Abstract: In some embodiments, an electronic device present navigation routes from various perspectives. In some embodiments, an electronic device modifies display of representations of (e.g., physical) objects in the vicinity of a navigation route while presenting navigation directions. In some embodiments, an electronic device modifies display of portions of a navigation route that are occluded by representations of (e.g., physical) objects in a map. In some embodiments, an electronic device presents representations of (e.g., physical) objects in maps. In some embodiments, an electronic device presents representations of (e.g., physical) objects in maps in response to requests to search for (e.g., physical) objects.

Abstract: In some implementations, a computing device can present augmented reality (AR) labels in an AR video stream. For example, the computing device can obtain route information for a route requested by a user and can determine locations along the route for placing candidate AR labels. The computing device can determine the precise location of the computing device using camera depth information obtained in response to the user scanning the local real-world environment with a camera of the computing device. The computing device can select an AR label and/or label placement location for presentation in an AR video stream based on various criteria, including the distance between the candidate AR labels and the precise location of the computing device, priorities assigned to each candidate AR label, and/or whether a clear line of sight exists between the precise location of the computing device and the candidate AR label location.

Abstract: In some implementations, a computing device can present augmented reality (AR) labels in an AR video stream. For example, the computing device can obtain route information for a route requested by a user and can determine locations along the route for placing candidate AR labels. The computing device can determine the precise location of the computing device using camera depth information obtained in response to the user scanning the local real-world environment with a camera of the computing device. The computing device can select an AR label and/or label placement location for presentation in an AR video stream based on various criteria, including the distance between the candidate AR labels and the precise location of the computing device, priorities assigned to each candidate AR label, and/or whether a clear line of sight exists between the precise location of the computing device and the candidate AR label location.

Abstract: To reduce this amount of bandwidth needed to share 3D map images between mobile devices, according to some embodiments, a user's mobile device (i.e., a host device) may identify its origin in a 3D map and a current virtual camera position relative to the origin based on the physical position of the mobile device. The mobile device may send both the origin and the virtual camera position to another mobile device (i.e., a client device) for use in rendering a corresponding image. Separately, the client device may download the 3D map images from a server, e.g., in preparation for a meeting. In this manner, the host device may send the origin to the client device once, as well as send a data stream of the current virtual camera position for use in accessing the corresponding 3D map images at the client device.

Abstract: Areas of interest on three-dimensional maps can be made visually distinct using three-dimensional tint band meshes that overlay other three-dimensional meshes, for example three-dimensional meshes providing terrain, elevation, and infrastructure data. Characteristics of the three-dimensional tint band meshes may be dynamically updated for visual distinctiveness. When overlaying three-dimensional tint band meshes, the overlay operation can use connectivity information of the three-dimensional meshes to increase performance.

Abstract: In some embodiments, an electronic device present navigation routes from various perspectives. In some embodiments, an electronic device modifies display of representations of (e.g., physical) objects in the vicinity of a navigation route while presenting navigation directions. In some embodiments, an electronic device modifies display of portions of a navigation route that are occluded by representations of (e.g., physical) objects in a map. In some embodiments, an electronic device presents representations of (e.g., physical) objects in maps. In some embodiments, an electronic device presents representations of (e.g., physical) objects in maps in response to requests to search for (e.g., physical) objects.

Abstract: In some implementations, a computing device can present augmented reality (AR) labels in an AR video stream. For example, the computing device can obtain route information for a route requested by a user and can determine locations along the route for placing candidate AR labels. The computing device can determine the precise location of the computing device using camera depth information obtained in response to the user scanning the local real-world environment with a camera of the computing device. The computing device can select an AR label and/or label placement location for presentation in an AR video stream based on various criteria, including the distance between the candidate AR labels and the precise location of the computing device, priorities assigned to each candidate AR label, and/or whether a clear line of sight exists between the precise location of the computing device and the candidate AR label location.

