Disclosed in the embodiments of the present application are a microphone hole blockage detection method and a related product. The method may include: a microphone of a first wireless earphone, acquiring audio of a preset frequency band, the preset frequency band being an audible sound frequency band; determining a first volume parameter of the audio acquired by the first wireless earphone; and, on the basis of the first volume parameter, determining that the microphone of the first wireless earphone is in a blocked hole state.

A method includes outputting, by a computing device, to a remote computing device, test audio data; determining, by the computing device, whether audio data detected by an audio input device includes the test audio data; and responsive to determining that the test audio data was not detected by the audio input device, temporarily refraining, by the computing device, from outputting advisory audio data indicating the audio input device is ready to receive a spoken audio command.

A system and method of adaptive interface switching in a mobile electronic communications device entails engaging in an audio interface task at the mobile electronic communications device. If during the audio interface task it is detected that at least one microphone or at least one speaker of the mobile electronic communications device is compromised, then the system activates a data link to a wearable communication device associated with a user of the mobile electronic communications device. At least one of a mic and speaker on the wearable communication device is then used to continue the audio interface task.

An adaptive method and apparatus for an intelligent terminal, and a terminal are disclosed. The method includes: detecting whether a plurality of screen usage modes for a plurality of applications processed in parallel by a terminal are of same usage mode, wherein the screen usage mode indicates that screen usage parameters for the application tend to be in a landscape screen usage mode or a portrait screen usage mode; in response to detecting that the plurality of screen usage modes for the plurality of applications processed by the terminal in parallel are different usage modes, determining a current screen usage state of the terminal, and adjusting screen usage parameters for an application whose screen usage mode is not consistent with the current screen usage state.

An apparatus comprising: an input configured to receive at least one audio signal input from at least one microphone; at least one microphone configuration determiner configured to provide for the at least one microphone a location on the apparatus; at least one sensor configured to provide at least one orientation of the apparatus; a recording mode determiner configured to determine at least one recording mode for the apparatus based on the location of the at least one microphone and the at least one orientation of the apparatus; a recording mode controller configured to determine at least one recording parameter for the at least one audio signal input from the at least one microphone based on the at feast one recording mode; and a digital signal processor configured to apply the at least one recording parameter to the at least one audio signal input.

Example systems, methods, apparatus and articles of manufacture for wirelessly modifying detection characteristics of portable devices are disclosed herein. Example portable devices include example radio circuitry and example processor circuitry. In disclosed examples, the example processor circuitry is to cause the radio circuitry to scan for radio frequency beacons. The example processor circuitry is also to trigger activation of audio monitoring via a microphone of the portable device in response to establishment of a first connection with a first radio frequency beacon, the audio monitoring to at least one of detect an audio code or generate an audio signature. The example processor circuitry is further to cause the audio monitoring to stop in response to establishment of a second connection with a second radio frequency beacon different from the first radio frequency beacon.

An electronic apparatus may include: a foldable housing which includes a hinge structure that can switch the foldable housing between a folding state or an unfolding state, a first housing structure that is connected to the hinge structure and includes a first face oriented in a first direction and a second face oriented in a second direction opposite to the first direction, and a second housing structure that is connected to the hinge structure, includes a third face oriented in a third direction and a fourth face oriented in a fourth direction opposite to the third direction, and comes into contact with the first housing structure by pivoting about the hinge structure; a first display which extends from the first face to the third face and forms the first face and the third face; a second display which forms at least a portion of the fourth face; and at least one audio input device which is disposed on at least one of the second face or the fourth face.

A system configured to detect a tap event on a surface of a device only using microphone audio data. For example, instead of using a physical sensor to detect the tap event, the device may detect a tap event in proximity to a microphone based on a power level difference between two or more microphones. When a power ratio exceeds a threshold, the device may detect a tap event and perform an action. For example, the device may output an alarm and use a detected tap event as an input to delay or end the alarm. In some examples, the device may detect a tap event using a plurality of microphones. Additionally or alternatively, the device may distinguish between multiple tap events based on a location of the tap event, enabling the device to perform two separate actions depending on the location.

A distributed recording system includes a first device and one or more second devices. The first device sends a distributed recording instruction, to control the one or more second devices to perform recording. The one or more second devices send audio data obtained through recording to an upper-layer recording application.

This application provides a sound pickup method for a terminal device through a Bluetooth peripheral and a terminal device. The terminal device may pick up sound data through a microphone of the Bluetooth peripheral, and may perform targeted sound effect processing on the sound data picked up by the Bluetooth peripheral by using a preset sound effect DRC parameter corresponding to the Bluetooth peripheral. By using the solution in this application, the terminal device may not only pick up sound through the Bluetooth peripheral, but also perform sound effect processing for different Bluetooth peripherals by using different preset sound effect DRC parameters respectively, to improve the sound effect of the sound picked up through the Bluetooth peripheral, so that a better recording effect can be achieved even if the terminal device is relatively far away from a photographed person or environmental noise surrounding the terminal device is relatively large.