EP1681903A2 - Wireless audio signal receiver device for a hearing instrument - Google Patents
Wireless audio signal receiver device for a hearing instrument Download PDFInfo
- Publication number
- EP1681903A2 EP1681903A2 EP06006778A EP06006778A EP1681903A2 EP 1681903 A2 EP1681903 A2 EP 1681903A2 EP 06006778 A EP06006778 A EP 06006778A EP 06006778 A EP06006778 A EP 06006778A EP 1681903 A2 EP1681903 A2 EP 1681903A2
- Authority
- EP
- European Patent Office
- Prior art keywords
- antenna
- housing
- plane
- signal processing
- processing unit
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Ceased
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Classifications
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01Q—ANTENNAS, i.e. RADIO AERIALS
- H01Q7/00—Loop antennas with a substantially uniform current distribution around the loop and having a directional radiation pattern in a plane perpendicular to the plane of the loop
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01Q—ANTENNAS, i.e. RADIO AERIALS
- H01Q1/00—Details of, or arrangements associated with, antennas
- H01Q1/27—Adaptation for use in or on movable bodies
- H01Q1/273—Adaptation for carrying or wearing by persons or animals
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01Q—ANTENNAS, i.e. RADIO AERIALS
- H01Q1/00—Details of, or arrangements associated with, antennas
- H01Q1/36—Structural form of radiating elements, e.g. cone, spiral, umbrella; Particular materials used therewith
- H01Q1/38—Structural form of radiating elements, e.g. cone, spiral, umbrella; Particular materials used therewith formed by a conductive layer on an insulating support
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04R—LOUDSPEAKERS, MICROPHONES, GRAMOPHONE PICK-UPS OR LIKE ACOUSTIC ELECTROMECHANICAL TRANSDUCERS; DEAF-AID SETS; PUBLIC ADDRESS SYSTEMS
- H04R25/00—Deaf-aid sets, i.e. electro-acoustic or electro-mechanical hearing aids; Electric tinnitus maskers providing an auditory perception
- H04R25/55—Deaf-aid sets, i.e. electro-acoustic or electro-mechanical hearing aids; Electric tinnitus maskers providing an auditory perception using an external connection, either wireless or wired
- H04R25/554—Deaf-aid sets, i.e. electro-acoustic or electro-mechanical hearing aids; Electric tinnitus maskers providing an auditory perception using an external connection, either wireless or wired using a wireless connection, e.g. between microphone and amplifier or using Tcoils
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04R—LOUDSPEAKERS, MICROPHONES, GRAMOPHONE PICK-UPS OR LIKE ACOUSTIC ELECTROMECHANICAL TRANSDUCERS; DEAF-AID SETS; PUBLIC ADDRESS SYSTEMS
- H04R2225/00—Details of deaf aids covered by H04R25/00, not provided for in any of its subgroups
- H04R2225/51—Aspects of antennas or their circuitry in or for hearing aids
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04R—LOUDSPEAKERS, MICROPHONES, GRAMOPHONE PICK-UPS OR LIKE ACOUSTIC ELECTROMECHANICAL TRANSDUCERS; DEAF-AID SETS; PUBLIC ADDRESS SYSTEMS
- H04R25/00—Deaf-aid sets, i.e. electro-acoustic or electro-mechanical hearing aids; Electric tinnitus maskers providing an auditory perception
- H04R25/55—Deaf-aid sets, i.e. electro-acoustic or electro-mechanical hearing aids; Electric tinnitus maskers providing an auditory perception using an external connection, either wireless or wired
- H04R25/556—External connectors, e.g. plugs or modules
Definitions
- the present invention relates to a wireless receiver device for wirelessly receiving audio signals from a remote source, which is capable of supplying such audio signal to a hearing instrument.
- the invention also relates to a hearing instrument which is capable of wirelessly receiving audio signals from a remote source.
- a receiver device for receiving audio signals from a remote source, for example a remote microphone, via a wireless link (usually an FM link) in order to provide such audio signals as input signals to a hearing instrument worn at a user's ear.
- the receiver device has an output interface which is capable of being mechanically connected to an input interface of the hearing instrument via a so-called "audio shoe".
- the audio shoe is mechanically connected to the input interface of the hearing aid and comprises typically a standardized 3-pin socket for receiving three mating pins of the output interface of the receiver device, which pins typically are arranged in a line.
- the orientation of the three pins in the audio shoe with respect to the hearing instrument i.e.
- the sensitivity of the antenna of the receiver device depends on the relative orientation to the user's head, with the optimum orientation of the antenna being given if the loop surface is perpendicular to the direction of the user's nose. If the receiver device is turned by 90°, the loss in sensitivity is typically of the order of 6 dB.
- a presently used solution to this problem is to provide for a mechanical construction which allows to orient the receiver device in the optimum direction for all types of hearing instruments, wherein the connector, i.e. the mechanical components of the output interface of the receiver unit (i.e. the three pins), is rotatable with respect to the housing of the receiver device, so that prior to plugging the receiver unit into the audio shoe the connector can be rotated in an appropriate manner so as to adapt the orientation of the receiver device to the specific type of audio shoe / hearing instrument.
- the connector i.e. the mechanical components of the output interface of the receiver unit (i.e. the three pins)
- a drawback of this solution is that a rotatable connector results in larger dimensions of the receiver device, given by the space required to design and implement a reliable and stable mechanical solution for the connector rotation.
- the electrical connections between the connector and the electronic module of the receiver device need to be flexible in order to allow the rotation of the connector with respect to the electronic module, which results in additional complexity, e.g. soldered wires, and again larger geometrical dimensions.
- a further drawback is the need to instruct the user regarding how to manipulate the receiver device, i.e. how to rotate the connector, on all sorts and types of combinations of hearing instruments and audio shoes.
- EP 1 531 649 A2 describes a wireless hearing aid system with a magnetic loop antenna on a flex print, wherein at least a portion of the matching network is affixed to the flexible dielectric substrate carrying the antenna.
- the antenna may be attached to the inner or outer surface of the shell of the hearing aid, with the shape of the loop antenna being matched to the irregular shape of the hearing aid shell.
- DE 10 2004 017 832 B3 relates to a hearing aid having a housing into which an antenna is integrated as an electrically conducting layer in order to reduce the size of the hearing aid.
- the antenna may be L-shaped as a metal layer applied to the hearing aid housing, the antenna may be applied as a pre-shaped foil element onto the hearing aid housing, the antenna may be produced by structuring a metal layer of the hearing aid housing or the antenna may be fabricated as a conducting plastics layer during injection moulding of the hearing aid housing.
- EP 1 376 760 A2 relates to a folded dipole antenna for transmitting and receiving radio signals in all types of telecommunication systems, in particular for use in base stations of mobile telephone networks.
- the antenna consists of three portions, namely a central portion fixed to a ground plate, a left portion and a right portion which are angled by 45° to the central portion in such a manner that they form an angle of 90° relative to each other.
- EP 1 594 187 A1 relates to a folded laminar antenna which is designed as a slot-loop antenna with a loop-like slot between conducting portions.
- the antenna consists of three portions, namely a central portion, a right portion and a left portion, with the right and left portions being folded by about 180° onto the central portion.
- the antenna comprises a layer of electrically conductive material which is provided on a dielectric substrate layer.
- the antenna may be used in portable wireless devices such as mobile telephones and personal digital assistants.
- DE 10 2004 016 573 B3 relates to a binaural In-the-ear (ITE) hearing aid system wherein each of the two hearing aids has an antenna for wireless communication with the other hearing aid and wherein the antenna is oriented at a certain angle with respect to the housing in order to ensure that the two antennas are aligned when the hearing aids are worn by the user.
- ITE In-the-ear
- the first object is solved by a receiver device as defined in claims 1, 4 and 13, respectively, whereas the second object is achieved by a receiver device as defined in claim 22, and whereas the third object is achieved by a hearing instrument as defined in claims 11 and 12, respectively.
- the solution according to claims 1 and 4 is beneficial in that, by using a magnetic loop antenna which comprises a first portion defining a first plane and a second portion defining a second plane, wherein the first plane and the second plane are oriented at an angle of 60 to 120°, it is ensured that at least one portion of the antenna is always oriented at least close to the optimum direction, whatever the actual orientation of the receiver device -depending on the type of hearing instrument to which it is to be connected - on the user's head will be.
- the geometry of the magnetic loop antenna can be adapted to the geometry of the housing, whereby the volume of the receiver device can be reduced.
- the need for a rotatable connector is avoided. Consequently, a more simple, smaller, more compact and also more robust receiver device can be achieved.
- the solution according to claims 11 and 12 is beneficial in that, by providing a magnetic loop antenna which comprises a first portion defining a first plane and a second portion defining a second plane, wherein the first plane and the second plane are oriented at an angle of 60 to 120°, a relatively small, compact and robust hearing instrument can be achieved.
