Abstract: Sound objects are identified within a content item, and location metadata is extracted from the content item for each sound object. A reference layout is generated, relative to a user position, for the sound objects based on the location metadata. A user's gaze is then determined using pupil tracking, body movement data, head orientation data, or other techniques. Using the reference layout, a sound object along a path defined by the gaze of the user is identified, and audio of the identified object is enhanced.

Abstract: Systems and methods are described for generating an AR image are described herein. A physical camera is used to capture a video of a physical object in front of a physical background. The system then accesses data defining a virtual environment and selects a first position of a virtual camera in the virtual environment. While capturing the video, the system displays captured video of the physical object, such that the physical background is replaced with a view of the virtual environment from the first position of the virtual camera. In response to detecting a movement of the physical camera, the system selects a second position of the virtual camera in the virtual environment based on the detected movement. The system then displays the captured video of the physical object, wherein the view of the physical background is replaced with a view of the virtual environment from the second position of the virtual camera.

Abstract: The present application provides for synthesizing parallax cues for objects of interest in XR environments. An XR application may be applied to a user interface (UI) that generates an XR environment having several rendered objects. This environment may be an AR overlay, on a real-world environment, where there may be a mountain, a tiger, a deer, and a jeep. The XR application receives a selection of an object, e.g., the tiger, by receiving an eye gaze vector positioned at the tiger for an extended period. The XR application may then detect movement from the UI. Capturing movement from an AR headset may be detected after locking onto the tiger object. The XR application may then adjust the display of the XR environment, based on the movement, to exaggerate the parallax shift of the object of interest (e.g., the tiger) and not exaggerate the parallax shift of the other object (e.g., the jeep).

Abstract: Systems and methods are provided herein for providing personalized audio for different users in a vehicle. This may be accomplished by a vehicle entertainment system determining the positions of one or more users within the vehicle. The vehicle entertainment system may then select a zone configuration based on the determined positions and output audio according to the selected zone configuration. For example, a first user sitting in the back of the vehicle may be located in a first zone of the selected zone configuration and a second user sitting in the back of the vehicle may be located in a second zone of the selected zone configuration. The vehicle entertainment system may output a first piece of audio to the first zone and a second piece of audio to the second zone using one or more techniques (e.g., beamforming).

Abstract: Systems and methods are provided herein for providing personalized audio for different users in a vehicle. This may be accomplished by a vehicle entertainment system determining the positions of one or more users within the vehicle. The vehicle entertainment system may then select a zone configuration based on the determined positions and output audio according to the selected zone configuration. For example, a first user sitting in the back of the vehicle may be located in a first zone of the selected zone configuration and a second user sitting in the back of the vehicle may be located in a second zone of the selected zone configuration. The vehicle entertainment system may output a first piece of audio to the first zone and a second piece of audio to the second zone using one or more techniques (e.g., beamforming).

Abstract: Systems and methods are provided herein for providing personalized audio for different users in a vehicle. This may be accomplished by a vehicle entertainment system determining the positions of one or more users within the vehicle. The vehicle entertainment system may then select a zone configuration based on the determined positions and output audio according to the selected zone configuration. For example, a first user sitting in the back of the vehicle may be located in a first zone of the selected zone configuration and a second user sitting in the back of the vehicle may be located in a second zone of the selected zone configuration. The vehicle entertainment system may output a first piece of audio to the first zone and a second piece of audio to the second zone using one or more techniques (e.g., beamforming).

Abstract: Systems and methods are disclosed for a network inventory service (NIS). An NIS may, for example, profile a private network for personalized advertising by recording a list of devices connected to the private network, recording traffic data for the private network, and generating profile associated with the private network based on the recorded list of devices and the recorded traffic data. The NIS may be notified, e.g., of a device within the private network, an advertising avail, request, from an advertising service, a targeted advertisement based on the user profile, and cause the targeted advertisement to be inserted in the advertising avail. In some embodiments, an NIS may work in conjunction with an inventory profile service (IPS) and/or an ad presentation service (APS). An IPS may deliver rules for analyzing new devices and/or network traffic and an APS may communicate with the NIS along with various advertiser networks to supply personalized ads.

Abstract: Systems and methods are described for preserving the privacy of a user in connection with an extended reality (XR) application. The system and methods may receive, by an interposer application, image data from a video capture driver and determine, by the interposer application and based on privacy preferences of a user profile, whether a region of the image data comprises sensitive content. In response to determining that a region of the image data comprises sensitive content, the image data may be modified by applying, by the interposer application, a modification to the region of the image data. The modified image data may be provided by the interposer application to the XR application, wherein the wherein the XR application may be prohibited from directly accessing data from the video capture driver.

Abstract: System and methods are provided relating to bi-manual operation of a touchscreen. Multiple display elements displayed on the touchscreen are selected. A first input to the touchscreen is received defining a datum on the touchscreen, wherein the first input is resultant from sustained contact between a first hand of a user and the touchscreen. A second input to the touchscreen is received defining a reference point on the touchscreen, wherein the second input is resultant from sustained contact between a second hand of the user and the touchscreen. The multiple display elements are positioned to be displayed on the touchscreen in an evenly distributed manner relative to the datum and the reference point.

