hobart, tasmania

instrumentation

measurement · interpretation · exploration

Instruments for investigating life in extreme environments.

We develop optical instruments with either AI local on board or software easily operated by your preferred agents. All of our instruments in deployment are fully text and image → experiment ready. Our robotic field systems carry the same stack, to measure how surfaces respond to changing conditions through time.

what is spectrophage?

V1 · working prototype

The Spectrophage is our first-generation biosignature sensor. It uses ultraviolet LEDs and a spectroradiometer to measure how material placed beneath its light-trapped dome reflects light across wavelength. It uses discrete UV-emitting channels, each independently controlled to illuminate a sample for the duration an experiment requires.

Matter absorbs and reflects specific wavelengths of light. Powered by the NVIDIA Jetson AGX platform, experimental workflows are automated with sequential signal band UV induction and full channel spectra acquisition.

Ultraviolet light is particularly interesting because of its high energy. By tracking a system's optical response over time, the Spectrophage can observe how that system changes as it is perturbed by controlled UV exposure.

illuminationDiscrete UV-emitting channels · independently controlled
detectorfull spectrum recorded under every channel · reflectance at fourteen wavelengths, 311–420 nm
calibrationevery reading a ratio to a reference panel · our own instrument calibration: LED levelling, detector response from dim to bright, accuracy checks against further panels
onboard computeNVIDIA Jetson AGX platform · AI assistant on board
capturesingle · multi-hour · multi-day capture of a surface

the assistant

onboard AI · runs on the instrument

The operator types: “Measure A, B and C, then put each under the 369 nm light for 5 min and measure it again.” The assistant drafts a plan for confirmation: targets A, B and C at 3 placements each, exposure set band by band, 369 nm light for 5 minutes with timepoints T0 and T+5 min, 10 spectra per target at each timepoint, and white standard and dark (lights off) references at the start. The panel notes: “Nothing changes until you confirm.” It ends: “Applied to the plan, with your edits.”

The Spectrophage software has an AI assistant built in. Describe an experiment in plain words and it drafts the plan on the page: the samples, the exposure, the light and the timing.

You edit anything and confirm. Nothing runs until you do. During a run it tells you what to place and when, and it cannot override the instrument's safety rules.

The model runs on the instrument's own computer, so the experiment and its data never need a connection.

Discuss an instrument

spectrophage V2

the next generation · in development

The next generation of our ultraviolet instrument adds LiDAR and spatial measurement to study how light interacts with matter.

By mapping the shape and arrangement of a surface, V2 is designed to relate its optical response to geometry across a region. This brings spatial context to the study of how surfaces respond to changing conditions.

The research behind the instrument

CAD render of the Spectrophage V2 camera head: a white cylindrical housing with a violet light line, a camera mount and cable glands on top, and a black light-trapping bellows below.
V2 camera head
CAD render, October 2026

Completing the instrument, calibrating these measurements and testing repeatability in laboratory and field trials are the next steps.

what is atlas?

in development

Atlas is a modular payload system for robotic fieldwork, bringing RGB cameras, scientific sensors and onboard computing together in a backpack powered by the robot.

It carries the same onboard AI stack as the Spectrophage, built to collect and interpret data in the field and host AI agents on the robot. Payloads can be configured around the research question, with processing close to the sensors where a continuous connection to base is impractical.

Atlas development design with three RGB cameras on a crossbar and tall mast, a blue modular payload enclosure, two antennas and a rear module.
Atlas with RGB cameras
CAD-referenced design illustration

Atlas retains the same enclosure dimensions in each view. ANYmal compatibility remains under development. Model credits.

Development is focused on sensor, power and onboard-compute integration with Boston Dynamics Spot, followed by field trials. Atlas is designed to be quadruped agnostic, currently compatible with the Spot and M20, and a wider range of quadrupeds is part of the path to bringing Atlas to market.

computeNVIDIA Jetson AGX platform
captureRGB cameras + scientific sensors · data collection
processingonboard inference · portable AI agents · data interpretation
payloadsmodular sensors, cameras and computing · quadruped integration

Towards Antarctic fieldwork

Discuss a field system

future field systems

Saber aerial integration concept: a fixed-wing VTOL aircraft with a compact blue Atlas-derived sensing bay.
Saber
Aerial integration concept

Saber explores Atlas-derived sensing, onboard inference and high-speed computing for real-time decisions in the field. The aim is to support monitoring and exploration in regions that are difficult to reach.

A future integration concept. Aircraft integration and flight validation remain development work.

Need something measured that no instrument measures?

Atlas view