- the first portion of the antenna is adjacent and aligned to a first wall of the housing and the second portion of the antenna is adjacent to and aligned to a second wall of the housing in order to achieve a particularly compact design.
- the first and second portion of the antenna are planar.
- the first and second portion of the antenna unit are connected by a bent portion of the antenna unit, with the first and second portion of the antenna unit preferably comprising at least 80% of the area of the antenna.
- the first and second portion of the antenna have essentially the same area and are essentially symmetrical with respect to each other.
- the angle between the first plane and the second plane is approximately 90°, for example from 80 to 100°.
- the device is preferably manufactured by forming the loop-line conductor layer on the flexible insulating substrate while the substrate is in a planar condition, bending the first and second portion relative to each other such that the first plane and the second plane become oriented at an angle of 60 to 120° and fixing the first and second portion in that orientation to each other, and mounting the antenna unit and the signal processing unit within the housing.
- the antenna unit and the signal processing unit are electrically connected prior to mounting the antenna unit and the signal processing unit within the housing, with the antenna unit and a preamplifier of the signal processing unit being tuned prior to mounting the antenna unit and the signal processing within the housing.
- the device is preferably manufactured by forming the housing with the integrated antenna unit and mounting the signal processing unit within the housing.
- the antenna unit is integrated into the housing by a moulded interconnect device (MID) technique.
- MID moulded interconnect device
- the housing is shaped first and subsequently the antenna unit is integrated into the housing by modifying the surface of the housing.
- the plastic material is capable of being made conductive by laser activation and the loop-like conductor is created by laser activation of a surface portion of the plastic material of the housing, followed by electroplating of the laser-activated surface portion in order to thicken the laser-activated surface portion.
- the loop-like conductor is created by metal deposition from a metal evaporation source through a shadow mask onto a surface portion of the plastic material of the housing.
- the loop-like conductor is created by coating at least a portion of the surface of the housing with a metal layer, followed by selectively structuring the metal layer in order to create a loop-like metal structure, wherein the metal layer preferably is structured by selectively removing the metal layer.
- the antenna is integrated into the housing during shaping of the housing, wherein the housing preferably is shaped by injection moulding in a moulding tool, wherein the loop-like conductor is inserted into the moulding tool and is overmoulded in the moulding tool.
- the solution according to claim 13 is beneficial in that, by orienting the antenna plane or antenna direction, respectively, at an angle of 30 to 60 degrees, preferably at 40 to 50 degrees, with respect to the central symmetry plane of the output interface, it is ensured - due to the fact that the orientation of the input interface or the adapter interface (audio shoe) typically differs by ⁇ 90 degrees or ⁇ 180 degrees from type to type of the hearing instrument so that also the relative orientation of the receiver device when connected to the hearing instrument would differ by 90 degrees or 180 degrees depending on the type of hearing instrument - that the orientation of the antenna to the user's head anatomy, in particular to the direction of the user's nose, differs by significantly less than 90 degrees depending on the type of hearing instrument so that the worst case in which the antenna is oriented more or less parallel to the direction of the user's nose can be avoided.
- said output interface comprises three pins which are arranged in a line, with these pins defining the central symmetry plane.
- the antenna may be a magnetic loop antenna, a ferrite coil antenna or an air coil antenna.
- the solution according to claim 22 is beneficial in that, by forming a printed board circuit antenna and at least a portion of the signal processing unit as an integral electronic unit on a common printed circuit board comprising an at least partially flexible insolating substrate which is capable of being partially folded for mounting the printed circuit board into the housing, manufacturing of the receiver device is made particularly simple, since the antenna and at least a portion of the signal processing unit can be processed as an integral electronic unit, while, due to the foldability of the substrate, nevertheless a compact design can be achieved.
- Fig. 1 shows a block diagram of a receiver device 10 capable of wirelessly receiving audio signals from a remote source 12, which is connected via an audio shoe 14 to a hearing instrument 16 which may be a behind-the-ear (BTE) hearing aid which is worn at the user's ear.
- the remote audio signal source typically may be a transmitter unit comprising a microphone which is worn by a teacher in a classroom for teaching hearing-impaired pupils.
- the receiver device 10 comprises a housing 18, a magnetic loop-antenna 20 for receiving radio-frequency signals carrying audio-signals from the remote source 12 via a radio-frequency link 22, a signal processing unit 21 for reproducing audio signals from the radio frequency signals received by the antenna 20, and an output interface 24 which is capable of being mechanically connected to an input interface 26 of the hearing instrument 16 via the audio shoe 14 which comprises an input interface 25 mating with the output interface 24.
- the signal processing unit 21 comprises a high frequency (HF) unit 29 connected to the antenna 20, a demodulator 30 for demodulating the frequency-modulated (FM) signal received by the antenna 20 and processed by the HF-unit 29, and a pre-amplifier 32 for pre-amplifying the demodulated audio signal prior to being passed to the output interface 24.
- HF high frequency
- the HF-unit 29 usually comprises a matching network for the antenna 20, an low-noise amplifier, an RF-amplifier, a frequency synthesiser and a mixer in order to convert the HF-signal received by the antenna 20 down an intermediate frequency.
- the architecture of the receiver device described so far is conventional FM receiver architecture.
- the hearing instrument 16 comprises at least one microphone 34, a signal processing unit 36, an output transducer 38 (e.g. a loudspeaker) for stimulating the user's hearing, and a housing 40 and a battery 42 which typically also serves to power the receiver device via the audio shoe 14.
- the hearing instrument 16 usually will have two different modes of operation: a first mode in which only the input audio signal received from the receiver device 10 is reproduced by the output transducer 38 (usually labelled "FM" mode) and a second mode in which a combination of the signal of the microphone 34 and the input signal provided by the receiver device 10 is reproduced by the output transducer 38 (usually labelled "FM+M” mode).
- Fig. 2 is a block diagram of a hearing instrument 50, for example, a BTE hearing aid, which is capable of receiving audio signals form a remote source 12 via an FM link 22.
- a magnetic loop antenna unit 20 and a first signal processing unit 21 comprising a HF-unit 29, a demodulator 30 and a preamplifier 32 are integrated within the housing 52 of the hearing instrument 50.
- the system of Fig. 2 is functionally equivalent to the system shown in Fig. 1 in that audio signals from the remote source 12 can be provided to the user wearing the hearing instrument via the output transducer 38, with the functional components of the receiver device 10 of Fig 1 being mechanically integrated within the hearing instrument 50.
- the antenna 20 is part of an assembly 54 comprising a printed circuit board 53 which comprises an insulating substrate 55 which is flexible such that it is capable of being bent by at least 90°.
- the insulating substrate 55 may comprise rigid portions which are connected by flexible portions, i.e. in this case the substrate is only partially flexible.
- the assembly 54 comprises a loop-like conductor 56 on the insulating substrate 55, which forms two turns in order to form a magnetic loop antenna (however, also one turn may be already sufficient or three turns may be needed to achieve the optimum impedance).
- the area surrounded by the conductor turns should be as large as possible.
- the antenna 20 needs to have low resistance, which may be achieved by metalizing all layers of the print (or at least the uppermost layer and the lowermost layer (for a single layer print)) and realizing a conductive connection therebetween through an appropriate number of metalized via holes.
- the assembly 54 includes other electronic components 57 (ICs and passive components) forming at least part, preferably all, of the signal processing unit.
- the assembly will include at least the components of the HF-unit 29.
- Some of such electronic components 57 may be formed directly on the substrate 55 as conductor layers while others may be mounted as separate components on the substrate 55.
- the electronic components 57 formed directly on the substrate 55 may be formed in the same processing step as the antenna 20, whereas the separate components will be mounted thereafter.
- the assembly 54 serves as an integral electronic unit, i.e. as an electronic module.
- Fig. 3 the assembly 54 is shown in a planar condition after manufacturing.
- the antenna 20 comprises a first portion 58 and a second portion 60 which are connected by an intermediate portion 62 which allows the first and second portion 58, 60 to be folded with respect to each other so that they form an angle of, e.g. 90°, with the intermediate portion 62 being bent.
- the intermediate portion 62 may be of the same material as the first and second portion 58, 60 (if these are made of sufficiently flexible material) or it may be of a more flexible material of the substrate 55.
- the assembly 54 comprises other portions 59, 61 carrying electronic components 57, which are foldable be about 90 degrees or 180 degrees relative to a central portion 63 in order to minimize the space required by the assembly 54.
- Such folded configuration is shown in Fig. 4.
- the intermediate portion 62 will be relatively small, for example, less than 20% of the area of the antenna unit 20.
- the first and second portion 58, 60 of the antenna will have essentially the same area and preferably will be essentially symmetrical with respect to each other.
- the assembly 54 will be mounted in the housing 64 in such a manner that the first portion 58 is adjacent to and aligned to a first wall 66 of the housing 64 and that the second portion 60 is adjacent to and aligned to a second wall 68 of the housing 64, whereby a particularly compact design resulting in a small volume can be achieved.
