Abstract: A system described herein may receive a request to bridge an asset from a first distributed ledger to a second distributed ledger. The system may record, to the first distributed ledger, information indicating that the asset is frozen. The first distributed ledger may maintain information indicating that the frozen asset remains associated with an owner of the asset. The system may record, to the second distributed ledger, a bridged version of the asset, and may link the asset to the bridged asset. The system may identify a transfer of the bridged version of the asset to a second owner, and record, to the first distributed ledger and based on the linking of the asset to the bridged asset, information disassociating the first owner from the asset.

Abstract: An exemplary method includes an access management system receiving a signed message that is associated with a non-fungible digital asset and that includes a non-fungible digital asset identifier and a nonce. The non-fungible digital asset may be configured to provide access to an access-restricted resource. Based on the non-fungible digital asset identifier included in the signed message, the access management system may access a distributed record that is configured to store ownership information associated with the non-fungible digital asset. Based on the signed message and the ownership information stored in the distributed record, the access management system may verify that a user of the non-fungible digital asset is authorized to access the access-restricted resource.

Abstract: An exemplary method includes a digital asset management system generating a set of collectible non-fungible digital assets, generating metadata specifying that non-fungible digital assets included the set of collectible non-fungible digital assets are configured to combine together to form a layered scene configured to be presented by a computer system, and recording, in a distributed record configured to track ownership of non-fungible digital assets, ownership information associated with the set of collectible non-fungible digital assets.

Abstract: A system described herein may receive a request to bridge an asset from a first distributed ledger to a second distributed ledger. The system may record, to the first distributed ledger, information indicating that the asset is frozen. The first distributed ledger may maintain information indicating that the frozen asset remains associated with an owner of the asset. The system may record, to the second distributed ledger, a bridged version of the asset, and may link the asset to the bridged asset. The system may identify a transfer of the bridged version of the asset to a second owner, and record, to the first distributed ledger and based on the linking of the asset to the bridged asset, information disassociating the first owner from the asset.

Abstract: An exemplary method includes a digital asset management system generating a set of collectible non-fungible digital assets, generating metadata specifying that non-fungible digital assets included the set of collectible non-fungible digital assets are configured to combine together to form a layered scene configured to be presented by a computer system, and recording, in a distributed record configured to track ownership of non-fungible digital assets, ownership information associated with the set of collectible non-fungible digital assets.

Abstract: An exemplary method includes a resource distribution system that assigns a semi-fungible digital asset to a plurality of resources, sets a value of a resource counter of the semi-fungible digital asset based on a number of resources in the plurality of resources, detects a distribution event associated with the plurality of resources, and adjusts the value of the resource counter based on the distribution event.

Abstract: An exemplary method includes an access management system receiving a signed message that is associated with a non-fungible digital asset and that includes a non-fungible digital asset identifier and a nonce. The non-fungible digital asset may be configured to provide access to an access-restricted resource. Based on the non-fungible digital asset identifier included in the signed message, the access management system may access a distributed record that is configured to store ownership information associated with the non-fungible digital asset. Based on the signed message and the ownership information stored in the distributed record, the access management system may verify that a user of the non-fungible digital asset is authorized to access the access-restricted resource.

Abstract: An exemplary method includes a digital asset management system generating a set of collectible non-fungible digital assets, generating metadata specifying that non-fungible digital assets included the set of collectible non-fungible digital assets are configured to combine together to form a layered scene configured to be presented by a computer system, and recording, in a distributed record configured to track ownership of non-fungible digital assets, ownership information associated with the set of collectible non-fungible digital assets.

Abstract: An illustrative volumetric processing system generates a plurality of point clouds each representing an object from a different vantage point. Based on the plurality of point clouds, the volumetric processing system consolidates point cloud data corresponding to a surface of the object. Based on the consolidated point cloud data for the object, the volumetric processing system generates a voxel grid representative of the object. Based on the voxel grid, the volumetric processing system generates a set of rendered patches each depicting at least a part of the surface of the object. Corresponding methods and systems are also disclosed.

Abstract: An exemplary method includes a digital asset management system sending a non-fungible digital asset from a first computer system to a second computer system. The first computer system and the second computer system may be included in a plurality of computer systems configured to form a distributed record configured to track ownership of non-fungible digital assets. The digital asset management system may further record, in the distributed record, information indicative of the sending of the non-fungible digital asset to the second computer system.

Abstract: An exemplary plurality of system nodes is arranged in a multi-stage modular architecture. A first system node performs a first frame processing task on a first frame of a frame sequence, and a second system node performs a second frame processing task on a second frame of the frame sequence. The first and second system nodes are included respectively, within first and second pipeline stages of the multi-stage modular architecture, and the first and second frame processing tasks are associated with the respective first and second pipeline stages. Subsequent to performing the first and second frame processing tasks, the first and second system nodes transmit the first and second frames to additional system nodes included within subsequent pipeline stages of the multi-stage modular architecture. These transmissions are synchronized so as to be performed within a predetermined threshold time of one another. Corresponding systems and methods are also disclosed.

