| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 81 | Underground communication method and substantially safe current limitter circuit | JP13048688 | 1988-05-30 | JPH01125129A | 1989-05-17 | RARII JII SUTORACHIIKU; KURUTO EI SUMOOKAA; JIERARUDO JIEI BOASU; UIRIAMU II MONTO; MAABUIN ERU HAAZENATSUKU JIYUN; JIEEMUZU ERU ZATSUPANCHI; SESU EI SUMISU; EDOWAADO DEI MUUA |
| PURPOSE: To make it possible to transmit an MF radio signal up to a ground base station over a long distance by using repeaters to be double transceivers rigidly connected to existing conductors in a mine. CONSTITUTION: An underground communication equipment includes a portable radio equipment 22, a portable radio equipment 26, a pager 27, a mobile radio equipment 24, and a ground base station 30 and all of them are connected by a backbone network for the repeaters 28, 29. Messages sent from respective radio equipments 22, 24, 26 in the communication equipment are respectively received by the repeaters 28, 29, each received message is amplified by the repeaters 28, 29 and transmitted up to the ground station 30 by two different kinds of frequency bands over a long distance up to other radio equipments 22, 24, 26 in the communication system. The radio equipments 22, 24, 26, the pagers 27, and the repeaters 28, 29 are respectively provided with substantially safe current limiter circuits. Thus the underground communication equipment capable of executing mutual communication among plural radio equipments 22, 24, 26, the repeaters 28, 29 and the base station 30 by using intermediate radio signals. COPYRIGHT: (C)1989,JPO | ||||||
| 82 | Mine communication system | JP22147484 | 1984-10-22 | JPS61100032A | 1986-05-19 | TSUMURA KAZUHIRO; NISHIDA YONEJI; ITO MASATOSHI; IKEDA KAZUO |
| PURPOSE:To attain mutual communication between workers in a mine and transmission of information to the center by connecting fixed relay transceivers decentralized to plural positions in a mine and mobile terminal transceivers by radio and connecting the fixed transceivers with a control transceiver by cable respectively. CONSTITUTION:The control transceiver 1 collecting the information of the entire mine is placed near the inlet at an X in a ore mine, and the fixed relay transceivers 2 arranged at a prescribed distance in the mine and decentralized at each part in the mine are connected to the transceiver 1 and mutually by a coaxial cable 3. Each transceiver 2 is mounted with an antenna 5 and an open coaxial cable 4 playing a role of an antenna is connected thereto freely removably. The worker in the mine carries a terminal transceiver 6, uses an earphone 8 and a microphone 9 mounted to a helmet 7 to transmit and receive the information with the transceivers 2 in radio and communicates information with a telephone set 11 of the control transceiver device 13 at a Y side at the outside of the mine and the device 13 gives various commands to the worker in the mine. | ||||||
| 83 | JPS6113418B2 - | JP9200878 | 1978-07-27 | JPS6113418B2 | 1986-04-14 | SUGITA JUNKICHI; FUSE JUZO |
| 84 | Inspecting device for wireless amplifier | JP17338281 | 1981-10-29 | JPS5875342A | 1983-05-07 | NAKAJIMA MITSURU |
| PURPOSE:To decrease the time of inspection and to simplify a switch control operation, by modulating plural high frequency oscillators corresponding to plural tuners by means of audible frequency oscillators of different frequencies and applying the outputs of the high frequency oscillators to a wireless amplifier at one time. CONSTITUTION:An inspecting device 10 is connected to an amplifier 3 for inspection. The audible frequency oscillators F1, F2 and F3 are provided to oscillate signals of different audible frequencies, and the outputs of these oscillators are fed to high frequency oscillators RF1, RF2 and RF3 corresponding to tuners respectively. The outputs of these high frequency oscillators are fed to a mixer M1 via corresponding attenuators A1, A2 and A3 respectively. The make and break of these attenuators are controlled by a switching circuit S. The amplifier 3 is provided with tuners CH1, CH2 and CH3, reception display lamps L1, L2 and L3 corresponding to the tuners, a mixer M2 which mixes the output of these tuners, an amplifier A which amplifies the output of the mixer M2 and a loudspeaker. | ||||||
| 85 | Ningenyobidashisochi | JP8320975 | 1975-07-08 | JPS5132203A | 1976-03-18 | HANSU TSUAANTO |
| 86 | TRANSMITTER WITH IMPROVED SENSITIVITY AND SHIELDING | PCT/US2013056819 | 2013-08-27 | WO2014077927A2 | 2014-05-22 | PARKINS JOHN W |
| A magnetic field transmitter, especially a transmitter used in conjunction with wireless communications earplugs. In one embodiment, a plate of magnetic material is used behind a coil of electrical conductor to improve the efficiency of the transmitter and to provide electrical and magnetic shielding. The specific dimensions and characteristics of the preferred embodiment of the transmitter described herein provide for efficient wireless communications. | ||||||
| 87 | Ear to ear communication using bluetooth low energy transport | EP13197757.1 | 2013-12-17 | EP2744233A3 | 2016-11-23 | Solum, Jeffrey Paul; Seel, Mark |
Disclosed in some examples are systems, methods, and machine readable media which allows for hearing instruments to be in a piconet with each other while being connectable as a slave to another device such as a smart phone when it comes within range. In some examples to accomplish this, one or both of the connected hearing aids may send connectable advertisements while connected with each other in the piconet by time multiplexing the advertisements between connection events.