- a further benefit consists in the fact that due to the angled configuration of the antenna 20 it is ensured that one half of the antenna is always directed into the optimum orientation with respect to the user's head (antenna plane usually perpendicular to the user's nose), whatever the orientation of the pins/socket of the audio shoe 14 relative to the housing 40 of the hearing instrument 16 may be.
- the antenna 20 is electrically connected to the respective signal processing unit 21 comprising the pre-amplifier 32 prior to mounting to the antenna 20 and the signal processing unit 21 within the housing 64, so that the antenna 20 with the HF-unit 29 and the pre-amplifier 32 can be trimmed prior to being mounted in the housing 64 (i.e. the resonant radio frequency circuits will be tuned in order to account for parasitic capacitances and inductances).
- FIG. 5 another example of a flexprint antenna assembly 54 is shown in its folded state prior to being mounted within the housing, which includes a switch 72 for manually switching between the operation modes FM and FM+M of the hearing instrument 16 connected to receiver device 10.
- Fig. 6 the folded flexprint assembly 54 of Fig. 5 (however, the conductor loops 56 of the antenna 20 have been omitted in Fig. 6) is shown together with a housing 64 and a plug member 74.
- the plug member 74 comprises three pins 76A, 76B, 76C which form the output interface 24 of the receiver unit 10 and which are arranged in a line so that they define a central symmetry plane of the output interface 24 (however, the pins 76A and 76C are of different diameters in order to ensure the plug member 74 can be connected to the audio shoe 14 only in the correct orientation ⁇ and not in an orientation rotated by 180 degrees with respect to the correct orientation).
- the plug member 74 also comprises a carrier unit 70 for receiving the folded assembly 54.
- the folded assembly 54 with the carrier unit is fixed at the carrier unit 70 of the plug member 74.
- the flexprint assembly 54 comprises contacts 75 which engage with the inner ends of the pins 76A, 76B, 76C upon when the assembly 54 is connected to the plug member 74.
- the folded assembly 54 fixed at the plug member 74 is mounted within the housing 64. To this end the plug member 74 is fixed to the housing 64 by two rods 77, with the plug member 74 forming the cover plate of the housing 64.
- a receiver unit 10 comprising a housing 18 is connected via an audio shoe 14 to a hearing instrument 16, with the switch 72 projecting through the housing 18 for being operated by the user.
- first portion 58 and the second portion 60 of the antenna 20 are shown in Figs. 4 and 5 as being planar, this need not be necessarily so.
- the walls of the housing in which the antenna 20 is to be mounted have a rounded shape
- the first portion 58 and the second portion 60 of the antenna 20 may have a correspondingly rounded shape.
- the angle between the first and second portion of the antenna in the folded state may be determined by the angle between the respective tangential planes at the two opposite ends of the antenna (for example, if the antenna is bent in an "arch-like" manner in order to conform the shape of the antenna to a cylindrically shaped housing wherein the tangential planes at the two opposite ends of the bent antenna would form an angle of 90°, then the actual folding angle is 90°).
- Fig. 8 shows an example of a housing 80 (only partially illustrated in the drawing) to be used for the receiver device 10 or for the hearing instrument 50 which capable of receiving audio signals from the remote source 12, into which housing 80 a magnetic loop antenna 20 has been integrated.
- the antenna 20 comprises a loop-like conductor 56, with the conductor 56 being integrated into the walls of the housing 80.
- the conductor 56 is integrated into a first wall portion 82 and a second wall portion 84, which are arranged at an angle of, for example, about 90° relative to each other.
- the antenna 20 is formed in such a manner that one half of the antenna is integrated into the first wall portion 82 while the second half of the antenna is integrated into the second wall portion 84, so that the two halves of the antenna, i.e. the first portion 58 of the antenna is oriented at an angle of about 90° relative to the second portion 60 of the antenna.
- the conductor 56 may be formed, for example, by one of the following methods within the housing 80 which is made of plastic material:
- the housing is shaped first (for example, by injection moulding) and subsequently the conductor 56 is formed by modifying the surface of the housing 80.
- a plastic material for the housing 82 which is capable of being made conductive by laser activation, wherein the conductor 56 is created by laser activation of the respective surface portion of the plastic material of the housing 80, followed by electroplating of the laser activated surface portion in order to thicken the laser activated surface portion.
- the conductor 56 may be created by metal deposition from a metal evaporation source through a shadow mask onto a surface portion of the plastic material of the housing 80.
- the conductor 56 is created by coating at last a portion of the surface of the housing 80 with a metal layer, followed by selectively structuring the metal layer into the desired shape of the conductor 56, preferably by selectively removing the metal layer.
- the antenna structure i.e. the conductor 56
- the antenna structure may be integrated into the housing 80 during shaping of the housing. This can be done, for example, by shaping the housing by injection moulding in a moulding tool, wherein the conductor is inserted into the moulding tool and is overmoulded in the moulding tool.
- MID moulded interconnect device
- Fig. 9 is a schematic view of a receiver device 10 comprising an angled antenna 20 and of a receiver device 110 comprising a non-angled antenna 120, respectively, when used with four different types of audio shoes.
- Fig. 9 the respective orientation of the antenna 20, 120 with respect to the direction 94 of the user's nose 96 is shown, with the direction 94 extending between the ears 98 through the nose tip.
- the receiver device 10 comprises an essentially rectangular housing 18 with a plug member comprising three pins 76A, 76B and 76C which are arranged in a line, thereby defining a central symmetry plane 90 of the output interface of the receiver device 10.
- the angled antenna 20 is of the type shown in Figs. 4 and 5, i.e. it comprises a first portion 58 which is angled by 90° relative to a second portion 60. In a first orientation labelled "A" in Fig.
- the receiver unit 10 is used with a hearing instrument having an audio shoe of a first type which is oriented such that, when the receiver device 10 has been connected to the audio shoe and the hearing instrument is worn at the user's ear 98, the central plane 90 of the output interface of the receiver device 10 is perpendicular to the direction 94 of the user's nose 96.
- the first portion 58 of the antenna 20 likewise is oriented perpendicular to the direction 94 of the user's nose 96 so that the first portion 58 has an optimum orientation with respect to the user's head anatomy, while the second portion 60 has the least preferred orientation.
- the antenna 20 thus will have medium sensitivity.
- the receiver device 10 is used with a different type of hearing instrument/audio shoe so that, when the receiver device 10 has been connected to the audio shoe and the hearing instrument is worn at the user's ear 98 the receiver device 10 has been rotated by 90° in the counter-clockwise direction compared to configuration A, so that the central symmetry plane 90 of the output interface now is parallel to the direction 94 of the user's nose 96.
- the second portion 60 of the antenna 20 has the optimum orientation with respect to the direction 94 of the user's nose 96 while the first portion 58 now has the least preferred orientation. In total, however, the antenna performance thus is the same as in configuration A.
- the type of hearing instrument/audio shoe is such that the receiver device 10 has been rotated by 90° in the counter-clockwise direction compared to configuration B so that the central symmetry plane 90 now has the same orientation as in configuration A. Due to the 90° bent shape of the antenna 20, the performance of the antenna 20 is the same as in configurations A and B.
- the type of hearing instrument/audio shoe is such that the receiver device 10 has been rotated by 90° in the counter-clockwise direction compared to configuration C so that the central symmetry plane 90 now has the same orientation as in configuration B. Due to the 90° bent shape of the antenna 20, the performance of the antenna 20 is the same as in configurations A, B and C.
- the performance of the antenna 20 is substantially independent of the specific type of hearing instrument/audio shoe with which the receiver device 10 is used.
- An alternative embodiment in order to achieve such independence of antenna performance from the type of audio shoe is to use an antenna 120 which is either planar, thereby defining an antenna plane 92, or has an axial symmetry, thereby defining an antenna direction 92, wherein the antenna plane 92 or the antenna direction 92, respectively, is oriented at an angle of 30 to 60°, preferably from 40 to 50°, with respect to the central symmetry plane 90 of the output interface.
- the antenna 120 is planar, it is preferably a magnetic loop antenna, whereas if it has an axial symmetry, it is preferably a ferrite antenna or an air coil antenna.
- the angle between the antenna direction 92 and the symmetry plane 90 of the output interface is about 45° as shown in Fig. 9.
- the angle between the antenna direction 92 and the central symmetry plane 94 is 45°, resulting in medium performance of the antenna 120 compared to an orientation in which the antenna plane 92 or the antenna direction 92 would be perpendicular to the direction 94 of the user's nose 96.
- the antenna direction 92 likewise has been rotated in the counter-clockwise direction by 90°.
- the angle between the direction 94 of the user's nose 96 and the antenna direction 92 still is 45°. Consequently, the antenna performance will remain the same as in configuration A
- the antenna performance is essentially independent of the specific type of hearing instrument/audio shoe with which the receiver device 110 is used.
