Applications

Natural behaviour.
Uncompromised neural data.

Neural activity examined in an electrophysiology laboratory
01 / Applications

Fundamental neuroscience

Follow activity during exploration, learning and natural behaviour, with a lightweight wireless interface and access to the full signal.

  • Real signal. Real time.

    15.36 Mbps of uncompressed neural data from 32 channels at 30 kS/s. View activity and recording quality during acquisition; retain the full stream for later analysis.

  • Navigate complex arenas.

    Record during movement through tubes, mazes and open spaces.

  • Build around your experiment.

    A 1.4 cm³ headstage weighing ≤ 2.5 g. Molex and Omnetics interface options support different probe configurations. Detector arrangements can be tailored to your arena and experimental requirements.

Discuss your recording setup
Precision pipetting and microplate work in a preclinical laboratory
02 / Applications

Drug discovery

See how a potential treatment changes neural activity alongside behaviour. Bring richer electrophysiological data into preclinical studies.

  • Measure neural responses to treatment.

    Compare neural activity and behaviour before and after an intervention. Assess drug responses and circuit function in the brain regions sampled by your probe.

  • Get all the data you need.

    Keep the full acquired signal, without compression. Check recording quality in real time, then revisit the same dataset with different analyses and signal features.

  • Reduce experiment numbers.

    With suitable probes, record from multiple brain structures in the same session. This can reduce the need for separate experiments while revealing responses across connected circuits.

Plan your preclinical study
Concept illustration of a woman wearing a wireless neural recording headset in a neuroscience laboratory
03 / Applications

Future neural interfaces

As probes capture more information, the wireless link must keep pace. Optical communication offers a route toward higher-bandwidth neural interfaces.

  • More channels. A richer view.

    Platform development explores scaling to thousands of channels, broader probe compatibility and optical interaction, while balancing bandwidth, power and device size.

  • A foundation for future translation.

    Higher channel counts could support finer decoding of movement or speech in future neural interfaces. Human applications remain a longer-term direction; today’s NeuroVLC system is preclinical.

Explore a development partnership
Consideration at every stage

Better questions.
Thoughtful experiments.

A small untethered interface supports considerate study design. Plan probe choice, receiver coverage and behavioural tasks together to obtain useful data from each experiment.

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What will you
discover next?

Let’s explore what optical wireless recording could make possible for your research.