Abstract: An apparatus receives a background audio signal from an earpiece microphone. The earpiece microphone is configured to convert sound from a surrounding environment into the background audio signal. The apparatus outputs, to at least one speaker, a primary audio signal with an altered version of the background audio signal. The altered version is selectable, responsive to control by a user of a user interface, between an amount of active noise cancelation of the sound and an amount of reproduction of the sound. One example embodiment is a headset with microphones and speakers for the respective inputs and outputs.

Abstract: An apparatus comprising a first part, the first part having: at least one camera configured to capture images, and at least two microphones configured to capture at least two audio signals; and a second part having at least one microphone configured to capture at least one audio signal, wherein one of the first part or the second part is configured to perform a move relative to the other part, wherein the apparatus is configured to: determine a parameter associated with the move; select at least one of: the at least two audio signals, or the at least one audio signal based, at least partially, on the determined parameter; and generate at least one output audio signal based on the parameter associated with the move and the selected at least one of: the at least two audio signals or, the at least one audio signal.

Abstract: An apparatus including a first part, the first part having at least one camera configured to capture images; a second part having at least one microphone configured to capture at least one audio signal, wherein one of the first part or second part is able to move relative to the other part and the apparatus including circuitry configured to: determine a parameter associated with the move; generate at least one output audio signal based on the parameter associated with the move and the at least one audio signal.

Abstract: An apparatus receives a background audio signal from an earpiece microphone. The earpiece microphone is configured to convert sound from a surrounding environment into the background audio signal. The apparatus outputs, to at least one speaker, a primary audio signal with an altered version of the background audio signal. The altered version is selectable, responsive to control by a user of a user interface, between an amount of active noise cancelation of the sound and an amount of reproduction of the sound. One example embodiment is a headset with microphones and speakers for the respective inputs and outputs.

Abstract: An apparatus including a first part, the first part having at least one camera configured to capture images; a second part having at least one microphone configured to capture at least one audio signal, wherein one of the first part or second part is able to move relative to the other part and the apparatus including circuitry configured to: determine a parameter associated with the move; generate at least one output audio signal based on the parameter associated with the move and the at least one audio signal.

Abstract: An apparatus receives a background audio signal from an earpiece microphone. The earpiece microphone is configured to convert sound from a surrounding environment into the background audio signal. The apparatus outputs, to at least one speaker, a primary audio signal with an altered version of the background audio signal. The altered version is selectable, responsive to control by a user of a user interface, between an amount of active noise cancelation of the sound and an amount of reproduction of the sound. One example embodiment is a headset with microphones and speakers for the respective inputs and outputs.

Abstract: A method, apparatus and computer program, the method comprising; using a first microphone and a second microphone to detect ambient noise where the first microphone is positioned at a first position within a headset and the second microphone is positioned at a second position within the headset; comparing the ambient noise detected by the first microphone to the ambient noise detected by the second microphone to determine locations of the microphones; and using the determined locations of the microphones to enable a spatial audio output signal to be rendered by the heads.

Abstract: An apparatus receives a background audio signal from an earpiece microphone. The earpiece microphone is configured to convert sound from a surrounding environment into the background audio signal. The apparatus outputs, to at least one speaker, a primary audio signal with an altered version of the background audio signal. The altered version is selectable, responsive to control by a user of a user interface, between an amount of active noise cancelation of the sound and an amount of reproduction of the sound. One example embodiment is a headset with microphones and speakers for the respective inputs and outputs.

Abstract: Output of audio or visual content via local mobile user devices (4a, 4b. 4c, 4d, 4e, 4f), such as a mobile phone and/or a headset, or via output devices (8a, 8b. 8c, 8d, 8e, 8f 8g, 8h), such as a speaker and/or a display, is controlled by a controller (7). The output devices (Sa, 8b. Sc, 8d, 8e, 8f 8g. 8h) are located at different locations within an environment for accommodating users (3a, 3b, 3c, 3d), such as the interior of a car. The controller (7) determines information on a location within the environment of each of the mobile user devices (4a, 4b, 4c, 4d, 4e, 4f) based on wireless signals received from the user devices (4a, 4b, 4c, 4d, 4e, 4f), such as Bluetooth low energy signals, and controls the output of the content based on this.

