and will help foster a seamless transition ahead of the International Space Station (ISS) retirement in 2030.

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FoodProduction

Food Production

Developing autonomous bioregenerative food production systems for long-duration space missions. Our platforms cultivate fresh crops while recycling air, water, and nutrients, enabling a closed-loop ecosystem that supports astronaut health and mission sustainability in microgravity environments.

NUCLEUS

Food production system for long-term space missions:

pioneering autonomous space farming that turns microgravity into a self-sustaining lab for fresh, nutritious food.

NUCLEUS Wireframe
Fig 1. NUCLEUS Wireframe

Meet NuCLEUS.

An autonomous, intelligent food production system that grows fresh, nutritious crops in a closed-loop environment, recycling air, water, and nutrients for long-duration space missions.

  • NUCLEUSNUCLEUS
    Fig 1NUCLEUS
  • Freshly grown food ingredients in NUCLEUSFreshly grown food ingredients in NUCLEUS
    Fig 2Freshly grown food ingredients in NUCLEUS
  • A view of BioquarkA view of Bioquark
    Fig 3A view of Bioquark

HOW IT WORKS

NUCLEUS has 6 growing modules called BioQuarks, adaptable to different setups to grow sprouts, vegetables, insects, and mushrooms and 3 system modules for water treatment, air management and automation. This autonomous, intelligent food production system designed to support long-duration human space exploration by growing fresh microgreens, vegetables, mushrooms, and even insects in a closed‑loop, bioregenerative environment that recycles air, water, and nutrients. The modular system minimizes resource inputs while maximizing nutritious output, addressing critical challenges for sustained astronaut health on missions beyond Earth.

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US WINNER OF DSFC BY NASA

Interstellar Lab has emerged as the winner of NASA's Deep Space Food Challenge, taking home a total of $1 million in prize money. The cutting-edge food production system, NuCLEUS was specifically designed to support long-duration space missions by providing a sustainable, efficient, and nutritious food supply.

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LUNARGREENHOUSE

LUNAR GREENHOUSE

Our lunar greenhouse is being designed to survive the Moon’s extreme conditions while supporting plant growth and life. By studying how organisms adapt to low gravity, radiation, and harsh temperatures, we gather vital data for sustainable lunar habitats. This research will pave the way for durable, self-sufficient human presence on the Moon.

BLOOM

Growing Roses on the Moon

Our first step on the lunar surface. Studying how life adapts to low gravity, radiation, and extreme temperatures, we gather key data to enable sustainable, self-sufficient human habitats on the Moon

BLOOM
Fig 1. BLOOM

Discover Bloom.

Engineered for life-sciences research on the Moon, Bloom survives extreme conditions while supporting plant growth, gathering vital data to enable sustainable lunar habitats.

  • Astrolab's FLEX Rover installing Bloom on the Moon.Astrolab's FLEX Rover installing Bloom on the Moon.
    Fig 1Astrolab's FLEX Rover installing Bloom on the Moon.
  • Picture of Astrolab's FLEX Rover with first prototype of Bloom.Picture of Astrolab's FLEX Rover with first prototype of Bloom.
    Fig 2Picture of Astrolab's FLEX Rover with first prototype of Bloom.
  • Prototype of Bloom with red roses. Prototype of Bloom with red roses.
    Fig 3Prototype of Bloom with red roses.

OUR GOAL

Designed by Interstellar Lab, Mission Little Prince is program looking to grow roses in LEO, Moon and Mars in automated transparent plant pods and capture pictures of life growing in the Solar System. For the Moon Mission, the company partnered with Astrolab to install the payload with FLEX rover on the lunar surface. Mission Little Prince: Moon will be part of Astrolab’s Mission 1 on SpaceX Starship first flight to the Moon.

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OUR PARTNERS

In partnership with The Antoine de Saint Exupéry Youth Foundation The mission‘s objective is to inspire generations by making the Little Prince’s iconic rose multiplanetary. Leveraging on Interstellar Lab expertise and technological innovation, the rose will be grown on orbit around the Earth, on the Moon & Mars.INTERSTELLAR LAB PARTNERED WITH ASTROLAB TO INSTALL THE PAYLOADS ON THE LUNAR SURFACE WITH FLEX . MISSION LITTLE PRINCE WILL BE PART OF ASTROLAB’S MISSION 1.

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MOONBASE

MOON BASE

A vision for a bioregenerative station, integrating our autonomous controlled-environment biopods to provide FOOD, AIR AND water to the Moon Base. Our eBIOS concept is designed as a combination of Biopods to enable self-sustaining LONG-TERM HUMAN PRESENCE on the moon.

EBIOS

A self-sustaining Moon Base:

integration of biopods and bioregenerative life-support system to produce food, water, and air for long manned mission.

Ebios

Ebios

Fig 1. Ebios

Preparing for the Future of Lunar Habitation.

Ebios is designed with advanced life-support systems that recycle air, water, and nutrients, creating a self-sufficient environment for humans and plants alike.

  • EBiosEBios
    Fig 1EBios
  • Model of EBIOS on the Moon.Model of EBIOS on the Moon.
    Fig 2Model of EBIOS on the Moon.
  • EBiosEBios
    Fig 3EBios

OUR GOAL

BY closing the loop with the INTEGRAtion of biological systems including controlled-environment greenhouse, we ENSURE THAT EVERY RESOURCE IS EFFICIENTLY USED, MAKING LONG-TERM LUNAR MISSIONS FEASIBLE AND SUSTAINABLE. EVERY EXPERIMENT AND OBSERVATION AT EBIOS PROVIDES CRITICAL INSIGHTS INTO LIVING ON THE MOON. FROM PLANT GROWTH CYCLES TO HUMAN ADAPTATION, THE DATA COLLECTED WILL GUIDE THE DESIGN OF DURABLE HABITATS, LAYING THE GROUNDWORK FOR PERMANENT HUMAN PRESENCE AND EXPLORATION BEYOND EARTH.

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Interested in growing plants in space ?

From mission design to flying with our partners, we offer access to plant research in space.

MISSION PLANNING

  • DESTINATIONLEO
  • MISSION DURATION1 MONTH
  • PLANT SPECIESMadagascar Periwinkle
  • EXPERIMENTMicrogravity and Secondary Metabolites
CONTACT US TO BOOK YOUR MISSION