- the housing 18 shown in Fig. 9, which corresponds to the housing 64 of Fig. 6, has a four-fold rotational symmetry with respect to an axial symmetry axis and comprises two walls which are parallel to the central symmetry plane 90 of the output interface and two walls which are perpendicular to the central symmetry plane 90.
- FIG. 9 Also shown in Fig. 9 is a schematic example of the input interface 25 of the audio shoe 14, which comprises three pin sockets 79A, 79B, 79C for receiving the pins 76A, 76B and 76C, respectively, which sockets are arranged in a line and thereby define a central symmetry plane 93 of the input interface 25.
- the input interface 25 shown in Fig. 9 is an example of an audio shoe of the type resulting in the configuration "A" of the receiver devices 10, 110 of Fig. 9.
Abstract
Description
- The present invention relates to a wireless receiver device for wirelessly receiving audio signals from a remote source, which is capable of supplying such audio signal to a hearing instrument. The invention also relates to a hearing instrument which is capable of wirelessly receiving audio signals from a remote source.
- It is well-known to use a receiver device (usually an FM (frequency modulation) receiver) for receiving audio signals from a remote source, for example a remote microphone, via a wireless link (usually an FM link) in order to provide such audio signals as input signals to a hearing instrument worn at a user's ear. To this end the receiver device has an output interface which is capable of being mechanically connected to an input interface of the hearing instrument via a so-called "audio shoe". The audio shoe is mechanically connected to the input interface of the hearing aid and comprises typically a standardized 3-pin socket for receiving three mating pins of the output interface of the receiver device, which pins typically are arranged in a line. However, the orientation of the three pins in the audio shoe with respect to the hearing instrument, i.e. with respect to the user's head, is not standardized and therefore varies from type to type. Moreover, the sensitivity of the antenna of the receiver device depends on the relative orientation to the user's head, with the optimum orientation of the antenna being given if the loop surface is perpendicular to the direction of the user's nose. If the receiver device is turned by 90°, the loss in sensitivity is typically of the order of 6 dB.
- A presently used solution to this problem is to provide for a mechanical construction which allows to orient the receiver device in the optimum direction for all types of hearing instruments, wherein the connector, i.e. the mechanical components of the output interface of the receiver unit (i.e. the three pins), is rotatable with respect to the housing of the receiver device, so that prior to plugging the receiver unit into the audio shoe the connector can be rotated in an appropriate manner so as to adapt the orientation of the receiver device to the specific type of audio shoe / hearing instrument. Such receiver devices are sold, for example, by Phonak Communications AG, Murten, Switzerland, under the product designation MLx S.
- A drawback of this solution is that a rotatable connector results in larger dimensions of the receiver device, given by the space required to design and implement a reliable and stable mechanical solution for the connector rotation. In addition, the electrical connections between the connector and the electronic module of the receiver device need to be flexible in order to allow the rotation of the connector with respect to the electronic module, which results in additional complexity, e.g. soldered wires, and again larger geometrical dimensions. A further drawback is the need to instruct the user regarding how to manipulate the receiver device, i.e. how to rotate the connector, on all sorts and types of combinations of hearing instruments and audio shoes.
-
EP 1 531 649 A2 describes a wireless hearing aid system with a magnetic loop antenna on a flex print, wherein at least a portion of the matching network is affixed to the flexible dielectric substrate carrying the antenna. The antenna may be attached to the inner or outer surface of the shell of the hearing aid, with the shape of the loop antenna being matched to the irregular shape of the hearing aid shell. - DE 10 2004 017 832 B3 relates to a hearing aid having a housing into which an antenna is integrated as an electrically conducting layer in order to reduce the size of the hearing aid. The antenna may be L-shaped as a metal layer applied to the hearing aid housing, the antenna may be applied as a pre-shaped foil element onto the hearing aid housing, the antenna may be produced by structuring a metal layer of the hearing aid housing or the antenna may be fabricated as a conducting plastics layer during injection moulding of the hearing aid housing.
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EP 1 376 760 A2 relates to a folded dipole antenna for transmitting and receiving radio signals in all types of telecommunication systems, in particular for use in base stations of mobile telephone networks. The antenna consists of three portions, namely a central portion fixed to a ground plate, a left portion and a right portion which are angled by 45° to the central portion in such a manner that they form an angle of 90° relative to each other. -
EP 1 594 187 A1 relates to a folded laminar antenna which is designed as a slot-loop antenna with a loop-like slot between conducting portions. The antenna consists of three portions, namely a central portion, a right portion and a left portion, with the right and left portions being folded by about 180° onto the central portion. The antenna comprises a layer of electrically conductive material which is provided on a dielectric substrate layer. The antenna may be used in portable wireless devices such as mobile telephones and personal digital assistants. - DE 10 2004 016 573 B3 relates to a binaural In-the-ear (ITE) hearing aid system wherein each of the two hearing aids has an antenna for wireless communication with the other hearing aid and wherein the antenna is oriented at a certain angle with respect to the housing in order to ensure that the two antennas are aligned when the hearing aids are worn by the user.
- It is a first object of the invention to provide for a receiver device for being used with a hearing instrument, wherein the dependence of the sensitivity of the receiver device on the specific type of the hearing instrument should be relatively low while nevertheless the receiver device should be mechanically relatively simple.
- It is a second object of the invention to provide for a receiver device for being used with a hearing instrument, wherein particularly simple manufacturing of the receiver device should be enabled.
- It is a third object of the invention to provide for a hearing instrument capable of receiving audio signals from a remote source, wherein the space required by the antenna should be minimized.
- According to the invention the first object is solved by a receiver device as defined in
claims 1, 4 and 13, respectively, whereas the second object is achieved by a receiver device as defined inclaim 22, and whereas the third object is achieved by a hearing instrument as defined inclaims 11 and 12, respectively. - The solution according to
claims 1 and 4 is beneficial in that, by using a magnetic loop antenna which comprises a first portion defining a first plane and a second portion defining a second plane, wherein the first plane and the second plane are oriented at an angle of 60 to 120°, it is ensured that at least one portion of the antenna is always oriented at least close to the optimum direction, whatever the actual orientation of the receiver device -depending on the type of hearing instrument to which it is to be connected - on the user's head will be. In addition, in view of the fact that usually the housing of such receiver device will have walls which are oriented relative to each other at an angle of typically between 60 and 120° the geometry of the magnetic loop antenna can be adapted to the geometry of the housing, whereby the volume of the receiver device can be reduced. In particular, also the need for a rotatable connector is avoided. Consequently, a more simple, smaller, more compact and also more robust receiver device can be achieved. - The solution according to
claims 11 and 12 is beneficial in that, by providing a magnetic loop antenna which comprises a first portion defining a first plane and a second portion defining a second plane, wherein the first plane and the second plane are oriented at an angle of 60 to 120°, a relatively small, compact and robust hearing instrument can be achieved. - In a preferred embodiment of the solution according to claim 1 the first portion of the antenna is adjacent and aligned to a first wall of the housing and the second portion of the antenna is adjacent to and aligned to a second wall of the housing in order to achieve a particularly compact design. Preferably the first and second portion of the antenna are planar.
- Preferably the first and second portion of the antenna unit are connected by a bent portion of the antenna unit, with the first and second portion of the antenna unit preferably comprising at least 80% of the area of the antenna. Preferably the first and second portion of the antenna have essentially the same area and are essentially symmetrical with respect to each other.
- Preferably the angle between the first plane and the second plane is approximately 90°, for example from 80 to 100°.
- In the case in which the antenna unit is designed as a printed board circuit with a loop-like conductor layer on a flexible insulating substrate, the device is preferably manufactured by forming the loop-line conductor layer on the flexible insulating substrate while the substrate is in a planar condition, bending the first and second portion relative to each other such that the first plane and the second plane become oriented at an angle of 60 to 120° and fixing the first and second portion in that orientation to each other, and mounting the antenna unit and the signal processing unit within the housing. Preferably the antenna unit and the signal processing unit are electrically connected prior to mounting the antenna unit and the signal processing unit within the housing, with the antenna unit and a preamplifier of the signal processing unit being tuned prior to mounting the antenna unit and the signal processing within the housing.
- In the case in which the antenna unit is formed by an angled portion of the housing, the device is preferably manufactured by forming the housing with the integrated antenna unit and mounting the signal processing unit within the housing. Preferably the antenna unit is integrated into the housing by a moulded interconnect device (MID) technique.
- According to one embodiment, the housing is shaped first and subsequently the antenna unit is integrated into the housing by modifying the surface of the housing. Preferably, the plastic material is capable of being made conductive by laser activation and the loop-like conductor is created by laser activation of a surface portion of the plastic material of the housing, followed by electroplating of the laser-activated surface portion in order to thicken the laser-activated surface portion.
- According to an alternative embodiment the loop-like conductor is created by metal deposition from a metal evaporation source through a shadow mask onto a surface portion of the plastic material of the housing.
