DBS Desynchronization: Basal Ganglia Oscillator Network
Interactive 3D Kuramoto-style model of subthalamic-nucleus neurons locking into pathological beta-band synchrony in Parkinson's disease, and how a deep brain stimulation pulse train desynchronizes them depending on frequency, amplitude and coupling strength.
In Parkinson's disease, neurons in the subthalamic nucleus fall into excessive beta-band (13–30 Hz) synchrony, and that pathological synchrony is thought to underlie bradykinesia and rigidity. This simulation renders 180 STN neurons as coupled phase oscillators (a Kuramoto model) whose recurrent coupling strength K drives them toward — or away from — a shared rhythm, tracked live by the synchrony index r. A deep brain stimulation electrode at the center delivers a real pulse train whose frequency, amplitude and reach (the volume of tissue activated) you control, letting you see directly why only high-frequency stimulation reliably breaks up the pathological cluster while low-frequency pulses can instead reinforce it.
A Kuramoto-model network of 180 subthalamic-nucleus neurons locks into pathological beta-band synchrony in Parkinson's disease; control a deep brain stimulation electrode's pulse frequency, amplitude and coupling strength to see live why only high-frequency stimulation breaks up the synchronized cluster.
3D · Three.js / WebGL renderer · 60 FPS target · runs fully client-side, no install