01 / Technology
Research applications ask the sensor, its lasers and the room around it to work as one instrument. We develop that stack for laboratory research, including biomedical measurement.
01
Optically pumped magnetometers prepare alkali atoms with laser light and read how those atoms respond to a magnetic field. In a shielded room, the SERF regime can resolve the very weak fields produced by biological activity.
Compact, temperature-stabilised laser modules take the place of bulky external sources, so a sensor head can sit close to the person being measured. Our development covers the vapor cell, sensor control, optical readout and calibration.
02
Brain and cardiac mapping need more than one channel. Multi-channel measurement requires consistent sensor operation, precise synchronisation and a mechanical layout that stays comfortable and non-magnetic.
We are developing the electronics and control architecture that bring individual sensors into coordinated arrays for healthcare and laboratory research.
03
A biological signal is measured in a room full of other magnetic fields. Gradiometer layouts, magnetic shielding and reference sensors work together so the measurement can stay with the person rather than the building.
Signal processing then separates the biological field from what remains. Shielding, field control and analysis are designed as one system.
02 / Research directions
03 / Components
We welcome technical discussions with suppliers of atomic vapor cells, optical readout components, low-noise photodetectors, sensor electronics, synchronised data acquisition, magnetic shielding, field-control equipment and non-magnetic mechanical assemblies.