Shifting of output in a sense prosthesis
A method, including the action of operating a sense prosthesis, such as a retinal implant, according to a first operating regime while the recipient has a first fatigue level, and operating the sense prosthesis according to a second operating regime while the recipient has a second fatigue level that is greater than the first fatigue level.
1. A method, comprising:
operating a bone conduction hearing prosthesis, wherein the action of operating includes operating the prosthesis at a given output level;
adjusting the output level of the bone conduction device based on a changed cognitive capacity of the recipient; and
operating the bone conduction hearing prosthesis at the adjusted output level.
2. The method of claim 1 , wherein:
the method includes automatically adjusting the output level of the bone conduction device based on the changed cognitive capacity.
3. The method of claim 1 , wherein:
the action of adjusting the output level of the bone conduction device based on cognitive capacity includes reducing compression for an increase in cognitive capacity.
4. The method of claim 1 , wherein:
the output level is an amount of stimulation provided to the recipient.
5. The method of claim 1 , wherein:
the hearing prosthesis is part of a system configured to receive input indicative of a cognitive capacity of the recipient;
the system adjusts operation of the prosthesis based on the input so that the output level has a higher amount of noise relative to that which would be the case with a fully implemented noise cancelation system of the prosthesis, even though the recipient has a reduced cognitive capacity;
the method includes receiving input indicative of the cogitative capacity by the system; and
the action of adjusting the output level results in the higher amount of noise.
6. The method of claim 1 , further comprising:
obtaining data indicative of cognitive capacity of the recipient; and
evaluating the obtained data remotely from the hearing prosthesis, wherein
the action of adjusting the output level of the bone conduction device based on the changed cognitive capacity of the recipient is based on results of the action of evaluating.
7. The method of claim 1 , further comprising:
receiving data on a portable electronic device including recipient input adjustments and correlating the received data with passively collected data and developing a basis to control the adjustment of the output level based on the correlated data, wherein
the action of adjusting the output level of the bone conduction device based on the changed cognitive capacity of the recipient is based on the developed basis.
8. The method of claim 1 , wherein:
the action of adjusting the output level of the bone conduction device based on cognitive capacity includes increasing compression for a decrease in cognitive capacity.
9. A method, comprising:
capturing sound with a transducer;
obtaining data indicative of latent variables having a nexus with a recipient of a hearing prosthesis being fatigued; and
evoking a hearing percept using the hearing prosthesis based on the captured sound, wherein
the evoked hearing percept is evoked based on processing output of the transducer in a manner that takes into account the obtained data, thereby influencing the evoked hearing percept in such a manner that affirmatively takes into account recipient fatigue, and
the method is automatically executed using a system that is trained to recognize the latent variables and automatically adjust the processing based on the recognition.
10. The method of claim 9 , wherein:
the latent variable is associated with a geographic location.
11. The method of claim 9 , wherein:
the manner that takes into account the obtained data changes a Q factor of the hearing prosthesis.
12. A hearing prosthesis comprising:
a sound processor; and
a sound capture device, wherein
the hearing prosthesis is configured to provide a signal based on sound captured by the sound capture device to the sound processor and configured to provide output to a recipient of the hearing prosthesis based on output from the sound processor that is based on the signal to evoke a hearing percept in the recipient via the output provided to the recipient,
the hearing prosthesis is configured to adjust the output based on cognitive capacity of the recipient, and
the hearing prosthesis is a bone conduction device.
13. The hearing prosthesis of claim 12 , wherein:
the hearing prosthesis is configured to adjust gain of the hearing prosthesis based on cognitive capacity of the recipient to adjust the output based on cognitive capacity of the recipient.
14. The hearing prosthesis of claim 12 , wherein:
the hearing prosthesis is configured to adjust magnitudes/amplitudes of some frequencies of the output so that they are higher relative to other frequencies beyond that which would otherwise be the case so as to adjust the output based on cognitive capacity.
15. The hearing prosthesis of claim 12 , wherein:
the hearing prosthesis is configured to communicate with a portable electronic device configured to receive data relevant to cognitive capacity of the recipient, and
the adjustment of the output based on cognitive capacity is based on the data received by the portable electronics device.
16. The hearing prosthesis of claim 15 , wherein:
the portable electronic device is configured to manage at least some of a set of various parameters that can be adjusted to account for fatigue and/or varying cognitive capacity; and
the adjustment of the output based on cognitive capacity is based on the managed at least some of the set of various parameters that can be adjusted to account for fatigue and/or varying cognitive capacity.
17. The hearing prosthesis of claim 15 , wherein:
the portable electronic device is configured to receive user input adjustments; and
the hearing prosthesis is configured to adjust the output based on the received user input adjustments.
18. The hearing prosthesis of claim 12 , wherein:
the adjusted output is an adjustment of the intensity of the output that evokes a hearing percept.
19. The hearing prosthesis of claim 12 , wherein:
the hearing prosthesis is configured to automatically adjust the output based on cognitive capacity of the recipient, and
the hearing prosthesis is configured to enable the recipient to specifically override the adjustment.
20. The hearing prosthesis of claim 12 , wherein:
the hearing prosthesis is part of a system that includes a mobile phone, wherein the mobile phone is configured to receive input indicative of recipient cognitive capacity, and
the system is configured to use the input indicative of recipient cognitive capacity to adjust the output based on cognitive capacity of the recipient.
21. The hearing prosthesis of claim 12 , wherein:
the hearing prosthesis is configured to automatically extrapolate a cognitive capacity of the recipient based on the occurrence of a recurring scenario that has a correlation with reduced cognitive load of the recipient.
22. The hearing prosthesis of claim 12 , wherein:
the hearing prosthesis is configured to, based on cognitive capacity, implement adaptive dynamic range optimization to focus processing on sound intensities that have a higher probability of being associated with sound that is deemed to be desired, thereby adjusting the output based on cognitive capacity of the recipient.
23. The hearing prosthesis of claim 12 , wherein:
the hearing prosthesis is configured to communicate with a portable electronic device configured to receive data relevant to cognitive capacity of the recipient; and
at least one of the hearing prosthesis or the portable electronic device is configured with software, and/or hardware, and/or firmware that learns from the recipient and extrapolates when the recipient is more likely to be fatigued and/or when the recipient is more likely to experience a diminished cognitive capability relative to other instances; and
the cognitive capacity is based on the extrapolation.
24. A non-transitory computer-readable media having recorded thereon a computer program for executing the following actions:
automatically adjusting an output level of a bone conduction hearing prosthesis based on a fatigue level of a recipient of the prosthesis.
25. The media of claim 24 , wherein:
the computer program is for further executing an action of stimulation reduction based on fatigue level, thereby automatically adjusting the output level.
26. The media of claim 24 , wherein:
the computer program is for further executing an action of extrapolating fatigue level from speech of the recipient via a voice stress analysis thereof.
27. The media of claim 24 , wherein:
the computer program is for further executing an action of analyzing output from a movement sensor and deducing fatigue level of the recipient therefrom.
28. The media of claim 24 , wherein:
the computer program is for further executing an action of processing a signal based on captured sound by limiting a number of spectral maxima presented to the recipient in output of the prosthesis if the fatigue level indicates the recipient is fatigued relative to that which would otherwise be the case, thereby automatically adjusting the output level.
29. The media of claim 24 , wherein:
the computer program is for further automatically executing an action of adjusting the output level based on identified recurring scenarios that have a correlation with the fatigue level of the recipient.
30. The media of claim 24 , wherein:
the computer program is for further executing an action of extrapolating fatigue level from movement of the recipient via data from a motion detector.