Patent classifications
H04R25/402
HEARING DEVICE WITH A MICROPHONE STRUCTURE
A hearing aid device comprising a microphone, a processing unit and a receiver for compensating for a hearing loss in the auditory system of a human is disclosed. The hearing aid device is configured with a microphone inlet assembly which is optimized with regards to maintenance of the hearing aid and improved sound performance. That is, the microphone inlet assembly comprises an inlet element attached to a PCB and further configured to connect with a sound inlet structure.
METHODS, APPARATUS AND SYSTEMS FOR BIOMETRIC PROCESSES
A method for masking an acoustic stimulus, comprising: detecting an event initiated by a user of a personal audio device, the event having an associated audio artefact; in response to detecting the event, applying the acoustic stimulus to the user's ear during a masking period in which the acoustic stimulus is masked in the user's hearing by the audio artefact; extracting, from a response signal of the user's ear to the acoustic stimulus, one or more features for use in a biometric process.
Hearing device with a microphone structure
A hearing aid device comprising a microphone, a processing unit and a receiver for compensating for a hearing loss in the auditory system of a human is disclosed. The hearing aid device is configured with a microphone inlet assembly which is optimized with regards to maintenance of the hearing aid and improved sound performance. That is, the microphone inlet assembly comprises an inlet element attached to a PCB and further configured to connect with a sound inlet structure.
DIRECT DRIVE HEARING AID STIMULATION METHODS
A direct hearing device includes an inner actuator element that interacts with a subject's tympanic membrane, the inner actuator element sitting in the subject's ear canal. The direct hearing device further includes an outer component that houses a microphone, circuitry that processes a signal from the microphone, and a battery. The outer component is configured to sit laterally in the subject's ear canal. Advantageously, the outer component is separable form the inner actuator element.
MINIATURE SPEAKER WITH ESSENTIALLY NO ACOUSTICAL LEAKAGE
The present invention relates to a miniature speaker comprising front and a rear volume, and one or more moveable diaphragms each comprising one or more cantilever beams, and associated one or more air gaps, arranged between the front and rear volumes, wherein the one or more cantilever beams are configured to bend or deflect in response to an applied drive signal, and wherein the one or more air gaps between the front and rear volumes remain essentially unaffected during bending or deflection of the one or more cantilever beams thus maintaining the acoustical leakage between the front and rear volumes at a minimum. The present invention further relates to a receiver assembly comprising such a miniature speaker, and to a hearing device, such as a receiver-in-canal hearing device, comprising such a receiver assembly.
ACOUSTIC VALVE FOR HEARING DEVICE
Acoustic valves including a housing having an acoustic passage are disclosed. A bobbin located in the housing includes a valve seat and a body member housing a magnetic core. An electrical coil is disposed about a portion of the body member, an axial dimension of the electrical coil substantially aligned with an axial dimension of the magnetic core. The electrical coil generates a magnetic field when energized. An armature is movably disposed in the housing between the valve seat and a second surface of the acoustic valve. The valve has a first stable state when the armature is positioned against the valve seat, and the valve has a second stable state when the armature is positioned against the second surface. The valve seat and the second surface are on opposite sides of the armature. The armature is movable between the valve seat and the second surface when the electrical coil is energized, such that the acoustic passage is more obstructed when the armature is positioned against the valve seat than when the armature is positioned against the second surface.
Cacophony reduction in directional sound receivers
A listening assistive device comprising with a sound-condensing collector structure having an open air end to receive non-cacophonic sound energy from a user-selected direction, a tapered guide through which the sound energy is condensed to a distal end at which a microphone converts the condensed sound energy to an electronic signal. A first interface of sound energy attenuating material (absorption, conversion, and/or reflection) is disposed around one or more outer surfaces of the collector structure, optionally around a handle, and a second interface sound energy attenuating material (absorption, conversion, and/or reflection) is disposed between the microphone and the collector structure, so as to attenuate cacophonic sounds from being received by the microphone.
Hearing device
A hearing device has a sealable housing with a wall that delimits an inner space. In addition, the hearing device has a microphone which is arranged in the inner space, and a microphone opening in the wall, as well as a protective element for protecting the microphone. The housing has a sound channel with at least one sound inlet opening, and the protective element is positioned in the sound channel.
HEARING DEVICE WITH A MICROPHONE STRUCTURE
A hearing aid device comprising a microphone, a processing unit and a receiver for compensating for a hearing loss in the auditory system of a human is disclosed. The hearing aid device is configured with a microphone inlet assembly which is optimized with regards to maintenance of the hearing aid and improved sound performance. That is, the microphone inlet assembly comprises an inlet element attached to a PCB and further configured to connect with a sound inlet structure.
Tactile Interface System
A system for indicating a direction to a user is disclosed. The system may include a first unit and a second unit to be worn proximate to a first ear and a second ear of the user respectively. The system may indicate a direction to the user through tactile sensations delivered proximate to the ears of the user by the first and second units. The system may also include microphones to aid in determining the direction of a source of a sound and the system may indicate the determined direction, thereby allowing the user to localize the sound. The system may also function as hearing aids. The system may aid individuals with hearing disabilities by alerting them to the direction of the source of a sound.