57results about "Microphone throat mounting" patented technology

The present invention combines a conventional audio microphone with an additional speech sensor that provides a speech sensor signal based on an input. The speech sensor signal is generated based on an action undertaken by a speaker during speech, such as facial movement, bone vibration, throat vibration, throat impedance changes, etc. A speech detector component receives an input from the speech sensor and outputs a speech detection signal indicative of whether a user is speaking. The speech detector generates the speech detection signal based on the microphone signal and the speech sensor signal.

A horn including a substantially flat coupling flange defining a coupling flange plane, a substantially planar mouth defining a mouth plane, an elongated throat extending between the coupling flange and the mouth, a transducer for generating a sonic output operationally connected to the coupling flange, and a major axis extending through the elongated throat. The coupling flange plane and the mouth plane are nonparallel and define a horn angle. The major axis connects the coupling flange and the mouth and the elongated throat is characterized by a substantially steadily increasing sectional area along the major axis from the transducer-connecting end to the mouth connecting end.

A three-dimensional (3D) sound gaming application can include an ultrasonic sound system, one or more gamers, a gaming console and a throat microphone set. The ultrasonic sound system can include a digital signal processing (DSP) that can adjust the phase, delay, reverb, echo, gain, magnitude or other audio signal component of an audio signal or audio signal components received from the gaming console; an amplifier which can amplify the processed audio signal; and a pair of emitters which can emit ultrasonic signals to each of the gamer's ears to produce a 3D sound effect. The throat microphone set can include a throat microphone which can integrate a low pass filter to attenuate any picked up, ultrasonic carrier frequency signals from the emitted ultrasonic waves. In addition, the throat microphone set can also include an ear speaker piece with one or more apertures for allowing sound produced by ultrasonic waves to enter the gamer's ear canal.

The present invention combines a conventional audio microphone with an additional speech sensor that provides a speech sensor signal based on an input. The speech sensor signal is generated based on an action undertaken by a speaker during speech, such as facial movement, bone vibration, throat vibration, throat impedance changes, etc. A speech detector component receives an input from the speech sensor and outputs a speech detection signal indicative of whether a user is speaking. The speech detector generates the speech detection signal based on the microphone signal and the speech sensor signal.

A communication and speech enhancement system featuring a first transducer designed to be temporarily affixed to a human such as a hospital patient to convert the audible vibrations of human speech into an electrical signal. The transducer provides this electrical signal to one or more electronic modules which modify and enhance the signal. The enhanced signal may then be amplified and converted back into audible sound by means of a second transducer. A user of the system controls the electronic modules through a user interface. In an embodiment, one or both of the user interface and second transducer feature smooth surfaces amenable to cleaning sterilizing with liquid agents.

The invention relates to a noise damping headset comprising at least one microphone and at least one ear phone intended to be connected via electrical conduits, preferably wires, to a transmitter and a receiver, preferably a mobile telephone, a communication radio or the like for communication between persons. The microphone consists of throat microphone for direct or indirect contact against the skin around a throat, the equipment mainly being sound tightening for sounds, coming from outside, from emerging into the throat microphone and the ear phone comprises a funnel-shape for inserting the same into the auditory canal of a person's ear, the outer limiting surfaces of the funnel-shape being sound tightening against the walls of the auditory canal, the sound coming from outside being prevented from emerging into the auditory canal, whereby a communication between said persons can be held without being disturbed in a greater extent of the sound coming from outside.

The present invention combines a conventional audio microphone with an additional speech sensor that provides a speech sensor signal based on an input. The speech sensor signal is generated based on an action undertaken by a speaker during speech, such as facial movement, bone vibration, throat vibration, throat impedance changes, etc. A speech detector component receives an input from the speech sensor and outputs a speech detection signal indicative of whether a user is speaking. The speech detector generates the speech detection signal based on the microphone signal and the speech sensor signal.

Provided is a microphone for communications and speech-recognition inputs with loud noises around, more particularly, to a vibration pickup microphone which hardly howls when speeches are simultaneously transmitted and received. The vibration pickup microphone comprises a housing (1) arranged on the human-body abutting face of a transmitter / receiver, a microphone unit (2) of an aerial vibration collecting type to be assembled in the housing (1), and a microphone holder (5) made of an elastic material for supporting the microphone unit (2) in the housing (1). The housing (1) includes a case (3) having an upper face opened for fitting the microphone holder (5), and a cover (4) made of an elastic material for covering the outer side faces of the case (3). A double-layered diaphragm (6) is so arranged on the upper face of the microphone holder (5) as to form an air chamber (16) between itself and the microphone holder (5), and a sealed cavity (7) is formed between diaphragms (6a and 6b) constituting the double-layered diaphragm (6).

