Hearing Protection and Noise Measurement System
US-2024284129-A1 · Aug 22, 2024 · US
US10327080B2 · US · B2
| Field | Value |
|---|---|
| Publication number | US-10327080-B2 |
| Application number | US-200813133989-A |
| Country | US |
| Kind code | B2 |
| Filing date | Dec 19, 2008 |
| Priority date | Dec 19, 2008 |
| Publication date | Jun 18, 2019 |
| Grant date | Jun 18, 2019 |
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A method of manufacturing hearing devices comprising an otoplastic individually shaped for a user includes providing input data for each set of input parameters of an algorithm for determining target data for each of a set of target parameters, wherein at least a portion of said input data are individual to said user, and wherein said target parameters are parameters related to the geometrical and/or acoustical properties of a hearing device. The target data is determined by applying the algorithm to the input data. A suitable three-dimensional shape of the otoplastic is designed in dependence of the target data by means of otoplastic modeling software. The otoplastic is manufactured according to the suitable three-dimensional shape. Property data descriptive of properties related to the manufactured otoplastic are obtained using the otoplastic, and the algorithm is amended in dependence of the property data.
Opening claim text (preview).
The invention claimed is: 1. A method of adjusting a transfer function of a hearing device comprising an otoplastic individually shaped for a user intended to be using the hearing device to the needs of the user, said method comprising the steps of a) providing input data for each of a set of input parameters, an algorithm, and a set of target parameters, wherein at least a portion of said input data are individual to said user, and wherein said target parameters are parameters related to acoustical properties of the hearing device; b) determining target data for each of the set of target parameters by applying said algorithm to said input data; c) designing a suitable three-dimensional shape of said otoplastic in dependence of said target data by means of an otoplastic modelling software; d) manufacturing said otoplastic according to said suitable three-dimensional shape; and e) obtaining property data using said otoplastic, wherein said property data are descriptive of properties related to said manufactured otoplastic, and at least a portion of said property data is descriptive of properties related to said otoplastic inserted in an ear of said user, said property data being at least one of: a rest volume between an otoplastic and the ear drum of the user, a feedback threshold of the hearing device, an active insertion gain, a passive insertion gain, and an acoustic mass of a vent; and g) adjusting a transfer function of the hearing device dependent on the property data, wherein steps b)-e) are repeated at least once using the adjusted transfer function. 2. The method of claim 1 , wherein at least some of the input data relates to one of an audiogram of said user, geometry of the shape of said user's ear canal, a type of hearing device to be manufactured, a description of listening situations, said user's history, or said user's acoustic preferences; wherein at least some of the target parameters relate to one of acoustic impedance, acoustic mass, a vent type, a receiver to be used, a microphone to be used, insertion gain characteristics, or feedback threshold; and wherein at least some of the target data is one of a target active insertion gain, a target passive insertion gain, a target feedback threshold, a target acoustical vent mass, a target shape of said otoplastic, a target data of loudspeaker to be used, or a target data of a microphone or microphones to be used. 3. A method of manufacturing a hearing device comprising an otoplastic individually shaped for a user intended to be using the hearing device, said method comprising the steps of a) providing input data for each of a set of input parameters, an algorithm, and a set of target parameters, wherein at least a portion of said input data are individual to said user, and wherein said target parameters are parameters related to acoustical properties of the hearing device; b) determining target data for each of the set of target parameters by applying said algorithm to said input data; c) iteratively designing a three-dimensional shape of said otoplastic in dependence of said target data, wherein a final iteration of the three-dimensional shape fulfills a pre-determined criterion indicative of the three-dimensional shape achieving said target data; d) manufacturing said otoplastic according to the final iteration of the three-dimensional shape; e) obtaining property data using said otoplastic, wherein said property data are descriptive of properties related to said manufactured otoplastic, and at least a portion of said property data is descriptive of properties related to said otoplastic inserted in an ear of said user; and g) adjusting a transfer function of the hearing device dependent on the property data, wherein steps b)-e) are repeated at least once using the adjusted transfer function. 4. A method of manufacturing a hearing device comprising an otoplastic individually shaped for a user intended to be using the hearing device, said method comprising the steps of a) providing input data for each of a set of input parameters, an algorithm, and a set of target parameters, wherein at least a portion of said input data are individual to said user, and wherein said target parameters are parameters related to acoustical properties of the hearing device; b) determining target data for each of the set of target parameters by applying said algorithm to said input data; c) designing a suitable three-dimensional shape of said otoplastic in dependence of said target data by means of an otoplastic modelling software; d) manufacturing said otoplastic according to said suitable three-dimensional shape, wherein said designing of step c) comprises: k1) designing a preliminary three-dimensional shape of said otoplastic; k2) determining, for said preliminary three-dimensional shape, achieved data for said target parameters; k3) repeating steps k1) and k2) until a desired preliminary three-dimensional shape is identified, the desired preliminary three-dimensional shape fulfilling a pre-determined criterion indicative of an agreement between said achieved data and said target data; and k4) selecting the desired preliminary three-dimensional shape identified in step k3) as the suitable three-dimensional shape designed in step c) and manufactured in step d). 5. The method of claim 4 , further comprising the steps of: e) obtaining property data using said otoplastic, wherein said property data are descriptive of properties related to said manufactured otoplastic, and at least a portion of said property data is descriptive of properties related to said otoplastic inserted in an ear of said user, said property data being at least one of: a rest volume between an otoplastic and the ear drum of the user, a feedback threshold of the hearing device, an active insertion gain, a passive insertion gain, and an acoustic mass of a vent; and f) amending said algorithm in dependence of said property data, wherein said amending occurs between an iterative determination of target data and comprises at least one of: i) defining an amended set of input parameters, and ii) defining an amended set of target parameters, wherein, as a result of amending said algorithm, a functional dependency of the target data on the input data is changed. 6. The method according to claim 5 , wherein said amending mentioned in step f) is carried out also in dependence of said target data. 7. The method according to claim 5 , wherein said amending mentioned in step f) is carried out also in dependence of said input data. 8. The method according to claim 5 , wherein said amending mentioned in step f) is carried out also in dependence of said achieved data. 9. The method according to claim 5 , wherein said amending mentioned in step f) comprises evaluating those data in dependence of which said amending of said algorithm is carried out. 10. The method according to claim 5 , comprising the step of storing in a common storage unit at least a portion of those data in dependence of which said amending of said algorithm is carried out. 11. The method according to claim 5 , wherein said amending mentioned in step f) is carried out also in dependence on said input data. 12. The method according to claim 4 , wherein step k2) is carried out by said otoplastic modelling software. 13. The method according to claim 12 , wherein said amending mentioned in step f) is carried out also in dependence on said achieved data. 14. The method according to claim 4 , wherein step c) comprises the step of designing a shape and size of an opening in said otoplastic, wherein said opening is one of: a ve
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