How to design #BrainStimulation to modulate phase-amplitude coupling? Recently published in the Journal of Neural Engineering @MRCBNDU@NDCNOxford@IOPPublishing https://t.co/xvvEv2B28b
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1/11
We're looking for a graduate research assistant for 2 years! Come work in my lab - cognitive neuroscience / computational neurology (🧠https://t.co/pztK6qRoAl), in Oxford, on motivation in Parkinson's disease. Patient-facing role. Apply now: https://t.co/xFlxB3ImPP
New unit paper on “Flexible and stable cycle-by-cycle phase-locked deep brain stimulation system targeting brain oscillations in the management of movement disorders”, published in @brainstimj.
https://t.co/qtzsXEyOMc
@MRCBNDU@NDCNOxford@OxfordMedSci@UniofOxford
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How to design #BrainStimulation to modulate phase-amplitude coupling? Recently published in the Journal of Neural Engineering @MRCBNDU@NDCNOxford@IOPPublishing https://t.co/xvvEv2B28b
Scroll down for a summary ⏬
1/11
Finally, some of the predictions of our framework are in line with published data. Many thanks to Prof. Rafal Bogacz! Full read: https://t.co/xvvEv2B28b
11/11
Optimal smooth Fourier waveforms can be approximated with square pulses if necessary, and phase-locking to the fast and slow rhythms is recommended in most cases.
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