Neuroelectric regulation device for synchronous electroencephalographic detection and control method of system thereof
By employing a synchronous acquisition architecture with dual-ground system and electrical isolation in the neuroelectric modulation system, synchronous acquisition of neuroelectric modulation and EEG signals under high voltage is achieved, solving the problem that EEG signals cannot be effectively acquired when modulation is activated in the prior art, and supporting the assessment of neurological disease states and closed-loop modulation.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2026-04-22
- Publication Date
- 2026-06-30
AI Technical Summary
Existing neuroelectric modulation systems suffer from high modulation voltage due to skin contact impedance when modulation is activated, which interferes with EEG signals and makes it impossible to effectively collect EEG signals. In particular, the modulation signal and coupling interference are severe under high voltage, making it impossible to assess the EEG state and disease changes in real time.
The synchronous acquisition architecture employs a dual-ground system and electrical isolation. The neuromodulation subsystem and the EEG acquisition subsystem are completely isolated, each using an independent ground reference system. They communicate via high-speed USB isolation and parallel port isolation modules to achieve electrical independence between acquisition and modulation. The acquisition channel and modulation channel are dynamically switched, and a high-precision current source circuit is used for control. The neuromodulation module and the EEG acquisition module are completely electricalally independent.
Under a neuroelectric modulation state of up to 30V, continuous and synchronous acquisition of EEG signals was achieved, breaking through the existing technical bottlenecks and realizing simultaneous modulation and acquisition of neuroelectric signals, supporting the assessment of neurological disease states and closed-loop regulation.
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