This headset integrates conductive eyecups and onboard power to deliver microcurrent through eyelids without bulky external electrodes.
Pivotable electrodes, scheduled power, reminders, and monitoring support comfortable self-administered transcranial stimulation.
Integrated electrodes in stretch shorts improve muscle targeting while reducing positioning complexity and power requirements.
A thermal and fluid-resistant layer isolates the sensor from environmental effects in thin TTFields arrays.
A forehead-frame tDCS headset aligns electrodes, schedules stimulation, and supports monitoring to reduce physician supervision.
This case uses adjustable on-cycles, off-cycles, and reminder stimulation to sustain therapy and reduce recurring incontinence events.
This case uses weather forecasts and circadian timing to modulate TENS pulses for steadier pain relief without manual adjustment.
Repeated scalp GVS activates vestibular pathways to reduce body fat, build lean muscle, and enhance bone mineral density.
This case uses MCU-controlled voltage ramps between electrode pairs to stabilize tumor electric fields and protect components.
Electrode-based impedance feedback tailors auricular stimulation and reduces discomfort.
A wearable EMS brace senses tissue power dissipation and adjusts each pulse to balance muscle activation, comfort, and home use.
Dual skin patches stimulate afferent and vagus nerves to reduce inflammation.
A patient-specific head model selects electrode locations and currents to move CNS fluid while reducing edema and intracranial pressure.
EEG and other biological signals guide composite tACS to entrain brain oscillations across depression-related states.
This case uses curved, asymmetric electrode assemblies to improve adherence and comfort when delivering TTFields across non-planar body areas.
This case uses breathable, adjustable bands to position TTFields electrode assemblies without adhesive contact on the skin.