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| 88 | WIRELESS STEREO HEARING ASSISTANCE SYSTEM | EP13815700.3 | 2013-12-10 | EP3081008A1 | 2016-10-19 | BUEHL, Markus |
| A hearing assistance system having an audio signal wireless transmission unit for transmitting a stereo audio signal with left and right ear channels, a first ear unit for being worn at a user's ear and having a hearing instrument and a wireless audio signal receiver unit, the hearing instrument providing the first receiver unit with information as to which ear of the user the hearing instrument is being worn and information as to whether, or not, there is a like second ear unit. The first receiver unit is adapted to decide, depending on the received information as to which ear the first hearing instrument is fitted and whether a second ear unit is worn at the other ear, to receive one of the right and left ear channels, and, in absence of a stereo channel, to supply the respective mono channel of the audio signal to the first hearing instrument. | ||||||
| 89 | DATA CAPTURE BRIDGE | EP08870324 | 2008-12-31 | EP2227865A4 | 2016-04-20 | KRUG WILLIAM K; ZHANG JACK |
| A method and apparatus are provided for gathering research data indicating exposure to audio content to a user of an audio source device and an audio receiver device. The audio source device wirelessly transmits an audio signal containing the audio content. The audio receiver device receives an audio signal containing the audio content. The audio receiver device includes a speaker to output the audio content to be heard by the user. The apparatus includes a bridge device for wirelessly bridging the audio signal from the audio source device to the audio receiver device. The bridge device includes a speaker for outputting the audio content from the audio signal. The apparatus also includes a monitoring device acoustically coupled to the bridge device for monitoring the audio content output by the speaker of the bridge device, and generating research data identifying the audio content. | ||||||
| 90 | MULTI-FUNCTIONAL LED DEVICE AND MULTI-FUNCTIONAL LOUDSPEAKER BOX SYSTEM | EP13870844.1 | 2013-03-18 | EP2916565A1 | 2015-09-09 | WANG, Xia; SUN, Chaoqun; SHEN, Jinxiang |
Embodiments consistent with the present disclosure provide a multifunctional LED device and a multifunctional speaker system. The multifunctional LED device includes a power supply unit configured to supply power; a control unit configured to process audio signals and controlling commands; a speaker configured to playback audio signals, an audio amplifier configured to drive the speaker, a wireless transceiver configured to receive and send data, and an LED lighting unit. Further, the wireless transceiver may communicate with remote smart terminals and other multifunctional LED devices. The multifunctional speaker system may include several multifunctional LED devices and a smart terminal. The smart terminal may communicate with all the multifunctional LED devices. The multifunctional LED devices may communicate with each other. Two of the multifunctional LED devices may form a 2.0-channel speaker system. Other speaker systems such as 2.1-channel, 5.1-channel, 7.1-channel, speaker systems etc., may also be realized by using more multifunctional LED devices. Embodiments consistent with the present disclosure are easy to install, require little wiring, and do not require adding a separate wireless transceiver, a separate remote, or a light switch. Embodiments consistent with the present disclosure support wireless lighting control and provide efficient indoor lighting. |
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| 91 | PORTABLE TELEPHONE HAVING CARTILAGE CONDUCTION SECTION | EP12866397 | 2012-06-27 | EP2806654A4 | 2015-08-19 | HOSOI HIROSHI; HOSOI YOJI; MORIMOTO MASASHI; TANAKA MASAHIDE |
| The mobile telephone disclosed in the present specification has a mobile telephone upper edge unit including a right-ear cartilage conduction unit, a left-ear cartilage conduction unit, and a linking unit linking the right-ear cartilage conduction unit and the left-ear cartilage conduction unit, the units being exposed at the mobile telephone surface; and a cartilage-conduction vibration source for transmitting vibration to the mobile telephone upper edge unit. | ||||||
| 92 | PORTABLE TELEPHONE HAVING CARTILAGE CONDUCTION SECTION | EP12866397.8 | 2012-06-27 | EP2806654A1 | 2014-11-26 | HOSOI, Hiroshi; HOSOI, Yoji; MORIMOTO, Masashi; TANAKA, Masahide |
