David Moser

Chief Technology Officer at Neupulse

David Moser serves as the Chief Technology Officer at Neupulse since February 2023. Prior to this, David held the same role at Small Robot Company from June 2021 to February 2023. With a background in engineering, David has also worked as Director of Research and Technology, Head of Research, and Senior Mechatronics Design Engineer at Blatchford from April 2006 to June 2021. In addition, David currently holds the position of Visiting Professor at the University of Southampton's Faculty of Engineering and Physical Sciences since January 2020. David holds a PhD in Biomedical Engineering from the University of Surrey, a BSc(hons 1st class) in Mechatronics from Abertay University, and a BEng in Mechanical Engineering from the University of Dundee.

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Southampton, United Kingdom

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Neupulse

https://www.neupulse.co.uk Neupulse is the brand of Neurotherapeutics Ltd The direction of our current research was very much shaped by the feedback we received from individuals with tic disorders and their families. When we asked them for their thoughts on our research priorities we were frequently told that what was really needed was a safe and effective non-drug treatment for tic disorder that could be used outside of the clinic and gave individuals control over their tics. This led directly to us focusing on the use of peripheral nerve stimulation as a means of bringing about changes in the brain networks associated with the production of tics. We demonstrated that delivering rhythmic patterns of mild electrical stimulation to the median nerve at the wrist could be used to increase the power and the synchronicity of the brain oscillations (rhythms) associated with the suppression of movements, and that this type of stimulation was sufficient to dramatically reduce the frequency of tics and remove the urge-to-tic in individuals with tic disorders. Importantly, we also showed that this type of stimulation did not materially affect the execution of volitional (intentional) movements or impair cognitive functions such as attention.


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