Abstract: Provided are a vibration transducer and an implantable hearing aid device. In one embodiment, the implantable hearing aid device includes a signal processing part implantable in a subject, the signal processing part processing a signal from a microphone to output a sound signal, a sound transmission tube configured for transmitting the sound signal to a round window of the subject, and a bellows member disposed at an end side of the sound transmission tube to transmit vibration due to the sound signal to the round window. In other embodiment, the implantable hearing aid device includes a signal processing part implantable in a subject, the signal processing part processing a signal from a microphone to output an electrical signal, a vibration generation part configured for receiving the electrical signal to generate vibration, and a bellows member disposed at an end side of the vibration generation part to transmit the vibration to a round window of the subject.

Abstract: Provided are a vibration transducer and an implantable hearing aid device. In one embodiment, the implantable hearing aid device includes a signal processing part implantable in a subject, the signal processing part processing a signal from a microphone to output a sound signal, a sound transmission tube configured for transmitting the sound signal to a round window of the subject, and a bellows member disposed at an end side of the sound transmission tube to transmit vibration due to the sound signal to the round window. In other embodiment, the implantable hearing aid device includes a signal processing part implantable in a subject, the signal processing part processing a signal from a microphone to output an electrical signal, a vibration generation part configured for receiving the electrical signal to generate vibration, and a bellows member disposed at an end side of the vibration generation part to transmit the vibration to a round window of the subject.

Abstract: Provided are a vibration transducer and an implantable hearing aid device. In one embodiment, the implantable hearing aid device includes a signal processing part implantable in a subject, the signal processing part processing a signal from a microphone to output a sound signal, a sound transmission tube configured for transmitting the sound signal to a round window of the subject, and a bellows member disposed at an end side of the sound transmission tube to transmit vibration due to the sound signal to the round window. In other embodiment, the implantable hearing aid device includes a signal processing part implantable in a subject, the signal processing part processing a signal from a microphone to output an electrical signal, a vibration generation part configured for receiving the electrical signal to generate vibration, and a bellows member disposed at an end side of the vibration generation part to transmit the vibration to a round window of the subject.

Abstract: The present disclosure provides a three-coil type round window driving vibrator, which includes a permanent magnet having the same magnetic poles adjoining each other and is designed to allow electric current flowing through coils to run in opposite directions in order to increase driving force without being affected by an external magnetic field. The round window driving vibrator includes a permanent magnet having three poles of SNS or NSN, a coil member wound around an outer periphery of the permanent magnet, and a vibration member connected to one end of the permanent magnet. Here, the coil member includes a first coil wound around a middle section of the permanent magnet and second and third coils wound around upper and lower sections of the permanent magnet, respectively.

Abstract: A microphone for an implantable hearing aid includes a body part having a cylindrical housing installed to pass through a tympanum and a microphone controller installed within the cylindrical housing to convert an acoustic signal into an electrical signal, an acoustic collection part that provides a passage for transmitting external sounds into the body part, the acoustic collection part being disposed on one end of the body part in a direction of an external auditory meatus, and a wire connection part connecting the microphone controller to the hearing aid, the wire connection part being disposed on the other end of the body part in a direction of a middle ear cavity. The microphone is easily installed on the tympanum in a noninvasive manner, and attenuation in sensibility of the microphone is prevented. Thus, the microphone may be significantly utilized for the implantable hearing aid.

Abstract: Provided are a vibration transducer and an implantable hearing aid device. In one embodiment, the implantable hearing aid device includes a signal processing part implantable in a subject, the signal processing part processing a signal from a microphone to output a sound signal, a sound transmission tube configured for transmitting the sound signal to a round window of the subject, and a bellows member disposed at an end side of the sound transmission tube to transmit vibration due to the sound signal to the round window. In other embodiment, the implantable hearing aid device includes a signal processing part implantable in a subject, the signal processing part processing a signal from a microphone to output an electrical signal, a vibration generation part configured for receiving the electrical signal to generate vibration, and a bellows member disposed at an end side of the vibration generation part to transmit the vibration to a round window of the subject.

Abstract: Disclosed are an active delay method and an improved wireless binaural hearing device. The binaural hearing device includes: a first hearing device including a first microphone, an amplifier and a wireless transmitter; and a second hearing device including a second microphone, an amplifier, a wireless transmitter, a wireless receiver which receives a signal from the wireless transmitter, an active delay circuit which synchronizes the received signal with a signal acquired by the second microphone, a neural network which synchronizes the delayed signal, and a speaker which converts the synchronized signal into a voice signal. With this configuration, it is possible to prevent incorrect detection of the position of the sound source or paralalia due to a time delay which is produced in the wireless binaural hearing device and reduce noises due to a time difference between both hearing devices, thereby providing a binaural hearing device with high quality.

Abstract: A microphone for an implantable hearing aid includes a body part having a cylindrical housing installed to pass through a tympanum and a microphone controller installed within the cylindrical housing to convert an acoustic signal into an electrical signal, an acoustic collection part that provides a passage for transmitting external sounds into the body part, the acoustic collection part being disposed on one end of the body part in a direction of an external auditory meatus, and a wire connection part connecting the microphone controller to the hearing aid, the wire connection part being disposed on the other end of the body part in a direction of a middle ear cavity. The microphone is easily installed on the tympanum in a noninvasive manner, and attenuation in sensibility of the microphone is prevented. Thus, the microphone may be significantly utilized for the implantable hearing aid.

Abstract: The present invention relates to a real-time electrocardiogram monitoring system and method, a patch-type electrocardiograph and a telecommunication apparatus.

Abstract: Disclosed are an active delay method and an improved wireless binaural hearing device. The binaural hearing device includes: a first hearing device including a first microphone, an amplifier and a wireless transmitter; and a second hearing device including a second microphone, an amplifier, a wireless transmitter, a wireless receiver which receives a signal from the wireless transmitter, an active delay circuit which synchronizes the received signal with a signal acquired by the second microphone, a neural network which synchronizes the delayed signal, and a speaker which converts the synchronized signal into a voice signal. With this configuration, it is possible to prevent incorrect detection of the position of the sound source or paralalia due to a time delay which is produced in the wireless binaural hearing device and reduce noises due to a time difference between both hearing devices, thereby providing a binaural hearing device with high quality.

Abstract: The present disclosure provides a three-coil type round window driving vibrator, which includes a permanent magnet having the same magnetic poles adjoining each other and is designed to allow electric current flowing through coils to run in opposite directions in order to increase driving force without being affected by an external magnetic field. The round window driving vibrator includes a permanent magnet having three poles of SNS or NSN, a coil member wound around an outer periphery of the permanent magnet, and a vibration member connected to one end of the permanent magnet. Here, the coil member includes a first coil wound around a middle section of the permanent magnet and second and third coils wound around upper and lower sections of the permanent magnet, respectively.

Abstract: The present invention relates to a real-time electrocardiogram monitoring system and method, a patch-type electrocardiograph and a telecommunication apparatus.