Abstract: In some embodiments, an electronic device present navigation routes from various perspectives. In some embodiments, an electronic device modifies display of representations of (e.g., physical) objects in the vicinity of a navigation route while presenting navigation directions. In some embodiments, an electronic device modifies display of portions of a navigation route that are occluded by representations of (e.g., physical) objects in a map. In some embodiments, an electronic device presents representations of (e.g., physical) objects in maps. In some embodiments, an electronic device presents representations of (e.g., physical) objects in maps in response to requests to search for (e.g., physical) objects.

Abstract: In some embodiments, an electronic device present navigation routes from various perspectives. In some embodiments, an electronic device modifies display of representations of (e.g., physical) objects in the vicinity of a navigation route while presenting navigation directions. In some embodiments, an electronic device modifies display of portions of a navigation route that are occluded by representations of (e.g., physical) objects in a map. In some embodiments, an electronic device presents representations of (e.g., physical) objects in maps. In some embodiments, an electronic device presents representations of (e.g., physical) objects in maps in response to requests to search for (e.g., physical) objects.

Abstract: To reduce this amount of bandwidth needed to share 3D map images between mobile devices, according to some embodiments, a user's mobile device (i.e., a host device) may identify its origin in a 3D map and a current virtual camera position relative to the origin based on the physical position of the mobile device. The mobile device may send both the origin and the virtual camera position to another mobile device (i.e., a client device) for use in rendering a corresponding image. Separately, the client device may download the 3D map images from a server, e.g., in preparation for a meeting. In this manner, the host device may send the origin to the client device once, as well as send a data stream of the current virtual camera position for use in accessing the corresponding 3D map images at the client device.

Abstract: To reduce this amount of bandwidth needed to share 3D map images between mobile devices, according to some embodiments, a user's mobile device (i.e., a host device) may identify its origin in a 3D map and a current virtual camera position relative to the origin based on the physical position of the mobile device. The mobile device may send both the origin and the virtual camera position to another mobile device (i.e., a client device) for use in rendering a corresponding image. Separately, the client device may download the 3D map images from a server, e.g., in preparation for a meeting. In this manner, the host device may send the origin to the client device once, as well as send a data stream of the current virtual camera position for use in accessing the corresponding 3D map images at the client device.

Abstract: To reduce this amount of bandwidth needed to share 3D map images between mobile devices, according to some embodiments, a user's mobile device (i.e., a host device) may identify its origin in a 3D map and a current virtual camera position relative to the origin based on the physical position of the mobile device. The mobile device may send both the origin and the virtual camera position to another mobile device (i.e., a client device) for use in rendering a corresponding image. Separately, the client device may download the 3D map images from a server, e.g., in preparation for a meeting. In this manner, the host device may send the origin to the client device once, as well as send a data stream of the current virtual camera position for use in accessing the corresponding 3D map images at the client device.

Abstract: To reduce this amount of bandwidth needed to share 3D map images between mobile devices, according to some embodiments, a user's mobile device (i.e., a host device) may identify its origin in a 3D map and a current virtual camera position relative to the origin based on the physical position of the mobile device. The mobile device may send both the origin and the virtual camera position to another mobile device (i.e., a client device) for use in rendering a corresponding image. Separately, the client device may download the 3D map images from a server, e.g., in preparation for a meeting. In this manner, the host device may send the origin to the client device once, as well as send a data stream of the current virtual camera position for use in accessing the corresponding 3D map images at the client device.

Abstract: To reduce this amount of bandwidth needed to share 3D map images between mobile devices, according to some embodiments, a user's mobile device (i.e., a host device) may identify its origin in a 3D map and a current virtual camera position relative to the origin based on the physical position of the mobile device. The mobile device may send both the origin and the virtual camera position to another mobile device (i.e., a client device) for use in rendering a corresponding image. Separately, the client device may download the 3D map images from a server, e.g., in preparation for a meeting. In this manner, the host device may send the origin to the client device once, as well as send a data stream of the current virtual camera position for use in accessing the corresponding 3D map images at the client device.