IP Library Granted Patent US 9,532,151
Granted Patent B2
US 9,532,151 · App. 14/391,825 · Granted Dec 27, 2016

Body worn sound processors with directional microphone apparatus

Inventors: Lee F. Hartley (Carlsbad, CA); Scott A. Crawford (Castaic, CA)
Assignee: Advanced Bionics AG
H04R25/606A61N1/36032H04R25/405H04R1/406H04R25/402H04R25/407H04R2225/61
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Quick Facts
Patent No.
US 9,532,151
App. No.
14/391,825
Granted
Dec 27, 2016
Kind
B2
Abstract

A sound processor, for use with a cochlear implant, that includes directional microphone capabilities.

Claims (47)

1. A sound processor for use with a cochlear implant, the sound processor comprising:

a sound processor housing that is not configured to be carried on the user's ear and that defines a sound processor housing longitudinal axis that extends in a direction;

a microphone array including first and second microphones carried within the sound processor housing such that the microphone array is not movable relative to the sound processor housing, and defining a microphone array axis that extends in the same direction as the sound processor housing longitudinal axis; and

sound processor circuitry, operably connected to the first and second microphones and located within the sound processor housing, configured to determine whether or not sounds received by the first and second microphones arrive from a direction at which the microphone array axis points, to attenuate sounds received by the first and second microphones that do not arrive from the direction at which the microphone array axis points, and to generate a pulse sequence for use by the cochlear implant.

2. A sound processor as claimed in claim 1 , wherein

the housing is generally rectangular in shape and is about 2.75 inches in length, about 0.875 inch in width, and about 1.7 inches in height, with a variation of ±30% for each dimension, or

the housing is generally rectangular in shape and is about 2.3 inches in length, about 0.7 inch in width, and about 1.4 inches in height, with a variation of −10% and +30% for each dimension.

3. A sound processor as claimed in claim 1 , wherein

the sound processor housing includes a main portion and a power supply portion that may be selectively detached from, and attached to, the main portion.

4. A sound processor as claimed in claim 1 , further comprising:

a support device configured to support the sound processor housing on a support structure.

5. A sound processor as claimed in claim 1 , further comprising:

means for supporting the sound processor housing on a support structure.

6. A sound processor for use with a cochlear implant, the sound processor comprising:

a sound processor housing that is not configured to be carried on the user's ear;

a rotatable knob on the sound processor housing;

a microphone array, including first and second microphones carried within the rotatable knob such that the microphone array is rotatable relative to the sound processor housing, defining a microphone array axis; and

sound processor circuitry, operably connected to the first and second microphones and located within the sound processor housing, configured to attenuate sounds received by the first and second microphones that do not arrive from a direction at which the microphone array axis points and to generate a pulse sequence for use by the cochlear implant.

7. A sound processor for use with a cochlear implant, the sound processor comprising:

a sound processor housing that includes a user actuatable mode control device and is not configured to be carried on the user's ear;

a microphone array, including first and second microphones carried by the sound processor housing, defining a microphone array axis; and

sound processor circuitry operably connected to the first and second microphones, operable in an omnidirectional mode and a directional mode, located within the sound processor housing, and configured to determine whether or not sounds received by the first and second microphones arrive from a direction at which the microphone array axis points, to switch from the omnidirectional mode the directional mode in response to the mode control device being actuated, to attenuate sounds received by first and second microphones that do not arrive from a direction at which the microphone array axis points only when in the directional mode, and to generate a pulse sequence for use by the cochlear implant.

8. A sound processor as claimed in claim 7 , wherein

the microphone array is fixedly positioned relative to the sound processor housing.

9. A sound processor as claimed in claim 8 , wherein

the microphone array is located within the sound processor housing.

10. A sound processor as claimed in claim 7 , wherein

the microphone array is movable relative to the sound processor housing.

11. A sound processor as claimed in claim 10 , wherein

the microphone array is rotatable relative to the sound processor housing.

12. A sound processor for use with a cochlear implant, the sound processor comprising:

a sound processor housing including a user actuatable mode control device;

a microphone array, including first and second microphones defining a microphone array axis, carried by the sound processor housing such that the microphone array is movable relative to the sound processor housing; and

sound processor circuitry operably connected to the first and second microphones, operable in an omnidirectional mode and a directional mode, located within the sound processor housing, and configured to determine whether or not sounds received by the first and second microphones arrive from a direction at which the microphone array axis points, to switch from the omnidirectional mode the directional mode in response to the mode control device being actuated, to attenuate sounds received by the first and second microphones that do not arrive from the direction at which the microphone array axis points only when in the directional mode, and to generate a pulse sequence for use by the cochlear implant.

13. A sound processor as claimed in claim 12 , wherein

the microphone array is rotatable relative to the sound processor housing.

14. A sound processor as claimed in claim 13 , wherein

the microphone array is carried within a rotatable knob.

15. A sound processor as claimed in claim 14 , wherein

the rotatable knob defines a longitudinal axis and the microphone array axis is aligned with the longitudinal axis of the rotatable knob.

16. A sound processor as claimed in claim 12 , wherein

the housing is generally rectangular in shape and is about 2.75 inches in length, about 0.875 inch in width, and about 1.7 inches in height, with a variation of ±30% for each dimension, or

the housing is generally rectangular in shape and is about 2.3 inches in length, about 0.7 inch in width, and about 1.4 inches in height, with a variation of −10% and +30% for each dimension.

17. A sound processor as claimed in claim 12 , wherein

the sound processor housing is not configured to be carried on the user's ear.

18. A sound processor as claimed in claim 12 , wherein

the sound processor housing includes a main portion and a power supply portion that may be selectively detached from, and attached to, the main portion.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Feb 2, 2016
From: CRAWFORD, SCOTT A.; HARTLEY, LEE F.
To: ADVANCED BIONICS AG
Reel/Frame 037649/0237 →
Continuity (1)
Related Publication 20150112407A1 · Apr 23, 2015