A wearable device using a bone conduction speaker, including a wearable band worn on an arm of a user, a communication module attached to the wearable band, an audio processor configured to process an audio signal transmitted and received through the communication module, a microphone configured to transmit a voice signal, which is input in sound by the user, to the audio processor, a bone conduction speaker configured to output a reception audio signal, which is processed by the audio processor, in bone conduction mode, and an echo canceller configured to cancel the voice signal in an audio signal output from the bone conduction speaker, is provided.

The invention provides a communication device comprising: a cover; a printed circuit board ; a microphone on the printed circuit board; an antenna located at least in part within the cover; and a RF shield can shaped to fit over the microphone about the PCB. In the device , the cover is shaped to enclose the PCB and the RF shield can. The cover provides pressure on the RF shield can to press inward on the microphone to fixedly attach it to the PCB.

The invention provides a bone conduction swimming earphone and relates to the technical field of earphones. The bone conduction swimming earphone has the technical advantage that the training quality of swimmers is improved. The bone conduction swimming earphone comprises an earphone shell, a bone conduction sensor and an earphone circuit board, wherein the bone conduction sensor and the earphone circuit board are mounted in the earphone shell. The earphone shell is an integrally closed flexible shell. An inductive head of the bone conduction sensor is closely attached to the inner wall of the earphone shell. The earphone circuit board is a flexible circuit board. An earphone circuit, a wireless communication module and a digital-to-analogue conversion module are carried on the earphone circuit. The bone conduction sensor is connected to a sound signal output port of the earphone circuit. An antenna port of the wireless communication module is connected with an antenna. A data port of the wireless communication module is connected with a digital signal port of the digital-to-analogue conversion module through a flexible data line. An analog signal port of the digital-to-analogue conversion module is connected to a sound signal input port of the earphone circuit. The bone conduction swimming earphone is particularly suitable for the swimmers.

A device in a headset having a throat microphone and ear speakers soundproofing against the auditory meatus. The device has a separate microphone connected to the ear speaker for picking up the sound of the surroundings that is transmitted to the car speaker. Furthermore, noise-suppressing means are included, which limit the sound level of the sound of the surroundings. The throat microphone communicates via a communication unit. The soundproofing ear speaker and the microphone are arranged so that the headset can be housed in a safety helmet.

A sub-vocal speech recognition (SVSR) apparatus includes a headset that is worn over an ear and electromyography (EMG) electrodes and an Inertial Measurement Unit (IMU) in contact with a user's skin in a position over the neck, under the chin and behind the ear. When a user speaks or mouths words, the EMG and IMU signals are recorded by sensors and amplified and filtered, before being divided in multi-millisecond time windows. These time windows are then transmitted to the interface computing device for Mel Frequency Cepstral Coefficients (MFCC) conversion into aggregated vector representation (AVR). The AVR is the input to the SVSR system, which utilizes a neural network, CTC function, and language model to classify the phoneme. The phonemes are then combined into words and sent back to the interface computing device, where they are played either as audible output, such as from a speaker, or non-audible output, such as text.

[Problems] To convert a signal of non-audible murmur obtained through an in-vivo conduction microphone into a signal of a speech that is recognizable for (hardly misrecognized by) a receiving person with maximum accuracy.[Means for Solving Problems] A speech processing method comprising: a learning step (S7) for conducting a learning calculation of a model parameter of a vocal tract feature value conversion model indicating conversion characteristic of acoustic feature value of vocal tract, on the basis of a learning input signal of non-audible murmur recorded by an in-vivo conduction microphone and a learning output signal of audible whisper corresponding to the learning input signal recorded by a prescribed microphone, and then, storing a learned model parameter in a prescribed storing means; and a speech conversion step (S9) for converting a non-audible speech signal obtained through an in-vivo conduction microphone into a signal of audible whisper, based on a vocal tract feature value conversion model, with a learned model parameter obtained through the learning step set thereto.