- According to a further alternative embodiment the loop-like conductor is created by coating at least a portion of the surface of the housing with a metal layer, followed by selectively structuring the metal layer in order to create a loop-like metal structure, wherein the metal layer preferably is structured by selectively removing the metal layer.
- According to another alternative embodiment the antenna is integrated into the housing during shaping of the housing, wherein the housing preferably is shaped by injection moulding in a moulding tool, wherein the loop-like conductor is inserted into the moulding tool and is overmoulded in the moulding tool.
- The solution according to claim 13 is beneficial in that, by orienting the antenna plane or antenna direction, respectively, at an angle of 30 to 60 degrees, preferably at 40 to 50 degrees, with respect to the central symmetry plane of the output interface, it is ensured - due to the fact that the orientation of the input interface or the adapter interface (audio shoe) typically differs by ±90 degrees or ±180 degrees from type to type of the hearing instrument so that also the relative orientation of the receiver device when connected to the hearing instrument would differ by 90 degrees or 180 degrees depending on the type of hearing instrument - that the orientation of the antenna to the user's head anatomy, in particular to the direction of the user's nose, differs by significantly less than 90 degrees depending on the type of hearing instrument so that the worst case in which the antenna is oriented more or less parallel to the direction of the user's nose can be avoided.
- Usually said output interface comprises three pins which are arranged in a line, with these pins defining the central symmetry plane. The antenna may be a magnetic loop antenna, a ferrite coil antenna or an air coil antenna.
- The solution according to
claim 22 is beneficial in that, by forming a printed board circuit antenna and at least a portion of the signal processing unit as an integral electronic unit on a common printed circuit board comprising an at least partially flexible insolating substrate which is capable of being partially folded for mounting the printed circuit board into the housing, manufacturing of the receiver device is made particularly simple, since the antenna and at least a portion of the signal processing unit can be processed as an integral electronic unit, while, due to the foldability of the substrate, nevertheless a compact design can be achieved. - In the following examples of the invention will be illustrated by reference to the attached drawings, wherein:
- Fig. 1
- is a block diagram of an embodiment of a receiver device according to the invention when connected with a hearing instrument;
- Fig. 2
- is a block diagram of an embodiment of a hearing instrument according to the invention which is capable of receiving audio signals from a remote source;
- Fig. 3
- shows a flexprint assembly comprising an antenna for use in a receiver device to be connected to a hearing instrument or in a hearing instrument, with the assembly being shown in its original unfolded state;
- Fig. 4
- is a perspective view of the flexprint assembly of Fig. 4 after having been folded for being mounted in the housing of the receiver device or the hearing instrument, respectively;
- Fig. 5
- is a view similar to that of Fig. 4, with another embodiment of a folded flexprint assembly being shown;
- Fig. 6
- is an exploded view of a receiver device comprising the folded flexprint assembly of Fig. 5, a housing and a plug member;
- Fig. 7
- is a side view of a hearing instrument with a receiver device being connected thereto via an audio shoe;
- Fig. 8
- shows an example of part of a housing of a receiver device or hearing instrument, with an antenna being integrated within the walls;
- Fig. 9
- is a schematic view of a receiver device comprising a non-angled antenna and of a receiver device comprising an angled antenna when used with four different types of audio shoes.
- Fig. 1 shows a block diagram of a
receiver device 10 capable of wirelessly receiving audio signals from aremote source 12, which is connected via anaudio shoe 14 to ahearing instrument 16 which may be a behind-the-ear (BTE) hearing aid which is worn at the user's ear. The remote audio signal source typically may be a transmitter unit comprising a microphone which is worn by a teacher in a classroom for teaching hearing-impaired pupils. - The
receiver device 10 comprises ahousing 18, a magnetic loop-antenna 20 for receiving radio-frequency signals carrying audio-signals from theremote source 12 via a radio-frequency link 22, asignal processing unit 21 for reproducing audio signals from the radio frequency signals received by theantenna 20, and anoutput interface 24 which is capable of being mechanically connected to aninput interface 26 of thehearing instrument 16 via theaudio shoe 14 which comprises aninput interface 25 mating with theoutput interface 24. Thesignal processing unit 21 comprises a high frequency (HF)unit 29 connected to theantenna 20, a demodulator 30 for demodulating the frequency-modulated (FM) signal received by theantenna 20 and processed by the HF-unit 29, and apre-amplifier 32 for pre-amplifying the demodulated audio signal prior to being passed to theoutput interface 24. The HF-unit 29 usually comprises a matching network for theantenna 20, an low-noise amplifier, an RF-amplifier, a frequency synthesiser and a mixer in order to convert the HF-signal received by theantenna 20 down an intermediate frequency. The architecture of the receiver device described so far is conventional FM receiver architecture. - The
hearing instrument 16 comprises at least onemicrophone 34, asignal processing unit 36, an output transducer 38 (e.g. a loudspeaker) for stimulating the user's hearing, and ahousing 40 and abattery 42 which typically also serves to power the receiver device via theaudio shoe 14. When being used with thereceiver unit 10, thehearing instrument 16 usually will have two different modes of operation: a first mode in which only the input audio signal received from thereceiver device 10 is reproduced by the output transducer 38 (usually labelled "FM" mode) and a second mode in which a combination of the signal of themicrophone 34 and the input signal provided by thereceiver device 10 is reproduced by the output transducer 38 (usually labelled "FM+M" mode). - Fig. 2 is a block diagram of a
hearing instrument 50, for example, a BTE hearing aid, which is capable of receiving audio signals form aremote source 12 via anFM link 22. To this end, a magneticloop antenna unit 20 and a firstsignal processing unit 21 comprising a HF-unit 29, a demodulator 30 and apreamplifier 32 are integrated within thehousing 52 of thehearing instrument 50. The system of Fig. 2 is functionally equivalent to the system shown in Fig. 1 in that audio signals from theremote source 12 can be provided to the user wearing the hearing instrument via theoutput transducer 38, with the functional components of thereceiver device 10 of Fig 1 being mechanically integrated within thehearing instrument 50. - In Fig. 3 an example of an
antenna 20 to be used for thereceiver device 10 of Fig. 1 or thehearing instrument 50 of Fig. 2 is shown. Theantenna 20 is part of anassembly 54 comprising a printedcircuit board 53 which comprises an insulating substrate 55 which is flexible such that it is capable of being bent by at least 90°. As an alternative, the insulating substrate 55 may comprise rigid portions which are connected by flexible portions, i.e. in this case the substrate is only partially flexible. Theassembly 54 comprises a loop-like conductor 56 on the insulating substrate 55, which forms two turns in order to form a magnetic loop antenna (however, also one turn may be already sufficient or three turns may be needed to achieve the optimum impedance). The area surrounded by the conductor turns should be as large as possible. Theantenna 20 needs to have low resistance, which may be achieved by metalizing all layers of the print (or at least the uppermost layer and the lowermost layer (for a single layer print)) and realizing a conductive connection therebetween through an appropriate number of metalized via holes. - In addition to the
antenna 20 theassembly 54 includes other electronic components 57 (ICs and passive components) forming at least part, preferably all, of the signal processing unit. In particular, the assembly will include at least the components of the HF-unit 29. Some of suchelectronic components 57 may be formed directly on the substrate 55 as conductor layers while others may be mounted as separate components on the substrate 55. Theelectronic components 57 formed directly on the substrate 55 may be formed in the same processing step as theantenna 20, whereas the separate components will be mounted thereafter. Thus theassembly 54 serves as an integral electronic unit, i.e. as an electronic module. - In Fig. 3 the
assembly 54 is shown in a planar condition after manufacturing. - The
antenna 20 comprises afirst portion 58 and asecond portion 60 which are connected by anintermediate portion 62 which allows the first andsecond portion intermediate portion 62 being bent. Theintermediate portion 62 may be of the same material as the first andsecond portion 58, 60 (if these are made of sufficiently flexible material) or it may be of a more flexible material of the substrate 55. - In addition, the
assembly 54 comprisesother portions 59, 61 carryingelectronic components 57, which are foldable be about 90 degrees or 180 degrees relative to a central portion 63 in order to minimize the space required by theassembly 54. - Such folded configuration is shown in Fig. 4. Usually the
intermediate portion 62 will be relatively small, for example, less than 20% of the area of theantenna unit 20. Usually the first andsecond portion housing 64 shown schematically in Fig. 4 (thehousing 64 may correspond to thehousing 18 of thereceiver device 10 or thehousing 52 of the hearing instrument 50). Theassembly 54 will be mounted in thehousing 64 in such a manner that thefirst portion 58 is adjacent to and aligned to afirst wall 66 of thehousing 64 and that thesecond portion 60 is adjacent to and aligned to asecond wall 68 of thehousing 64, whereby a particularly compact design resulting in a small volume can be achieved. - A further benefit consists in the fact that due to the angled configuration of the
antenna 20 it is ensured that one half of the antenna is always directed into the optimum orientation with respect to the user's head (antenna plane usually perpendicular to the user's nose), whatever the orientation of the pins/socket of theaudio shoe 14 relative to thehousing 40 of thehearing instrument 16 may be. Preferably theantenna 20 is electrically connected to the respectivesignal processing unit 21 comprising thepre-amplifier 32 prior to mounting to theantenna 20 and thesignal processing unit 21 within thehousing 64, so that theantenna 20 with the HF-unit 29 and the pre-amplifier 32 can be trimmed prior to being mounted in the housing 64 (i.e. the resonant radio frequency circuits will be tuned in order to account for parasitic capacitances and inductances). - In Fig. 5 another example of a
flexprint antenna assembly 54 is shown in its folded state prior to being mounted within the housing, which includes aswitch 72 for manually switching between the operation modes FM and FM+M of thehearing instrument 16 connected toreceiver device 10. - In Fig. 6 the folded
