High-definition pulsatile wave

Optical sensing performance degrades under challenging physiological conditions, particularly during oxygen desaturation, where signal quality can rapidly deteriorate. In these conditions, maintaining a stable, high-quality pulsatile signal is critical for accurate and continuous physiological monitoring. Noise, reduced perfusion and changing oxygenation levels can distort waveforms, limiting reliable parameter calculation.

OPM is designed to preserve high-definition pulsatile waveforms across oxygenation levels, even under controlled hypoxia. By maintaining signal integrity during desaturation, OPM supports continuous monitoring when conditions are most demanding, helping ensure reliable signal capture across diverse patients, clinical settings and wearable measurement sites.

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Integrity

Preserves pulsatile signal quality during desaturation

Continuity

Supports uninterrupted monitoring under hypoxia

Resolution

Maintains high-definition waveform fidelity

Measurement

Enables multi-parameter physiological measurement

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View the waveform analysis from our controlled hypoxia studies to see signal retention during desaturation.

Core innovations

[ 1.0 ]

3D optical system

OPM uses a three-dimensional, multispectral optical architecture to interrogate tissue volume, improving vessel interaction, signal quality and robustness beyond traditional point-based sensing.
[ 2.0 ]

Tissue-aware light modelling

OPM applies tissue-aware light modelling to maintain pulsatile signal quality and measurement accuracy across skin tones, wavelengths and physiological conditions.
[ 3.0 ]

AI-powered adaptive Illumination

Machine learning continuously fine-tunes light intensity and wavelength, optimising signal quality in real-time clinical conditions.
[ 4.0 ]

Motion-robust readings

PM maintains accurate heart rate measurement during movement by filtering motion artefacts and noise, delivering reliable readings during walking and running.
[ 5.0 ]

High-definition pulsatile wave

OPM preserves high-definition pulsatile signals during oxygen desaturation, enabling reliable multi-parameter physiological measurement in real-world and clinically challenging conditions.