Abstract: A method, apparatus and computer program, the method comprising; using a first microphone and a second microphone to detect ambient noise where the first microphone is positioned at a first position within a headset and the second microphone is positioned at a second position within the headset; comparing the ambient noise detected by the first microphone to the ambient noise detected by the second microphone to determine locations of the microphones; and using the determined locations of the microphones to enable a spatial audio output signal to be rendered by the heads.

Abstract: Methods and apparatus, including computer program products, are provided for device synchronization. In one aspect there is provided a method. The method may include establishing, at a first wireless device, a clock to be shared with at least a second wireless device; and sending, by the first wireless device over a short-range wireless link, a command to at least the second wireless device, the command indicating an operation to be performed by at least the second wireless device at a time defined by the clock. Related apparatus, systems, methods, and articles are also described.

Abstract: An apparatus including: at least one processor; and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, allow the apparatus to perform at least the following: receiving a background audio signal from an earpiece microphone, the earpiece microphone configured to convert sound from a surrounding environment into the background audio signal; and allow a user of the apparatus to control the generation and characteristics of a noise cancellation signal, the noise cancellation signal configured to interfere destructively with the background audio signal to alter the amplitude of the background audio signal.

Abstract: Methods and apparatus, including computer program products, are provided for device synchronization. In one aspect there is provided a method. The method may include establishing, at a first wireless device, a clock to be shared with at least a second wireless device; and sending, by the first wireless device over a short-range wireless link, a command to at least the second wireless device, the command indicating an operation to be performed by at least the second wireless device at a time defined by the clock. Related apparatus, systems, methods, and articles are also described.

Abstract: An apparatus including a processor configured to move automatically a sub-set of pixels defining a target captured image within a larger set of available pixels in a direction of an edge of the target captured image when a defined area of interest within the target captured image approaches the edge of the target captured image and configured to provide a pre-emptive user output when the sub-set of pixels approaches an edge of the set of available pixels.

Abstract: A method including receiving cropping information for a current video frame; capturing at a camera sensor the current video frame; performing a first crop of the current video frame using a first cropping window to form a cropped video frame, wherein the first cropping window has been dynamically adjusted in response to the received cropping information; and sending the cropped video frame for digital image stabilization.

Abstract: An apparatus including a processor configured to move automatically a sub-set of pixels defining a target captured image within a larger set of available pixels in a direction of an edge of the target captured image when a defined area of interest within the target captured image approaches the edge of the target captured image and configured to provide a pre-emptive user output when the sub-set of pixels approaches an edge of the set of available pixels.

Abstract: An apparatus including an image sensor; optics for the image sensor having optically symmetric characteristics about an optical axis; and an actuator configured to enable at least a first configuration and a second configuration, wherein in the first configuration the optical axis of the optics meets the image sensor at a first position and in the second configuration the optical axis of the optics meets the image sensor at a second position displaced from the first position.

Abstract: A method comprising: receiving cropping information for a current video frame; capturing at a camera sensor the current video frame; performing a first crop of the current video frame using a first cropping window to form a cropped video frame, wherein the first cropping window has been dynamically adjusted in response to the received cropping information; and sending the cropped video frame for digital image stabilization.

Abstract: An apparatus including a display configured to display an image; and a system for adjusting the image on the display based upon location of a user of the apparatus relative to the apparatus. The system for adjusting includes a camera and an orientation sensor. The system for adjusting is configured to use signals from both the camera and the sensor to determine the location of the user relative to the display.

Abstract: An apparatus including: at least one processor; and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, allow the apparatus to perform at least the following: receiving a background audio signal from an earpiece microphone, the earpiece microphone configured to convert sound from a surrounding environment into the background audio signal; and allow a user of the apparatus to control the generation and characteristics of a noise cancellation signal, the noise cancellation signal configured to interfere destructively with the background audio signal to alter the amplitude of the background audio signal.