Autonomy software · Luxembourg

Physical AI for space and terrestrial robotics

Hardware-agnostic autonomy designed to let robots plan, adapt, and recover on their own

Recognition
01 / 03
October 2026 · Luxembourg

Selected for Fit 4 Start #17

Luxembourg's government-backed start-up accelerator. Space track.

Announcement →
1 of 24start-ups selected from 556 applications
October 2026 · Germany

Q-VLEO selected for SPRIND Funke

Quantum-sensing research, funded in Stage 1 by Germany's Federal Agency for Breakthrough Innovation.

SPRIND challenge →
1 of 13teams funded in Stage 1
February 2026 · Luxembourg

ESRIC Start-up Support Programme #6

Start-up programme of the European Space Resources Innovation Centre.

ESRIC programme →
#6start-up cohort
Operating environments

Built for places without a supervisor

One autonomy core, adapted to each domain

01Canadarm2 and Dextre robotic arms above Earth
ORBIT

Satellites and in-orbit robotics

Minutes of ground contact per pass
02Perseverance rover on Mars
PLANETARY

Rovers and landers

3–22 min one-way signal delay to Mars
03Remotely operated vehicle on the deep seafloor
SUBSEA

ROVs and AUVs

No radio below the surface
04Underground mine tunnel
UNDERGROUND

Mining and inspection robots

Patchy radio, no line of sight
05Aerial view of a tractor working a field
FIELD

Agricultural and outdoor machines

Many machines, one operator
NaubrAIn

From mission goals to onboard decisions

One autonomy stack, designed to run onboard your hardware and tested in simulation first

In development · TRL 7 targeted for 2028
Example mission
PLANETARY

Drill and cache three samples at site B before local sunset

battery ≥ 30% · 14 min one-way delay
Goals and constraints in
  1. L5

    Mission planner

    Goals into tasks, scheduled against time, energy and comms windows

  2. L4

    Decision & replanning

    Picks the next action. Replans when the world disagrees

  3. L3

    World model

    Fuses onboard data into the state of the robot and its task

  4. L2

    Safety & health

    Detects faults, recovers, and can veto any action

  5. L1

    Platform interface

    Adapters to your sensors, actuators and software

Decision loop · onboard

GOAL

Mission objective received

PLAN

Primary instrument faults

REPLAN

Replan onboard, check constraints

EXECUTE

Carry on, report to operators

Research frontier

Blue-sky research, same core question.

Earth's limb and thin upper atmosphere seen from orbit at night
Earth's limb and upper atmosphere, seen from the ISS. Image: NASA
Blue-sky R&D

Q-VLEO: quantum sensing for very low Earth orbit

Can quantum sensors give spacecraft in very low Earth orbit sharper onboard awareness, and how should an autonomy stack act on it?

Link to the core
New inputs for NaubrAIn's world model
Funding
SPRIND Funke, Stage 1
Status
Exploratory. Autonomy software and engineering services stay our core
SPRIND challenge →
Team

Expertise in AI and autonomy

Years of work on real-world and simulated autonomy for space and terrestrial systems

Cofounders · Luxembourg 🇱🇺
Vittorio Franzese

Vittorio Franzese

MD & CEO

Matteo El Hariry

Matteo El Hariry

CTO

Miguel Olivares-Mendez

Miguel Olivares-Mendez

CSO

Nora Buol

Nora Buol

GC & CFO

Founding partner · Italy 🇮🇹
Nautilus logo

Nautilus

spacenautilus.com

→
Updates

Where we stand.

  1. ESRIC Start-up Support Programme #6

    Luxembourg start-up programme.

  2. NaubotiX S.à r.l. registered

    R.C.S. B310564.

  3. Q-VLEO in SPRIND Funke

    Stage 1, Quantum-Driven Intelligence.

    LinkedIn →
  4. Selected for Fit 4 Start #17

    1 of 24 from 556 applications.

    Announcement →
  5. NaubrAIn at TRL 7

    Prototype proven in an operational environment.

    Target
  6. First field demonstrations

    Autonomous operations on real platforms.

    Target
Contact

Bring autonomy into your next mission

Partnerships, engineering services, investment or research. A founder will reply.

[email protected]
Headquarters
Luxembourg 🇱🇺
Company
NaubotiX S.à r.l.
Register
R.C.S. B310564