EEG signal analysis detects hypoglycemia shifts in brain waves to automate glucose dosing, eliminating invasive blood testing requirements.
Segmenting BIS sensors into disposable and reusable modules recovers high-value circuitry, reducing medical waste and costs.
Computerized task versioning system generates equivalent test versions through spatiotemporal cycling.
A visit duration control system monitors physiological parameters to manage patient stress levels during third-party visits.
A LEAPD system extracts EEG features via linear predictive coding and principal component analysis to generate a diagnostic index.
Curved illumination sources present a dynamic checkerboard stimulus to measure peripheral retina function, enabling early glaucoma detection.
Selective electrode configurations transmit energy to the vagus nerve, resolving pain and unintended stimulation during prophylactic treatment.
A voltage-to-current converter transforms digital signals into analog current for simultaneous transmission through a single interface connector.
A neurofeedback system pairs reward triggers with negative feedback to disrupt automatic dopamine release.
Implantable devices correlate heart rate and respiration data to determine sleep states, eliminating the need for complex polysomnographic sensors.
A cognitive monitoring system detects student physiological signals to dynamically adjust learning material difficulty and pacing.
Neural network models classify EEG signals into functional commands, resolving low accuracy in non-invasive brain-computer interfaces.
A brain-computer interface system regulates patient arousal through subcortical electrical stimulation to maintain communication channel integrity.
An implantable neurostimulator adjusts cerebral blood flow to treat neurological disorders.
An ionic varistor system uses a solid electrolyte membrane to convert electrical potential into ion concentration changes for stable signal detection.
A bioelectrode component uses a flexible coupling bar to relieve mechanical stress on the needle part during biological surface contact.
An epidural electrode array enables single-entry brain stimulation via non-orthogonal trajectories.
A closed-loop rehabilitation device detects brain signals to trigger functional electrical stimulation for muscle recovery.
Implantable medical devices store loop recordings of waveform data using multiple sense channels and triggers to selectively capture relevant physiological signals.
A system detects brain electrical activity via EEG electrodes to generate cognitive and sensory profiles without requiring active subject participation.
Geodesic sensor arrays reduce channel-specific noise by identifying unique variance patterns across spatially oversampled measurements.
The FINES algorithm projects vectors onto a noise-only subspace, resolving closely-spaced neural sources despite spatially correlated brain noise.
A positive airway pressure system adjusts therapy pressure based on detected patient wakefulness states to enhance comfort and treatment efficacy.
Apparatus uses neural phase reset detection to automatically determine optimal stimulation parameters for desynchronizing pathological brain activity.
A closed-loop system adjusts electrical stimulation and medication delivery using real-time brain biomarkers.
A headband unit with EEG and EOG sensors detects REM sleep stages to apply user-programmable light and sound stimuli.
An adaptive audiometry system adjusts test stimuli based on user responses to determine hearing thresholds.
Subthreshold electrical stimuli elicit measurable neural responses to detect preseizure states, enabling early intervention and reducing seizure injury risk.
N-way data tensors represent electrophysiological signals for machine command generation via generalized linear regression models.
A brain state advisory system separates neural electric recordings into sparse waveform descriptors for spatiotemporal integration and projection.
A rigid base supports flexible neural probes during insertion, then separates via fluid-responsive coating to minimize tissue damage and micromotion.