Abstract: A method including in a first training process, receiving first 2D training images, generating a scene representation based on the first 2D training images using a machine learning model, generating a loss based on comparing the scene representation to a ground-truth scene representation, and training the machine learning model based on the loss, and in a second training process, receiving a first video frame including second 2D training images, receiving a second video frame including third 2D training images the first frame and the second frame being captured sequentially in time, generating a first intermediate prediction based on the first video frame using the machine learning model, generating a second intermediate prediction based on the second video frame using the machine learning model, generating a loss based on the first intermediate prediction and the second intermediate prediction, and training the machine learning model based on the loss.

Abstract: A method including receiving a plurality of two-dimensional (2D) images representing a frame of a streaming three-dimensional (3D) video, generating a plurality of meshes corresponding to one of the plurality of 2D images, generating a synthesized mesh based on the plurality of meshes, generating a left-eye 3D image and depth based on the synthesized mesh, and generating a right-eye 3D image and depth map based on the synthesized mesh, the left-eye 3D image and depth map and the right-eye 3D image and depth map having a viewpoint perspective based on a receiver of the streaming 3D video.

Abstract: A non-transitory computer-readable storage medium comprises instructions stored thereon. When executed by at least one processor, the instructions are configured to cause a computing system to at least generate multiple mesh cells based on multiple mesh layers, the multiple mesh layers representing a volumetric scene, the multiple mesh cells including multiple mesh blocks; select, from the multiple mesh blocks, k selected blocks based on densities of the multiple mesh blocks, k being a predetermined number; and store the selected blocks and identifiers of locations of the selected blocks.

Abstract: Systems and methods for rendering vector data in conjunction with a three-dimensional model are provided. In particular, a smooth transparent draping layer can be generated and rendered overlaying the three-dimensional model. The vector data can be texture mapped to the smooth transparent draping layer such that the vector data appears to be located along a surface in the three-dimensional model. The three-dimensional model can be a model of a geographic area and can include terrain geometry that models the terrain of the geographic area and building geometry that models buildings, bridges, and other objects in the geographic area. The smooth transparent draping layer can conform to the surfaces defined by the terrain geometry. The vector data can be texture mapped to the smooth transparent draping layer such that the vector data appears to be located along the surface of the terrain geometry but can be occluded by the building geometry.

Abstract: Systems and methods for rendering vector data in conjunction with a three-dimensional model are provided. In particular, a smooth transparent draping layer can be generated and rendered overlaying the three-dimensional model. The vector data can be texture mapped to the smooth transparent draping layer such that the vector data appears to be located along a surface in the three-dimensional model. The three-dimensional model can be a model of a geographic area and can include terrain geometry that models the terrain of the geographic area and building geometry that models buildings, bridges, and other objects in the geographic area. The smooth transparent draping layer can conform to the surfaces defined by the terrain geometry. The vector data can be texture mapped to the smooth transparent draping layer such that the vector data appears to be located along the surface of the terrain geometry but can be occluded by the building geometry.

Abstract: Systems and methods for rendering vector data in conjunction with a three-dimensional model are provided. In particular, a smooth transparent draping layer can be generated and rendered overlaying the three-dimensional model. The vector data can be texture mapped to the smooth transparent draping layer such that the vector data appears to be located along a surface in the three-dimensional model. The three-dimensional model can be a model of a geographic area and can include terrain geometry that models the terrain of the geographic area and building geometry that models buildings, bridges, and other objects in the geographic area. The smooth transparent draping layer can conform to the surfaces defined by the terrain geometry. The vector data can be texture mapped to the smooth transparent draping layer such that the vector data appears to be located along the surface of the terrain geometry but can be occluded by the building geometry.

Abstract: Systems and methods for rendering vector data in conjunction with a three-dimensional model are provided. In particular, a smooth transparent draping layer can be generated and rendered overlaying the three-dimensional model. The vector data can be texture mapped to the smooth transparent draping layer such that the vector data appears to be located along a surface in the three-dimensional model. The three-dimensional model can be a model of a geographic area and can include terrain geometry that models the terrain of the geographic area and building geometry that models buildings, bridges, and other objects in the geographic area. The smooth transparent draping layer can conform to the surfaces defined by the terrain geometry. The vector data can be texture mapped to the smooth transparent draping layer such that the vector data appears to be located along the surface of the terrain geometry but can be occluded by the building geometry.

Abstract: Systems and methods for rendering vector data in conjunction with a three-dimensional model are provided. In particular, a smooth transparent draping layer can be generated and rendered overlaying the three-dimensional model. The vector data can be texture mapped to the smooth transparent draping layer such that the vector data appears to be located along a surface in the three-dimensional model. The three-dimensional model can be a model of a geographic area and can include terrain geometry that models the terrain of the geographic area and building geometry that models buildings, bridges, and other objects in the geographic area. The smooth transparent draping layer can conform to the surfaces defined by the terrain geometry. The vector data can be texture mapped to the smooth transparent draping layer such that the vector data appears to be located along the surface of the terrain geometry but can be occluded by the building geometry.

Abstract: The present disclosure relates to navigating around geographic maps within a map viewport display. More specifically, the present disclosure relates to navigating around a surface of a 3D, geographic coordinate system representation of a body using a pan feature while North is locked. In response to a user activating a pan feature of a navigation interface, a spin angle and, or a swing angle is calculated and the globe is revolved around a spin-axis and/or a swing-axis while revolution around a rotate-axis is locked.

Abstract: The present disclosure relates to navigating around geographic maps within a map viewport display. More specifically, the present disclosure relates to navigating around a surface of a 3D, geographic coordinate system representation of a body using a pan feature while North is locked. In response to a user activating a pan feature of a navigation interface, a spin angle and, or a swing angle is calculated and the globe is revolved around a spin-axis and/or a swing-axis while revolution around a rotate-axis is locked.

Abstract: Systems and methods for rendering vector data in conjunction with a three-dimensional model are provided. In particular, a smooth transparent draping layer can be generated and rendered overlaying the three-dimensional model. The vector data can be texture mapped to the smooth transparent draping layer such that the vector data appears to be located along a surface in the three-dimensional model. The three-dimensional model can be a model of a geographic area and can include terrain geometry that models the terrain of the geographic area and building geometry that models buildings, bridges, and other objects in the geographic area. The smooth transparent draping layer can conform to the surfaces defined by the terrain geometry. The vector data can be texture mapped to the smooth transparent draping layer such that the vector data appears to be located along the surface of the terrain geometry but can be occluded by the building geometry.