flexprint assembly 54 of Fig. 5 (however, theconductor loops 56 of theantenna 20 have been omitted in Fig. 6) is shown together with ahousing 64 and aplug member 74. Theplug member 74 comprises threepins output interface 24 of thereceiver unit 10 and which are arranged in a line so that they define a central symmetry plane of the output interface 24 (however, thepins 76A and 76C are of different diameters in order to ensure theplug member 74 can be connected to theaudio shoe 14 only in the correct orientation ―and not in an orientation rotated by 180 degrees with respect to the correct orientation). Theplug member 74 also comprises acarrier unit 70 for receiving the foldedassembly 54. For assembling thereceiver device 10 the foldedassembly 54 with the carrier unit is fixed at thecarrier unit 70 of theplug member 74. Theflexprint assembly 54 comprisescontacts 75 which engage with the inner ends of thepins assembly 54 is connected to theplug member 74. Finally the foldedassembly 54 fixed at theplug member 74 is mounted within thehousing 64. To this end theplug member 74 is fixed to thehousing 64 by tworods 77, with theplug member 74 forming the cover plate of thehousing 64. - In Fig. 7 an arrangement is shown in which a
receiver unit 10 comprising ahousing 18 is connected via anaudio shoe 14 to ahearing instrument 16, with theswitch 72 projecting through thehousing 18 for being operated by the user. - It is to be understood that, while the
first portion 58 and thesecond portion 60 of theantenna 20 are shown in Figs. 4 and 5 as being planar, this need not be necessarily so. In particular, if for design reasons the walls of the housing in which theantenna 20 is to be mounted have a rounded shape, thefirst portion 58 and thesecond portion 60 of theantenna 20 may have a correspondingly rounded shape. In this case the angle between the first and second portion of the antenna in the folded state may be determined by the angle between the respective tangential planes at the two opposite ends of the antenna (for example, if the antenna is bent in an "arch-like" manner in order to conform the shape of the antenna to a cylindrically shaped housing wherein the tangential planes at the two opposite ends of the bent antenna would form an angle of 90°, then the actual folding angle is 90°). - Fig. 8 shows an example of a housing 80 (only partially illustrated in the drawing) to be used for the
receiver device 10 or for thehearing instrument 50 which capable of receiving audio signals from theremote source 12, into which housing 80 amagnetic loop antenna 20 has been integrated. As in the previous embodiments theantenna 20 comprises a loop-like conductor 56, with theconductor 56 being integrated into the walls of thehousing 80. In the example shown in Fig. 7 theconductor 56 is integrated into afirst wall portion 82 and a second wall portion 84, which are arranged at an angle of, for example, about 90° relative to each other. Theantenna 20 is formed in such a manner that one half of the antenna is integrated into thefirst wall portion 82 while the second half of the antenna is integrated into the second wall portion 84, so that the two halves of the antenna, i.e. thefirst portion 58 of the antenna is oriented at an angle of about 90° relative to thesecond portion 60 of the antenna. - The
conductor 56 may be formed, for example, by one of the following methods within thehousing 80 which is made of plastic material: - The housing is shaped first (for example, by injection moulding) and subsequently the
conductor 56 is formed by modifying the surface of thehousing 80. One possibility to achieve this is to use a plastic material for thehousing 82 which is capable of being made conductive by laser activation, wherein theconductor 56 is created by laser activation of the respective surface portion of the plastic material of thehousing 80, followed by electroplating of the laser activated surface portion in order to thicken the laser activated surface portion. According to an alternative process, theconductor 56 may be created by metal deposition from a metal evaporation source through a shadow mask onto a surface portion of the plastic material of thehousing 80. According to another alternative process, theconductor 56 is created by coating at last a portion of the surface of thehousing 80 with a metal layer, followed by selectively structuring the metal layer into the desired shape of theconductor 56, preferably by selectively removing the metal layer. - Rather than shaping the housing first and subsequently integrating the antenna structure, the antenna structure, i.e. the
conductor 56, may be integrated into thehousing 80 during shaping of the housing. This can be done, for example, by shaping the housing by injection moulding in a moulding tool, wherein the conductor is inserted into the moulding tool and is overmoulded in the moulding tool. - All of these techniques are known as moulded interconnect device (MID) techniques.
- Fig. 9 is a schematic view of a
receiver device 10 comprising anangled antenna 20 and of areceiver device 110 comprising anon-angled antenna 120, respectively, when used with four different types of audio shoes. In Fig. 9 the respective orientation of theantenna direction 94 of the user'snose 96 is shown, with thedirection 94 extending between theears 98 through the nose tip. - The
receiver device 10 comprises an essentiallyrectangular housing 18 with a plug member comprising threepins central symmetry plane 90 of the output interface of thereceiver device 10. Theangled antenna 20 is of the type shown in Figs. 4 and 5, i.e. it comprises afirst portion 58 which is angled by 90° relative to asecond portion 60. In a first orientation labelled "A" in Fig. 9 thereceiver unit 10 is used with a hearing instrument having an audio shoe of a first type which is oriented such that, when thereceiver device 10 has been connected to the audio shoe and the hearing instrument is worn at the user'sear 98, thecentral plane 90 of the output interface of thereceiver device 10 is perpendicular to thedirection 94 of the user'snose 96. In this configuration, thefirst portion 58 of theantenna 20 likewise is oriented perpendicular to thedirection 94 of the user'snose 96 so that thefirst portion 58 has an optimum orientation with respect to the user's head anatomy, while thesecond portion 60 has the least preferred orientation. In total, theantenna 20 thus will have medium sensitivity. - In the configuration labelled "B" in Fig. 9 the
receiver device 10 is used with a different type of hearing instrument/audio shoe so that, when thereceiver device 10 has been connected to the audio shoe and the hearing instrument is worn at the user'sear 98 thereceiver device 10 has been rotated by 90° in the counter-clockwise direction compared to configuration A, so that thecentral symmetry plane 90 of the output interface now is parallel to thedirection 94 of the user'snose 96. In this case thesecond portion 60 of theantenna 20 has the optimum orientation with respect to thedirection 94 of the user'snose 96 while thefirst portion 58 now has the least preferred orientation. In total, however, the antenna performance thus is the same as in configuration A. - In the configuration labelled "C" the type of hearing instrument/audio shoe is such that the
receiver device 10 has been rotated by 90° in the counter-clockwise direction compared to configuration B so that thecentral symmetry plane 90 now has the same orientation as in configuration A. Due to the 90° bent shape of theantenna 20, the performance of theantenna 20 is the same as in configurations A and B. - In the configuration labelled "D" the type of hearing instrument/audio shoe is such that the
receiver device 10 has been rotated by 90° in the counter-clockwise direction compared to configuration C so that thecentral symmetry plane 90 now has the same orientation as in configuration B. Due to the 90° bent shape of theantenna 20, the performance of theantenna 20 is the same as in configurations A, B and C. - Consequently, by using an
angled antenna 90, the performance of theantenna 20 is substantially independent of the specific type of hearing instrument/audio shoe with which thereceiver device 10 is used. - An alternative embodiment in order to achieve such independence of antenna performance from the type of audio shoe is to use an
antenna 120 which is either planar, thereby defining anantenna plane 92, or has an axial symmetry, thereby defining anantenna direction 92, wherein theantenna plane 92 or theantenna direction 92, respectively, is oriented at an angle of 30 to 60°, preferably from 40 to 50°, with respect to thecentral symmetry plane 90 of the output interface. If theantenna 120 is planar, it is preferably a magnetic loop antenna, whereas if it has an axial symmetry, it is preferably a ferrite antenna or an air coil antenna. Most preferably, the angle between theantenna direction 92 and thesymmetry plane 90 of the output interface is about 45° as shown in Fig. 9. In this case, in configuration A, i.e. with thepins 76A to 76C being oriented such that thecentral symmetry plane 90 defined thereby is perpendicular to thedirection 94 of the user'snose 96, the angle between theantenna direction 92 and thecentral symmetry plane 94 is 45°, resulting in medium performance of theantenna 120 compared to an orientation in which theantenna plane 92 or theantenna direction 92 would be perpendicular to thedirection 94 of the user'snose 96. - In configuration B in which the orientation of the
central symmetry plane 90 of the output interface has changed by 90° with respect to thedirection 94 of the user'snose 96 due to the different type of audio shoe, theantenna direction 92 likewise has been rotated in the counter-clockwise direction by 90°. However, due to the angle of 45° between theantenna direction 92 and thecentral symmetry plane 90 of the output interface, the angle between thedirection 94 of the user'snose 96 and theantenna direction 92 still is 45°. Consequently, the antenna performance will remain the same as in configuration A - This also applies to configurations C and D in which the
antenna 120, due to the 45° orientation with respect to thecentral symmetry plane 90, has the same orientation with respect to the user'shead 91 as in configurations A and B, respectively. - Thus, by using an
antenna 120 which is oriented such that the angle of theantenna direction 92 with respect to thecentral symmetry plane 90 of the output interface is around 45°, the antenna performance is essentially independent of the specific type of hearing instrument/audio shoe with which thereceiver device 110 is used. - The
housing 18 shown in Fig. 9, which corresponds to thehousing 64 of Fig. 6, has a four-fold rotational symmetry with respect to an axial symmetry axis and comprises two walls which are parallel to thecentral symmetry plane 90 of the output interface and two walls which are perpendicular to thecentral symmetry plane 90. - Generally, apart from the different design of the
antenna 120, thereceiver device 110 may have the same architecture as the examples of the receiver device described so far. - Also shown in Fig. 9 is a schematic example of the
input interface 25 of theaudio shoe 14, which comprises threepin sockets 79A, 79B, 79C for receiving thepins central symmetry plane 93 of theinput interface 25. Theinput interface 25 shown in Fig. 9 is an example of an audio shoe of the type resulting in the configuration "A" of thereceiver devices
Claims (41)
- A receiver device (10) for receiving audio signals from a remote source (12), comprising: a magnetic loop antenna (20) for receiving radio frequency signals carrying audio signals, a signal processing unit (21) for reproducing audio signals from the radio frequency signals received by the antenna, an output interface (24) which is capable of being mechanically connected to an input interface (26) of a hearing instrument (16) to be worn at a user's ear in order to supply the audio signals from the signal processing unit as input to the hearing instrument, and a housing (18, 64) enclosing the antenna and the signal processing unit, wherein the antenna is designed as a printed board circuit with a loop-like conductor (56) on an at least partially flexible insolating substrate (55) and comprises a first portion (58) defining a first plane and a second portion (60) defining a second plane, wherein the first plane and the second plane are oriented at an angle of 60 to 120 degrees relative to each other.
