Galmeon
Wave

Galmeon's
Innovation

Galmeon Wave: Stimulating Motor Areas with Low-Frequency Sounds

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By harnessing the brain’s plasticity through the combination of sounds generated by Galmeon Wave and motor imagery exercises, the Galmeon technique enables patients to regain their motor skills quickly and effectively.

This patented, non-invasive medical device is 100% made in France.

How does it work?

Galmeon Wave generates various low-frequency sound sequences for the following purposes:

to activate the motor areas in the primary cortex.
to enhance the effectiveness of motor imagery exercises.

Patented medical device

Check out Galmeon Wave
in 3D

Patient Assessment and Monitoring Tool
Support for the Session's Progress
Customized Clinical Monitoring Dashboard
Exercise Library
Regular updates (new features)

Effects of Low-Frequency Sounds on Brain Plasticity*

Various types of auditory stimulation were compared, including some that are already recognized and used in clinical practice. Analyses of brain power and connectivity show that the low-frequency sounds emitted by our medical device induce greater activation of motor regions, both in terms of connectivity and power.

This distinctive feature is what makes Galmeon unique today.

* Dos Anjos T, Di Rienzo F, Benoit CE, Daligault S, Guillot A. Brain wave modulation and EEG power changes during auditory beats stimulation. Neuroscience. July 14, 2024;554:156-166. doi: 10.1016/j.neuroscience.2024.07.014. Published online ahead of print. PMID: 39004412.

DOI: 10.1016/j.neuroscience.2024.07.014

Neuromotor Reprogramming: The Fundamentals*

Correlations between performance and brain activity show that the addition of low-frequency sounds induces a specific neural modulation, distinct from that observed with motor imagery alone, thereby reinforcing the neurophysiological basis of neuromotor reprogramming.

*Typhanie Dos Anjos, Aymeric Guillot, Sebastien Daligault, Donna-Maria Chamoun, Thomas De Sousa, Franck Di Rienzo,
Low-frequency sounds combined with motor imagery elicit a transient disruption of force performance: A path to neuromotor reprogramming?

DOI: 10.1016/j.neuroimage.2024.120746