Abstract: An in-ear electronic device comprising: an enclosure that defines an enclosed space surrounding a driver and an acoustic vent to an ambient environment surrounding the enclosure; and an acoustic frame having an outer surface coupled to the enclosure and defining an acoustic channel between a back volume chamber of the driver to the acoustic vent.

Abstract: An in-ear electronic device comprising: an enclosure that defines an enclosed space surrounding a microphone and an acoustic opening to an ambient environment surrounding the enclosure; an acoustic pathway having a first end that opens to the acoustic opening and a second end that opens to the microphone; and a protective membrane positioned between the second end of the acoustic channel and the microphone.

Abstract: A deformable ear tip comprising: an annular inner ear tip body having a sidewall extending between first and second opposing ends thereby defining a sound channel through the ear tip; an annular outer flange integrally formed with and surrounding the first end of the inner ear tip body and extending towards the inner ear tip second end forming an air gap between the annular inner ear tip body and the annular outer flange along a portion of a length of the ear tip, wherein the outer flange comprises a first material having a first durometer and is sized and shaped to be inserted into a human ear canal; and an inner flange integrally formed with the inner ear tip body and comprising a second material having a second durometer less than the first durometer, the inner flange body extending from a location along the inner ear tip body between the first and second ends towards an inner surface of the outer flange body.

Abstract: A transcranial magnetic stimulation device has a capacitor for storing electrical energy. A wire coil delivers a magnetic pulse when the capacitor is actuated to cause current flow through the wire coil. A charging circuit charges the capacitor and there is a sensor which includes an unactivated state and an activated state. A control circuit connected to the body sensor initiates the delivery of a magnetic pulse when current from the capacitor flows through the wire coil.

Abstract: A transcranial magnetic stimulation device has a capacitor for storing electrical energy. A wire coil delivers a magnetic pulse when the capacitor is actuated to cause current flow through the wire coil. A charging circuit charges the capacitor and there is a sensor which includes an unactivated state and an activated state. A control circuit connected to the body sensor initiates the delivery of a magnetic pulse when current from the capacitor flows through the wire coil.