[Problem to be Solved] To provide a high-sensitive compact vibration pickup microphone, suitably used as a talking microphone in high ambient noise environments or as a speech recognition input microphone, with high microphone sensitivity, resistance to sliding noise, and insensitivity to external noise and vibration.[Solution] A vibration pickup microphone comprising a housing 1 provided with a first space 5 and a second space 6, an external diaphragm 2 disposed over the first space 5, and a microphone unit 3 that is contained in a rear end portion of the second space having an air gap 8 maintained 6, wherein by disposing the external diaphragm 2 over it, an air chamber 7 formed in the first space 5 and an air gap 8 formed in the second space 6 are communicated via a thin passageway 4, so that vibration of voice picked up by the external diaphragm 2 is transmitted to the microphone unit 3 as sound waves, and then frequency components higher than voice frequencies within frequency components of the sound waves are attenuated in its transmitting path.

A bone conduction headset includes a support member having a U-shape, a pair of speakers of bone conduction type respectively provided to a first end and a second end of the support member, the second end being opposite to the first end, a microphone coupled to the first end, and a mute switch provided to either the first end or the second end, and configured to perform a control to lower volume on the speakers of bone conduction type.

A low-cost transceiver capable of being connected with a telephone or a radio set is thin and small in size, excellent in easiness in use, stable in mounting condition, and is therefore suited for those who are active in the outdoor work, sports or the like. When a wearer of the transceiver is sweated and / or exposed to dust, a sweat- or dust-damaged component of the transceiver is replaced with a new one. The transceiver comprises: a bone conduction speaker (2); a throat microphone (3); a soft tape-like carrier (1) for supporting both the supporting the speaker (2) and the microphone (3); and, adhesive means (6) for adhesively fixing the carrier (1) to the temporal area covering the ear and the larynx of the wearer.

A throat vibration audio wireless transmission apparatus comprises a body, a throat vibration detection module and a wireless transmission module. The body includes a cap, a flexible base and a deformation holding member. The cap has multiple cover portions and at least one elastic bending portion bridging two neighboring cover portions. The deformation holding member can be pushed by forces to form an arched shape and drive the flexible base and cap to bend to allow the elastic bending portion to extend towards the cover portions at two sides thereof. The throat vibration detector detects a vibration wave and converts to an electric signal. The control circuit board receives the electric signal and converts to an audio signal which is then transmitted by the wireless transmission module. The apparatus can be adjusted according to a user's neck and attached thereon closely to receive sound without being interfered by environment.

The invention relates to the technical field of assisted sound production for patients with language disorder, and discloses an artificial larynx. The artificial larynx comprises a sound converter, a voice detection system and a voice generating system, wherein the sound converter is used for detecting vibration of the larynx and for converting a vibration signal to a resistance signal; the voice detection system is used for acquiring and analyzing the resistance signal and deducing out voice which is to be produced by a user in accordance with the situation on resistance change; and the voice generating system is used for generating an electrical signal in accordance with the voice which is to be produced by the user and transmitting the electrical signal to the sound converter, so that the electrical signal, by virtue of the sound converter, can be converted into a sound signal. The artificial larynx provided by the invention, which can be attached to a neck from outside, is good in biocompatibility and is free from discomfort; and in addition, the artificial larynx is simple in structure, high in stability, high in sound production precision, low in manufacturing cost and easy for implementation of industrialization. The invention also discloses a sound conversion method of the artificial larynx.

A device for supplementing a voice includes: a sensing unit sensing a bio-signal corresponding to a first vibration of vocalization and generating a first signal corresponding to the bio-signal; a vibration unit generating a second vibration using the first signal; and a power unit supplying a power to the sensing unit and the vibration unit.

[Problem to be Solved] To provide a high-sensitive compact vibration pickup microphone, suitably used as a talking microphone in high ambient noise environments or as a speech recognition input microphone, with high microphone sensitivity, resistance to sliding noise, and insensitivity to external noise and vibration.[Solution] A vibration pickup microphone comprising a housing 1 provided with a first space 5 and a second space 6, an external diaphragm 2 disposed over the first space 5, and a microphone unit 3 that is contained in a rear end portion of the second space having an air gap 8 maintained 6, wherein by disposing the external diaphragm 2 over it, an air chamber 7 formed in the first space 5 and an air gap 8 formed in the second space 6 are communicated via a thin passageway 4, so that vibration of voice picked up by the external diaphragm 2 is transmitted to the microphone unit 3 as sound waves, and then frequency components higher than voice frequencies within frequency components of the sound waves are attenuated in its transmitting path.