Abstract: Sound objects are identified within a content item, and location metadata is extracted from the content item for each sound object. A reference layout is generated, relative to a user position, for the sound objects based on the location metadata. A user's gaze is then determined using pupil tracking, body movement data, head orientation data, or other techniques. Using the reference layout, a sound object along a path defined by the gaze of the user is identified, and audio of the identified object is enhanced.

Abstract: Systems and methods are provided in which a speaker profile-data inquiry is transmitted to a mobile device associated with a first speaker. In response to the speaker-profile-data inquiry, speaker profile data associated with the first speaker is received. Audio data representing a voice input is received. The first speaker is identified as providing the voice input, the identification being based on a comparison of characteristics of the received audio data with the speaker profile data of a plurality of speakers for whom speaker profile data is stored. An instruction, which includes a speaker-relative signifier, is determined from the received audio data, and determining the instruction includes determining a referent of the speaker-relative signifier based on the first speaker profile data. An action indicated by the instruction is performed.

Abstract: Sound objects are identified within a content item and location metadata is extracted from the content item for each sound object. A reference layout is generated, relative to a user position, for the sound objects based on the location metadata. If a first sound object is within a threshold angle, relative to the user position, from a second sound object, a virtual position of either the first sound object or the second sound object is adjusted by an adjustment angle.

Abstract: Systems and methods are described herein for providing spatial audio for devices. When a device does not have audio output capabilities, the systems and methods provided herein may provide audio output capabilities for the device such that the audio is perceived by a user to seem to originate from the device lacking audio output capabilities.

Abstract: Systems and methods are described herein for enhanced audio delivery using a device. When a device receives a notification, the device may determine a spatial location to render the notification based on various parameters that are assigned to or derived from the notification. The device may render multiple audio streams and may present those streams to different ears of the user to simulate a spatial origin for the notification.

Abstract: System and methods are provided relating to bi-manual operation of a touchscreen. Multiple display elements displayed on the touchscreen are selected. A first input to the touchscreen is received defining a datum on the touchscreen, wherein the first input is resultant from sustained contact between a first hand of a user and the touchscreen. A second input to the touchscreen is received defining a reference point on the touchscreen, wherein the second input is resultant from sustained contact between a second hand of the user and the touchscreen. The multiple display elements are positioned to be displayed on the touchscreen in an evenly distributed manner relative to the datum and the reference point.

Abstract: Systems and methods for calendar-based management of QoS parameters of networks are disclosed. Calendar data from a digital calendar is used to identify a scheduled event which utilizes a priority application associated with network priority. A priority level of network service to support performance of the priority application on a device in the network during the scheduled event is determined. A reconfiguration request is transmitted to a networking device of the network. The reconfiguration request causes the networking device to adjust its network QoS parameters according to the priority level of network service and provide a network resource such as bandwidth according to the adjusted network QoS parameters to the priority application during the scheduled event. When the scheduled event has ended, the networking device is instructed to release the network resource.

Abstract: Systems and methods for creating a social content-viewing experience are described herein. In one embodiment, users are located in different physical locations. Each user is viewing a screen in a respective physical location. Content displayed on the screens is synchronized by a media system such that each user is viewing the same media asset. A media asset may be a movie, TV show, sports game, photo, presentation, or video game, to name a few examples. At least one user is using an AR headset. The AR headset displays avatars to represent the other users and displays the avatars in the viewing area of the user wearing the AR headset. For the user wearing the AR headset, the avatars provide a viewing experience that simulates having the other users present in the viewing area.

Abstract: Systems and methods are disclosed for a network inventory service (NIS). An NIS may, for example, profile a private network for personalized advertising by recording a list of devices connected to the private network, recording traffic data for the private network, and generating profile associated with the private network based on the recorded list of devices and the recorded traffic data. The NIS may be notified, e.g., of a device within the private network, an advertising avail, request, from an advertising service, a targeted advertisement based on the user profile, and cause the targeted advertisement to be inserted in the advertising avail. In some embodiments, an NIS may work in conjunction with an inventory profile service (IPS) and/or an ad presentation service (APS). An IPS may deliver rules for analyzing new devices and/or network traffic and an APS may communicate with the NIS along with various advertiser networks to supply personalized ads.

Abstract: Systems and methods are described for preserving the privacy of a user in connection with an extended reality (XR) application. The system and methods may receive, by an interposer application, image data from a video capture driver and determine, by the interposer application and based on privacy preferences of a user profile, whether a region of the image data comprises sensitive content. In response to determining that a region of the image data comprises sensitive content, the image data may be modified by applying, by the interposer application, a modification to the region of the image data. The modified image data may be provided by the interposer application to the XR application, wherein the wherein the XR application may be prohibited from directly accessing data from the video capture driver.

Abstract: Systems and methods are described for generating an AR image are described herein. A physical camera is used to capture a video of a physical object in front of a physical background. The system then accesses data defining a virtual environment and selects a first position of a virtual camera in the virtual environment. While capturing the video, the system displays captured video of the physical object, such that the physical background is replaced with a view of the virtual environment from the first position of the virtual camera. In response to detecting a movement of the physical camera, the system selects a second position of the virtual camera in the virtual environment based on the detected movement. The system then displays the captured video of the physical object, wherein the view of the physical background is replaced with a view of the virtual environment from the second position of the virtual camera.