The mobile telephone disclosed in the present specification has a mobile telephone upper edge unit including a right-ear cartilage conduction unit, a left-ear cartilage conduction unit, and a linking unit linking the right-ear cartilage conduction unit and the left-ear cartilage conduction unit, the units being exposed at the mobile telephone surface; and a cartilage-conduction vibration source for transmitting vibration to the mobile telephone upper edge unit. |
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| 93 | APPARATUS AND METHOD FOR NEAR FIELD COMMUNICATION | EP12841000.8 | 2012-10-09 | EP2769480A1 | 2014-08-27 | MÄENPÄÄ, Ossi Ensio |
| An apparatus including a near field communication (NFC) system (34) and a hearing aid compatibility (HAC) system (36). The near field communication system (34) includes a near field communication antenna (38). The hearing aid compatibility system (36) is configured to generate a magnetic field to be received by a hearing aid. The hearing aid compatibility system (36) includes the near field communication antenna (38). Thus, both the near field communication system (34) and the hearing aid compatibility system (36) include the near field communication antenna (38) as at least a portion of a common communication component for both of the systems (34, 36). | ||||||
| 94 | Audio transmission device for cooperation with a hearing device comprising a telecoil for use in an elevator | EP11176498.1 | 2011-08-03 | EP2424276A3 | 2012-05-23 | Lasscher, Dimitri; Nicholl, Timothy Edgar |
The invention relates to an audio transmission device intended for co-action with a hearing aid provided with a loop listener for application in a lift for the purpose of converting a first audio signal originating from one or more audio sources in the lift, including the lift communication system, to a magnetic field suitable for receiving on the hearing aid, comprising a power supply connection, a first audio input connection intended for the purpose of receiving the first audio signal, an induction loop amplifier intended for the purpose of amplifying the first audio signal and a loop antenna which is coupled to the induction loop amplifier and intended for the purpose of generating the magnetic field.
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| 95 | TELELOOP SYSTEM | EP03753342.9 | 2003-10-09 | EP1550350A1 | 2005-07-06 | SORRIG, Allan |
| The present invention relates to a teleloop system for representing a stereo audio signal by an electromagnetic signal to a listener using a hearing aid with a telecoil. The first and second teleloop have a shape and a size, whereby the electromagnetic signal from the first teleloop and the second teleloop to respectively the left and right ear is available within an area enabling the listener to move within said are and still receive the first and second audio channel. An advantage of the teleloop system is that the user will not have to wear any extra gear when using the system. Further because of the shape and size of each teleloop, it is possible to the listener to move the head without experiencing fallouts on the audio interception. Because of the optimised design of the teleloops ensuring an optimised transfer of energy from the teleloops to the telecoils, the level of the electromagnetic signal can be held at a low level, which minimises the risk on one telecoil receiving electromagnetic signals from both teleloops. | ||||||
| 96 | SHORT RANGE INDUCTIVELY COUPLED COMMUNICATION SYSTEM EMPLOYING TIME VARIANT MODULATION | EP94922045.3 | 1994-06-28 | EP0706732B1 | 2001-12-19 | SHARMA, Madan, M.; YOUNG, Robert, Francis; STROHALLEN, Gene, Michael |
| A short range magnetically coupled wireless communication system employs time variant modulation of a high repetition rate pulse stream and magnetic coupling between a transmission magnetic element and a receiving magnetic element. The pulse stream is modulated by an input audio frequency signal in the time domain, for example, through pulse position modulation, pulse width modulation or pulse symmetry modulation. The receiving magnetic element is coupled to a demodulator circuit which detects the transmitted pulses induced in the receiving magnetic element and reproduces the audio frequency signal. Transmission over short range is thus efficiently accomplished through magnetic coupling in a simple, low cost, low power consumption communication system. | ||||||
| 97 | SHORT RANGE INDUCTIVELY COUPLED COMMUNICATION SYSTEM EMPLOYING TIME VARIANT MODULATION | EP94922045 | 1994-06-28 | EP0706732A4 | 1999-03-10 | SHARMA MADAN M; YOUNG ROBERT FRANCIS; STROHALLEN GENE MICHAEL |