Provided are a pickup sensor and a biological sensor that are small-sized and can detect micro vibration efficiently and stably with high accuracy. The pickup sensor includes an electroacoustic converter film including: a piezoelectric polymer composite in which piezoelectric particles are dispersed in a viscoelastic matrix that is formed of a polymer material having viscoelasticity at normal temperature; two thin film electrodes that are laminated on opposite surfaces of the piezoelectric polymer composite, respectively; and a protective layer that is laminated on at least one of the two thin film electrodes, in which at least a part of a surface of the electroacoustic converter film is an abutting surface that abuts against a test object, and the thin film electrode on a surface opposite to the abutting surface is grounded.

The invention provides a voice acquisition device. The voice acquisition device has a structure that a concave metal shell and shell cover are arranged in a clamping way to form a cavity; a metal substrate is arranged in the cavity; a metal brace is arranged on the edge of the side of the metal substrate, which faces to the metal shell; the metal substrate is fixed on the metal shell through the brace; a piezoelectric patch is arranged at the side of the metal substrate, which is back to the metal shell; a silver coating is attached on the upper side of the piezoelectric patch; the silver coating is a signal output end, and the metal shell is a public end. Voice acquisition by utilizing the vibration of jaw bone is realized through such a structural design.

A communication system is provided for a patient featuring a cushion with an opening for receiving the face of the patient. The cushion includes a microphone for receiving audible signals from the patient and one or more speakers for delivering audible signals to the patient. The microphone and speaker(s) are integrated with the cushion to avoid interfering with the comfort of the patient. In one embodiment, the audible signals are delivered to and from the patient via a communication port. In another embodiment, the system includes a display device, so the patient may view parts of the patient's body on the device and then communicate with system operators through the microphone and speaker(s).

The invention discloses an earphone microphone device of a mobile communication terminal and a control method thereof. The earphone microphone module can be used in a mobile communication terminal capable of receiving digital multimedia broadcasting to listen to music or watch TV broadcasts. The present invention includes the following parts: a TV connection device for connecting an external display to the connector; a switching device for connecting the earphone microphone connection device to a controller, or connecting the TV connection device to a TV encoder; a control part for confirming The earphone microphone connecting device or the TV connecting device is connected to the connector, and controls the switching operation of the switching device. The invention can selectively connect the earphone microphone plug or the TV plug through the earphone microphone module to make voice calls and listen to music, or watch the TV broadcast signal received by the terminal through an external display, so as to watch TV broadcast programs more realistically. But also to maximize the efficiency of the headset microphone module.

A device for supplementing a voice includes: a sensing unit sensing a bio-signal corresponding to a first vibration of vocalization and generating a first signal corresponding to the bio-signal; a vibration unit generating a second vibration using the first signal; and a power unit supplying a power to the sensing unit and the vibration unit.

The invention discloses a microphone fixing device comprising a microphone ring and a fixture, wherein the microphone ring is arranged on a microphone, the fixture comprises a fixing part used for fixing on a microphone bracket and a clamping mechanism used for clamping the microphone ring, the clamping mechanism comprises clamping pieces, a button, a sphere, a spring locating column and a first spring, two clamping pieces are symmetrically arranged at the top end of the fixing part, bosses are respectively arranged at the bottom ends of the inner sides of the two clamping pieces, the button is arranged on a side wall of the fixing part, the sphere is arranged between the two bosses, the inner side of the button abuts against the bottom of the sphere, the spring locating column is arranged above the sphere, one end of the first spring abuts against the top of the sphere, and the other end of the first spring abuts against the bottom end of the spring locating column. According to the microphone fixing device disclosed by the invention, the opening or closing of the clamping pieces is realized by the button, and by means of the cooperation with the microphone ring, the use convenience of users is greatly improved, and meanwhile the stability and the firmness of the entire fixing device are effectively improved.

A throat-vibration-type sensor (A) and a communication hands-free device (B). The interior of a box body (1) of the throat-vibration-type sensor (A) is only provided with a ceramic sheet (2) and a copper sheet (3), wherein the ceramic sheet (2) and the copper sheet (3) are electrically connected to an amplification circuit (4) for voice communications. It has the advantages that the volume and thickness are reduced, the costs are reduced, the assembly is easy, and the reception effect is increased. The throat-vibration-type sensor (A) can be combined with the communication hands-free device (B) which is provided with a control circuit board (5), a sound amplification device (6) and a battery unit (7), and the throat-vibration-type sensor (A) can be used for relieving the interference of external noise. Compared with a communication hands-free device of an air-type microphone, the communication hands-free device (B) combined with the throat-vibration-type sensor (A) can avoid being unable to identify a voice signal because of a wind shear sound caused by a high moving speed of a wearer, so as to improve the overall utilization efficiency of the communication hands-free device (B).