- The receiver device of claim 1, wherein the first portion (58) of the antenna (20) is adjacent to and aligned to a first wall (66) of the housing (64) and the second portion (60) of the antenna is adjacent to and aligned to a second wall (68) of the housing.
- The receiver device of one of claims 1 and 2, wherein the first (58) and second portion (60) of the antenna (20) are formed on a rigid portion of the substrate (55) and are connected by a bent portion (62) formed on a flexible portion of the substrate.
- A receiver device (10) for receiving audio signals from a remote source (12), comprising: a housing (18, 80) made of plastic material, a magnetic loop antenna (20) for receiving radio frequency signals carrying audio signals, a signal processing unit (21) for reproducing audio signals from the radio frequency signals received by the antenna, an output interface (24) which is capable of being mechanically connected to an input interface (26) of a hearing instrument (16) to be worn at a user's ear in order to supply the audio signals from the signal processing unit as input to the hearing instrument, wherein the housing encloses the signal processing unit, wherein the antenna is formed by an angled portion (82, 84) of the housing into which a loop-like conductor (56) forming a first antenna portion (58) defining a first plane and a second antenna portion (60) defining a second plane is integrated, and wherein the first plane and the second plane are oriented at an angle of 60 to 120 degrees relative to each other.
- The receiver device of claim 4, wherein the first (58) and second portion (60) of the antenna (20) are connected by a bent portion (62) of the antenna.
- The receiver device of one of the preceding claims, wherein the first (58) and second portion (60) of the antenna (20) comprise at least 80% of the area of the antenna.
- The receiver device of claim 6, wherein the first (58) and second portion (60) of the antenna (20) have essentially the same area.
- The receiver device of claim 7, wherein the first (58) and second portion (60) of the antenna (20) are essentially symmetrical with respect to each other.
- The receiver device of one of the preceding claims, wherein the conductor (56) comprises one to three turns.
- The receiver device of one of the preceding claims, wherein the angle between the first plane and the second plane is from 80 to 100 degrees.
- A hearing instrument (50) to be worn at a user's ear and capable of receiving audio signals from a remote source (12), comprising: a magnetic loop antenna (20) for receiving radio frequency signals carrying audio signals, a signal processing unit (21) for reproducing audio signals from the radio frequency signals received by the antenna, an output transducer (38) for stimulating the user's hearing according to the reproduced audio signals, and a housing (52, 64) enclosing the antenna and the signal processing unit, wherein the antenna is designed as a printed board circuit (54) with a loop-like conductor (56) on an at least partially flexible insolating substrate (55) and comprises a first portion (58) defining a first plane and a second portion (60) defining a second plane, wherein the first plane and the second plane are oriented at an angle of 60 to 120 degrees.
- A hearing instrument (50) to be worn at a user's ear and capable of receiving audio signals from a remote source (12), comprising: a housing (52, 80) made of plastic material, a magnetic loop antenna (20) for receiving radio frequency signals carrying audio signals, a signal processing unit (21) for reproducing audio signals from the radio frequency signals received by the antenna, an output transducer (38) for stimulating the user's hearing according to the reproduced audio signals, wherein the housing encloses the signal processing unit, wherein the antenna is formed by an angled portion (82, 84) of the housing into which a loop-like conductor (56) forming a first antenna portion (58) defining a first plane and a second antenna portion (60) defining a second plane is integrated, and wherein the first plane and the second plane are oriented at an angle of 60 to 120 degrees.
- A receiver device (10) for receiving audio signals from a remote source (12), comprising: an antenna (120) for receiving radio frequency signals carrying audio signals, which antenna is either planar, thereby defining an antenna plane (92), or has an axial symmetry, thereby defining an antenna direction (92), a signal processing unit (21) for reproducing audio signals from the radio frequency signals received by the antenna, an output interface (24, 74, 76A, 76B, 76C) which is capable of being mechanically connected to an input interface (26) of a hearing instrument (16) to be worn at a user's ear (98) in order to supply the audio signals from the signal processing unit as input to the hearing instrument, and a housing (18, 64) enclosing the antenna and the signal processing unit, wherein the output interface has a central symmetry plane (90), and wherein said antenna plane or antenna direction is oriented at an angle of 30 to 60 degrees with respect to said central symmetry plane of the output interface.
- The receiver device of claim 13, wherein said angle is from 40 to 50 degrees.
- The receiver device of one of claims 13 and 14, wherein said output interface (24, 74) comprises three pins (24, 74, 76A, 76B, 76C) which are arranged in a line, and wherein said pins define said central symmetry plane (90).
- The receiver device of one of claims 13 to 15, wherein said antenna (120) is a magnetic loop antenna, a ferrite antenna or an air coil antenna.
- The receiver device of one of claims 13 to 16, wherein said housing (64) has a four-fold rotational symmetry with respect to an axial symmetry axis and comprises two walls which are parallel to said central symmetry plane (92) of said output interface (74, 76A, 76B, 76C) and two walls which are perpendicular to said central symmetry plane of said output interface.
- A system comprising a receiver device (10) for receiving audio signals from a remote source (12) and a hearing instrument (16) worn at a user's ear, said receiver device comprising: an antenna (120) for receiving radio frequency signals carrying audio signals, which antenna is either planar, thereby defining an antenna plane (92), or has an axial symmetry, thereby defining an antenna direction (92), a signal processing unit (21) for reproducing audio signals from the radio frequency signals received by the antenna, an output interface (24, 74, 76A, 76B, 76C) which is capable of being mechanically connected directly or via an interface (25) of an adapter (14) to an input interface (26) of said hearing instrument (16) in order to supply the audio signals from the signal processing unit as input to the hearing instrument, and a housing (18, 64) enclosing the antenna and the signal processing unit, wherein the output interface has a central symmetry plane (90), wherein said antenna plane or antenna direction is oriented at an angle of 30 to 60 degrees with respect to said central symmetry plane of the output interface, and wherein said input interface or said adapter interface has a central symmetry plane (93) which is oriented, when said hearing instrument is worn at the user's ear (98), at an angle of 30 to 60 degrees with respect to the direction (94) of the user's nose (96).
- The system of claim 18, wherein said angles are from 40 to 50 degrees.
- The system of one of claims 18 and 19, wherein said input interface (26) or said adapter interface (25) comprises three pin sockets (79A, 79B, 79C) which are arranged in a line, and wherein said pin sockets define said central symmetry plane (93).
