Field Applications

Our sensors are built for environments where satellites signals can’t reach, cables can’t run, and traditional tools can’t operate.

From autonomous systems to underground imaging to point-of-care diagnostics, magnetic sensing offers a new way to navigate, map, and monitor the world. We are currently working across the following field applications:

GPS-Denied Navigation

An aerial view of a snow-covered forest with a winding dark road running through the trees.

Challenges


Satellite signals are increasingly vulnerable to spoofing, jamming, and denial, especially in contested environments.

In other cases, like underwater, underground, or in dense urban terrain, GPS simply can’t reach, leaving systems blind or reliant on bulky, drift-prone alternatives.

Our Role


Our sensors extract orientation and positioning information by referencing subterranean magnetic signatures against magnetic field maps, enabling resilient positioning and navigation in environments where GPS is degraded or unavailable.

With vector readout, solid-state stability, and low size, weight, and power characteristics, the system is designed for seamless integration into autonomous platforms.

The systems can operate across land, sea, and sub sea, supporting navigation that is infrastructure-free, drift-resistant, and operational at the tactical edge.

Application Areas


  • Maritime vessels and uncrewed surface platforms


  • Sub sea vehicles and underwater robotics


  • Land and air based systems


  • Underground and GPS-obstructed environments


  • Autonomous drones

Subterranean Imaging 

Digital 3D visualization of a DNA double helix with colorful strands on a grid background.

Challenges


Current methods of subsurface sensing using magnetometry relies on bulky, invasive equipment that costly and logistically complex to deploy.

Our Role


Our platform measures magnetic field vectors with the sensitivity ideally suited to measure subsurface anomalies without the need for digging holes or establishing fixed infrastructure.

The compact, solid-state product can enable rapid simultaneous deployment providing a scalable, non-invasive approach for numerous applications like imaging geological structures, buried assets, and unexploded ordnance with greater spatial precision and lower operational overhead.

Application Areas


  • Mining and mineral exploration

  • Construction and infrastructure monitoring


  • Defence and demining operations


  • Environmental assessment


  • Underground utilities and asset mapping

Medical Imaging

Series of CT scan images showing cross-sections of a lower spine and pelvis.

Challenges


Magnetic imaging tools like MRI and MEG offer extraordinary insight, but they remain confined to expensive, room-sized systems that require shielding, cryogenics, and specialised facilities.

This limits access, delays diagnosis, and prevents use in time-critical or resource-constrained settings.

Our Role


By leveraging the same quantum sensing principles used in research-grade systems, our device could enable new and compact medical imaging technologies that could offer a pathway to more accessible, real-time, field-based medical diagnostics.

Application Areas


  • Neuroimaging and brain activity monitoring


  • Point-of-care diagnostics


  • Mobile and emergency medicine


  • Medical device integration


  • Global health and low-resource settings

And Beyond

As a platform technology, our sensors are already revealing potential in other domains, from advanced mobility to infrastructure monitoring and next-generation electronics. We want to push the boundaries of what magnetic sensing can enable.