An external component of a bone conduction device, including a vibrator and a platform configured to transfer vibrations from the vibrator to skin of the recipient, wherein the vibrator and platform are configured to quick connect and quick disconnect to and from, respectively, one another.

An external component of a bone conduction device, including a vibrator and a platform configured to transfer vibrations from the vibrator to skin of the recipient, wherein the vibrator and platform are configured to quick connect and quick disconnect to and from, respectively, one another.

The invention provides a speaker, an audio device thereof, and a method of regulating frequency response. The speaker comprises a back cavity and a magnetic circuit system connected to the back cavity, and further comprises: an intermediate-frequency frequency response regulation module disposed in the back cavity for regulating a length of a first effective air passage of the back cavity where an air flow passes, such that a resonant frequency of the back cavity is equivalent to a frequency of intermediate-frequency frequency response of the speaker to be improved; and/or a high-frequency frequency response regulation module disposed in the back cavity for regulating a length of a second effective air passage of the back cavity where the air flow passes, such that the resonant frequency of the back cavity is equivalent to a frequency of high-frequency frequency response of the speaker to be improved.

A haptic transducer comprising a magnetic plate, a plurality of coils each separately couplable to a signal generator such that axis of each coil is perpendicular to the plate and all coils are on a common side of the plate, and signals may be sent from said signal generator to each coil individually.

Embodiments of the present application provide a wearable device, a wearing detection method and a storage medium. The wearable device includes: a device housing; a capacitive sensor, a processing module and a metal structural component which are provided inside the device housing, where the metal structural component is adhered to the capacitive sensor. The metal structural component is configured to increase an electrostatic induction region of the capacitive sensor; the processing module is configured to: obtain a real-time capacitance value and an inherent capacitance value of the capacitive sensor to ground, determine a real-time difference between the real-time capacitance value and the inherent capacitance value, and determine the wearable device to be in a worn state when the real-time difference is greater than a preset threshold.

Embodiments of the present application provide a wearable device, a wearing detection method and a storage medium. The wearable device includes: a device housing; a capacitive sensor, a processing module and a metal structural component which are provided inside the device housing, where the metal structural component is adhered to the capacitive sensor. The metal structural component is configured to increase an electrostatic induction region of the capacitive sensor; the processing module is configured to: obtain a real-time capacitance value and an inherent capacitance value of the capacitive sensor to ground, determine a real-time difference between the real-time capacitance value and the inherent capacitance value, and determine the wearable device to be in a worn state when the real-time difference is greater than a preset threshold.

In some implementations, an actuator can include a magnetic cup comprising a base and sidewalls defining a cavity, the base comprising a planar outer surface opposite the cavity, an edge of the outer surface comprising one or more joint elements; a magnet arranged in the cavity of the magnetic cup; a voice coil arranged in an air gap separating the sidewalls and the magnet; a support comprising one or more magnetic suspension members each comprising an edge shaped to fit to a corresponding one of the joint elements and having a first side that is a) flush with the planar outer surface or b) displaced from the planar outer surface along a first axis perpendicular to the planar outer surface in a direction toward the cavity of the magnetic cup; and a coupling plate attached to the voice coil and the support.

A cable assembly configured to electrically connect an active loudspeaker to a source device that comprises a source of electrical power and audio signals. The cable assembly includes a primary sheath, a group of power conductors within the primary sheath and configured to carry electrical power, a group of audio signal conductors within the primary sheath and configured to carry audio signals, a cable-mount connector male plug comprising a first plurality of power pins that terminate a first end of each power conductor and a second plurality of audio signal pins that terminate a first end of each audio signal conductor, wherein the cable-mount connector plug is configured to be coupled to a panel mount connector female socket of the source device, and a cable-mount connector female socket comprising a first plurality of power receptacles that terminate a second end of each power conductor and a second plurality of audio signal receptacles that terminate a second end of each audio signal conductor, wherein the cable-mount connector socket is configured to be coupled to a panel mount connector male plug of the active loudspeaker.

Methods, systems, and apparatus, including computer programs encoded on computer storage media, for changing a distributed mode loudspeaker's fundamental frequency. One of the systems includes a distributed mode loudspeaker comprising an actuator that includes: a supported portion, and a cantilevered portion having a length, a first fundamental frequency, and adapted to create a force to cause vibration of a load to generate sound waves using the first fundamental frequency; a support element connected to the supported portion of the actuator and adapted to adjust, based on a change to a shape of the support element, a size of the length of the cantilevered portion to change the first fundamental frequency to a second fundamental frequency with which the load will generate sound waves; and a frequency selection module that provides a signal to the support element to cause the support element to change shape.

An electromechanical transducer includes: a structural portion configured such that two pairs of magnets magnetized in opposite directions, a yoke configured to guide magnetic fluxes from the magnets, and a coil configured to receive a supplied electric signal are located integrally; an armature having an inner portion penetrating an internal space of the structural portion and outer portions protruding from the inner portion toward both sides in a first direction, forming, together with the structural portion, a magnetic circuit through regions of the inner portion facing the two pairs of magnets, and configured to displace in a second direction perpendicular to the first direction by magnetic force of the magnetic circuit; and a pair of elastic members each located on both sides of the armature in the second direction, and configured to provide, to the armature, restoring force according to relative displacement of the armature corresponding to the structural portion.