- The system of one of claims 18 to 20, wherein said hearing instrument (16) is a behind-the-ear (BTE) hearing instrument.
- A receiver device (10) for receiving audio signals from a remote source (12), comprising: a magnetic loop antenna (20) for receiving radio frequency signals carrying audio signals, a signal processing unit (21) for reproducing audio signals from the radio frequency signals received by the antenna, an output interface (24) which is capable of being mechanically connected to an input interface (26) of a hearing instrument (16) to be worn at a user's ear in order to supply the audio signals from the signal processing unit as input to the hearing instrument, and a housing (18, 64) enclosing the antenna and the signal processing unit, wherein the antenna and at least a portion of the signal processing unit are formed as an integral electronic unit (54) on a common printed circuit board (53) comprising an at least partially flexible insolating substrate (55) which is capable of being partially folded for mounting the printed circuit board within the housing, wherein said portion of the signal processing unit comprises at least a high frequency (HF)-unit (29) receiving HF-signals from the antenna and providing signals at intermediate frequencies to a demodulator (30) of the signal processing unit and wherein the antenna is designed as a printed board circuit with a loop-like conductor (56) on the insolating substrate.
- The receiver device of claim 22, wherein said portion of the signal processing unit (21) comprises in addition said demodulator (30).
- The receiver device of claim 23, wherein said portion of the signal processing unit (219 comprises in addition a pre-amplifier (32).
- The receiver device of one of claims 22 to 24, wherein the said output interface (24, 74, 76A, 76B, 76C) is formed by a plug member (74) comprising pins (76A, 76B, 76C), and wherein the printed circuit board is capable of being connected in the folded state to the plug member prior to being mounted within the housing.
- The receiver device of claim 25, wherein said integral electronic unit (54) comprises contacts (75) for the output interface which are capable of engaging with the inner ends of the pins (76A, 76B, 76C) upon assembly of the integral electronic unit at the plug member (74).
- A method for manufacturing the receiver device (10) of claim 1, comprising: forming the loop like-conductor (56) on the flexible insolating substrate (55) while the substrate is in a planar condition, bending the first (58) and the second portion (60) relative to each other such that the first plane and the second plane become oriented at an angle of 60 to 120 degrees relative to each other and fixing the first and second portion in that orientation to each other, and mounting the antenna (20) and the signal processing unit (21) within the housing (64).
- The method of claim 27, wherein said first (58) and second portion (60) of the antenna (20) are fixed in the bent condition at a carrier unit (70) of a plug member (74) forming the output interface (24) prior to being mounted together with the plug member within the housing (64).
- The method of one of claims 27 and 28, comprising: electrically connecting the antenna (20) and the signal processing unit (21) prior to mounting the antenna and the signal processing unit within the housing (18, 52, 64) and trimming the antenna (20) and the signal processing unit (21) prior to mounting the antenna and the signal processing unit within the housing.
- A method for manufacturing the receiver device of claim 4, comprising: forming the housing (54, 80) with the integrated antenna (20), and mounting the signal processing unit (21) within the housing.
- The method of claim 30, wherein the antenna (20) is integrated into the housing (54, 80) by a molded interconnect devices (MID) technique.
- The method of claim 31, wherein the housing (54, 80) is shaped first and subsequently the antenna (20) is integrated into the housing by modifying the surface of the housing.
- The method of claim 32, wherein the plastic material is capable of being made conductive by laser activation and wherein the loop-like conductor (56) is created by laser activation of a surface portion of the plastic material of the housing (54, 80), followed by electroplating of the laser-activated surface portion in order to thicken the laser-activated surface portion.
- The method of claim 32, wherein the loop-like conductor (56) is created by metal deposition from a metal evaporation source through a shadow mask onto a surface portion of the plastic material of the housing (54, 80).
- The method of claim 32, wherein the loop-like conductor (56) is created by coating at least a portion of the surface of the housing (54, 80) with a metal layer, followed by selectively structuring the metal layer in order to create a loop-like metal structure.
- The method of claim 35, wherein the metal layer is structured by selectively removing the metal layer.
- The method of claim 31, wherein the antenna (20) is integrated into the housing (54, 80) during shaping of the housing.
- The method of claim 37, wherein the housing (54, 80) is shaped by injection molding in a molding tool, wherein the loop-like conductor (56) is inserted into the molding tool and is overmolded in the molding tool.
- Use of a receiver device (10) for receiving audio signals from a remote source (12), said device comprising: an antenna (120) for receiving radio frequency signals carrying audio signals, which antenna is either planar, thereby defining an antenna plane (92), or has an axial symmetry, thereby defining an antenna direction (92), a signal processing unit (21) for reproducing audio signals from the radio frequency signals received by the antenna, an output interface (24, 74, 76A, 76B, 76C) which is mechanically connected to an input interface (26) of a hearing instrument (16) worn at a user's ear (98) in order to supply the audio signals from the signal processing unit as input to the hearing instrument, and a housing (18, 64) enclosing the antenna and the signal processing unit, wherein said antenna plane or antenna direction is oriented at an angle of 30 to 60 degrees with respect to the direction (94) of the user's nose (96).
- A method for manufacturing the receiver device of claim 22, wherein said printed circuit board (53) is manufactured including the loop-like conductor (56) of the antenna (20), electric components of the integral electronic unit (54) are mounted at the printed circuit board, the printed circuit board is brought into the folded state, and the printed circuit board is mounted in the folded state within the housing (64).
- The method of claim 40, wherein the printed circuit board (53) is mounted in the folded state at a carrier unit (70) of a plug member (74) forming the output interface (24) prior to being mounted together with the plug member within the housing (64).
Priority Applications (8)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
EP10177384A EP2257079B1 (en) | 2006-03-30 | 2006-03-30 | Wireless audio signal receiver device for a hearing instrument |
DK10177384.4T DK2257079T3 (en) | 2006-03-30 | 2006-03-30 | Wireless audio signal receiver for a hearing aid |
EP06006778A EP1681903A3 (en) | 2006-03-30 | 2006-03-30 | Wireless audio signal receiver device for a hearing instrument |
EP10177385A EP2257080B1 (en) | 2006-03-30 | 2006-03-30 | Wireless audio signal receiver device for a hearing instrument |
DK10177385.1T DK2257080T3 (en) | 2006-03-30 | 2006-03-30 | Wireless audio signal receiver device for a hearing aid |
CN2007800116970A CN101416531B (en) | 2006-03-30 | 2007-03-15 | Wireless audio signal receiver device for a hearing instrument |
PCT/EP2007/002304 WO2007112838A1 (en) | 2006-03-30 | 2007-03-15 | Wireless audio signal receiver device for a hearing instrument |
CN2013101516802A CN103259075A (en) | 2006-03-30 | 2007-03-15 | Wireless audio signal receiver device for a hearing instrument |
Applications Claiming Priority (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
EP06006778A EP1681903A3 (en) | 2006-03-30 | 2006-03-30 | Wireless audio signal receiver device for a hearing instrument |
Publications (2)
Publication Number | Publication Date |
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EP1681903A2 true EP1681903A2 (en) | 2006-07-19 |
EP1681903A3 EP1681903A3 (en) | 2007-03-28 |
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Family Applications (3)
Application Number | Title | Priority Date | Filing Date |
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EP10177384A Active EP2257079B1 (en) | 2006-03-30 | 2006-03-30 | Wireless audio signal receiver device for a hearing instrument |
EP10177385A Not-in-force EP2257080B1 (en) | 2006-03-30 | 2006-03-30 | Wireless audio signal receiver device for a hearing instrument |
EP06006778A Ceased EP1681903A3 (en) | 2006-03-30 | 2006-03-30 | Wireless audio signal receiver device for a hearing instrument |
Family Applications Before (2)
Application Number | Title | Priority Date | Filing Date |
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EP10177384A Active EP2257079B1 (en) | 2006-03-30 | 2006-03-30 | Wireless audio signal receiver device for a hearing instrument |
EP10177385A Not-in-force EP2257080B1 (en) | 2006-03-30 | 2006-03-30 | Wireless audio signal receiver device for a hearing instrument |
Country Status (4)
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EP (3) | EP2257079B1 (en) |
CN (2) | CN103259075A (en) |
DK (2) | DK2257079T3 (en) |
WO (1) | WO2007112838A1 (en) |
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Also Published As
Publication number | Publication date |
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CN101416531B (en) | 2013-05-01 |
CN101416531A (en) | 2009-04-22 |
DK2257079T3 (en) | 2012-03-26 |
CN103259075A (en) | 2013-08-21 |
EP1681903A3 (en) | 2007-03-28 |
EP2257080A1 (en) | 2010-12-01 |
WO2007112838A1 (en) | 2007-10-11 |
EP2257079A1 (en) | 2010-12-01 |
EP2257079B1 (en) | 2012-01-04 |
EP2257080B1 (en) | 2012-01-18 |
DK2257080T3 (en) | 2012-04-10 |
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