Abstract: An illustrative volumetric processing system generates a plurality of point clouds each representing an object from a different vantage point. Based on the plurality of point clouds, the volumetric processing system consolidates point cloud data corresponding to a surface of the object. Based on the consolidated point cloud data for the object, the volumetric processing system generates a voxel grid representative of the object. Based on the voxel grid, the volumetric processing system generates a set of rendered patches each depicting at least a part of the surface of the object. Corresponding methods and systems are also disclosed.

Abstract: An exemplary plurality of system nodes is arranged in a multi-stage modular architecture. A first system node performs a first frame processing task on a first frame of a frame sequence, and a second system node performs a second frame processing task on a second frame of the frame sequence. The first and second system nodes are included respectively, within first and second pipeline stages of the multi-stage modular architecture, and the first and second frame processing tasks are associated with the respective first and second pipeline stages. Subsequent to performing the first and second frame processing tasks, the first and second system nodes transmit the first and second frames to additional system nodes included within subsequent pipeline stages of the multi-stage modular architecture. These transmissions are synchronized so as to be performed within a predetermined threshold time of one another. Corresponding systems and methods are also disclosed.

Abstract: An exemplary image generation system accesses a full atlas frame sequence that incorporates a set of image sequences combined within the full atlas frame sequence as atlas tiles. The system generates a first partial atlas frame sequence that incorporates a first subset of image sequences selected from the set of image sequences incorporated in the full atlas frame sequence, as well as a second partial atlas frame sequence that incorporates a second subset of image sequences selected from the set of image sequences. The second subset includes a different combination of image sequences than the first subset and includes at least one image sequence in common with the first subset. The system provides the first partial atlas frame sequence to a first video encoder and the second partial atlas frame sequence to a second video encoder communicatively coupled with the first video encoder. Corresponding methods and systems are also disclosed.

Abstract: An exemplary volumetric processing system includes a set of point cloud generators, a point cloud organizer, a voxelizer, and a set of patch renderers. The point cloud generators correspond to image capture systems disposed at different vantage points to capture color and depth data for an object located within a capture area. The point cloud generators generate respective point clouds for the different vantage points based on the captured surface data. The point cloud organizer consolidates point cloud data that corresponds to a surface of the object. The voxelizer generates a voxel grid representative of the object based on the consolidated point cloud data. The set of patch renderers generates, based on the voxel grid, a set of rendered patches each depicting at least a part of the surface of the object. Corresponding systems and methods are also disclosed.

Abstract: An exemplary volumetric processing system includes a set of point cloud generators, a point cloud organizer, a voxelizer, and a set of patch renderers. The point cloud generators correspond to image capture systems disposed at different vantage points to capture color and depth data for an object located within a capture area. The point cloud generators generate respective point clouds for the different vantage points based on the captured surface data. The point cloud organizer consolidates point cloud data that corresponds to a surface of the object. The voxelizer generates a voxel grid representative of the object based on the consolidated point cloud data. The set of patch renderers generates, based on the voxel grid, a set of rendered patches each depicting at least a part of the surface of the object. Corresponding systems and methods are also disclosed.

Abstract: An exemplary image generation system accesses a full atlas frame sequence that incorporates a set of image sequences combined within the full atlas frame sequence as atlas tiles. The system generates a first partial atlas frame sequence that incorporates a first subset of image sequences selected from the set of image sequences incorporated in the full atlas frame sequence, as well as a second partial atlas frame sequence that incorporates a second subset of image sequences selected from the set of image sequences. The second subset includes a different combination of image sequences than the first subset and includes at least one image sequence in common with the first subset. The system provides the first partial atlas frame sequence to a first video encoder and the second partial atlas frame sequence to a second video encoder communicatively coupled with the first video encoder. Corresponding methods and systems are also disclosed.

Abstract: An exemplary method includes a first physical computing device of a virtual reality system acquiring, from a capture device physically disposed at a vantage point in relation to a three-dimensional (“3D”) scene, surface data for the 3D scene, the surface data including a first instance of a multi-bit frame, separating the first instance of the multi-bit frame into a most significant byte (“MSB”) frame and a least significant byte (“LSB”) frame, compressing the MSB frame, and transmitting the LSB frame and the compressed MSB frame to a second physical computing device of the virtual reality system by way of the network interface.

Abstract: An exemplary video encoding system accesses an image set that includes first and second consecutive color data images depicting a virtual reality scene from a particular vantage point, and first and second consecutive depth data images corresponding to the color data images. The system performs a first-pass video encoding of the image set by identifying motion vector data associated with a transformation from the first to the second color data image, and abstaining from analyzing a transformation from the first to the second depth data image. The system then performs a second-pass video encoding of the image set based on the identified motion vector data by encoding the first and second color data images into a color video stream to be rendered by a media player device, and the first and second depth data images into a depth video stream to be rendered by the media player device.

Abstract: An exemplary video encoding system accesses an image set that includes first and second consecutive color data images depicting a virtual reality scene from a particular vantage point, and first and second consecutive depth data images corresponding to the color data images. The system performs a first-pass video encoding of the image set by identifying motion vector data associated with a transformation from the first to the second color data image, and abstaining from analyzing a transformation from the first to the second depth data image. The system then performs a second-pass video encoding of the image set based on the identified motion vector data by encoding the first and second color data images into a color video stream to be rendered by a media player device, and the first and second depth data images into a depth video stream to be rendered by the media player device.