| A short range magnetically coupled wireless communication system employs time variant modulation of a high repetition rate pulse stream and magnetic coupling between a transmission magnetic element and a receiving magnetic element. The pulse stream is modulated by an input audio frequency signal in the time domain, for example, through pulse position modulation, pulse width modulation or pulse symmetry modulation. The receiving magnetic element is coupled to a demodulator circuit which detects the transmitted pulses induced in the receiving magnetic element and reproduces the audio frequency signal. Transmission over short range is thus efficiently accomplished through magnetic coupling in a simple, low cost, low power consumption communication system. | ||||||
| 98 | VERY LOW POWER CORDLESS HEADSET SYSTEM | EP95935232.0 | 1995-10-02 | EP0809906A1 | 1997-12-03 | STROHALLEN, Gene, M.; YOUNG, Robert, F. |
| A cordless headset, requiring very low power using Time Variant Modulation (TVM) for reception of a magnetic signal and TVM of RF or infrared as the transmitter. The headset area or zone of operations is defined by the magnetic field that the headset operates within and uses a handshake protocol that takes advantage of the TVM fixed clock period. The headset communicates with a base station that includes a TVM transmitter and loop for transmitting a TVM signal to the cordless headset, and a RF or infrared receiver capable of receiving TVM signals from the headset. The base station also contains the headset protocol logic for controlling the headset transmission. The headset and base station receiver can both be fixed, mobile or portable and vary with respect to orientation and distance from each other. The receiver circuits in both base station and headset automatically adjust to the variance in signal strength. | ||||||
| 99 | SHORT RANGE INDUCTIVELY COUPLED COMMUNICATION SYSTEM EMPLOYING TIME VARIANT MODULATION | EP94922045.0 | 1994-06-28 | EP0706732A1 | 1996-04-17 | SHARMA, Madan, M.; YOUNG, Robert, Francis; STROHALLEN, Gene, Michael |
| A short range magnetically coupled wireless communication system employs time variant modulation of a high repetition rate pulse stream and magnetic coupling between a transmission magnetic element and a receiving magnetic element. The pulse stream is modulated by an input audio frequency signal in the time domain, for example, through pulse position modulation, pulse width modulation or pulse symmetry modulation. The receiving magnetic element is coupled to a demodulator circuit which detects the transmitted pulses induced in the receiving magnetic element and reproduces the audio frequency signal. Transmission over short range is thus efficiently accomplished through magnetic coupling in a simple, low cost, low power consumption communication system. | ||||||
| 100 | Medium frequency mine communication system | EP88108355.4 | 1988-05-25 | EP0292950A3 | 1990-07-18 | Stolarczyk, Larry G.; Smoker, Kurt A.; Boese, Gerald J.; Mondt, William E.; Hasenack, Marvin L., Jr.; Zappanti, James L.; Smith, Seth A.; Moore, Edward D. |
A method for using an underground mine communication system to effect minewide communication and an intrinsically safe current limiter circuit for insuring that electrical equipment in the system will not cause incendiary conditions. The underground mine communication system comprises a plurality of repeaters (28) and medium frequency radios, including mobile (24), portable and personal-carried radios (26), coupled to electrical conductors (32) and natural waveguides existing in the earth by tuned loop antennas. Messages transmitted by the radios are carried to the repeaters by the conductors or coal seam waves. The repeaters amplify, replicate and retransmit the message at two different frequencies for transmission of the message to a surface base station and to other radios in the system. A paging system, which has a separate set of repeaters (29), is also coupled to the network of electrical conductors and natural waveguides by tuned loop antennas. The paging system alerts miners to contact the surface base station. Radios, pagers and repeaters in the system are equipped with the intrinsically safe current limiter circuit to preclude the development of incendiary conditions. The current limiter circuit comprises a series arrangement of a current trip circuit, a redundant current trip circuit and a current limiting field effect transistor controlled by a feedback control amplifier. |
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