Skip to content
Radio masts and small equipment huts on a snow-covered mountain shoulder under a deep blue sky

Arctic sensor networks

Connecting the Unreachable

Data home from the most remote places, over one radio network with one shared uplink.

  • DTU X-Tech2026 winner
  • PSV, PreSeed VenturesAdvancement Award
  • DTU SkylabIncubator
Follow the build on LinkedIn

What we do

A terrestrial network for sites with no infrastructure.

Data blind spots between visits, and an energy-inefficient terminal at every station. We replace both with one telecommunication network, designed and tested for the Arctic.

The full technology, with every detail
  1. A grey NUNA node clamped to a mast beside a weather sensor, on a rocky headland above the sea

    01

    A node goes on each station

    One battery-powered radio on the mast you already have. No infrastructure needed.

  2. A grey weatherproof enclosure with the NUNA wordmark and an upright antenna, on a plain light background

    02

    The nodes form one self-healing network

    If one node drops out, the others route around it. Built so no data is lost.

  3. A logger box, a small solar panel and a GNSS antenna on an instrument pole against a pale sky

    03

    Each node sends in its own time slot

    A shared schedule tells every node when to send. In between, it stays in deep sleep.

  4. A small stone equipment hut with a lattice radio mast, satellite dishes and a bank of solar panels on a dry hilltop

    04

    One uplink carries it home

    One connection for the whole site. A quiet station shows up in the data.

Use cases

Who we help, and what changes for them

The software

Plan the site on real terrain. Watch it from one screen.

Working tool

Mesh planner

Plan every node and link on real terrain before anyone flies out. Results are modelled, not measured.

In development

NUNA Console

Every node and field team on one screen, with an alert when something goes quiet. Shown with simulated data.

NUNA Console overview for a demo site, marked simulated data: nodes online, packets delivered, open alerts, a map of the mesh and an SOS from a field team
The NUNA mesh planner on satellite imagery of a West Greenland valley, with an uplink, three relays, six sensors, link lines and modelled coverage shaded across the terrain

Where we are

The first tests passed, and the field comes next.

In a climate chamber at DTU
tested down to minus 40 degrees Celsius
LoRa packets sent at -40°C, acknowledged by the receiver
over 98 percent of about 19,600 LoRa radio packets sent at minus 40 degrees Celsius were acknowledged by the receiver
Area one network is designed to cover target
about 31,000 square kilometres, a V2 design target

Next is the V2 node in a weatherproof casing, then our first field deployment in summer 2027.

A valley glacier flowing between bare grey mountains into a meltwater lake, under a clear sky

Built at DTU

Four of us, at DTU Skylab in Lyngby.

Nikitas drawing mountains and the NUNA logo on a whiteboard while Rafael works on a laptop beside him
Three V1 circuit boards with an antenna inside a frosted climate chamber
Our test desk beside the climate chamber at DTU: a V1 board, a laptop showing the live test data, cables and tools, with sensor leads running through the chamber wall
The assembled V1 board, green, with terminal blocks along its edges and an antenna cable attached