Abstract: The present disclosure provides systems and methods for enrollment of irregular shaped objects. The system described herein includes an image capturing camera for capturing images of a package and a processing unit communicatively coupled to the camera. The processing unit may receive one or more images of the package from the camera. The processing unit may determine a first volume, a second volume, and the rectangle-score of the package. Responsive to determining the first volume, the second volume, and the rectangle-score of the package, a cuboid-score for the package is determined. Finally, the processing unit determines a shape of the package based on the cuboid-score.

Abstract: A technique dynamically places resources within a graphical user interface (GUI). According to the novel technique, a resource (e.g., an image of the resource) of the GUI is assigned a filename (e.g., by a graphic designer) having position information encoded therein. For example, a resource with coordinates of 50 pixels in the “X” direction (“50X”) and 50 pixels in the “Y” direction (“50Y”) may be represented with a corresponding filename: “resourcename_50×50.jpg.” Software code that displays the GUI (e.g., maintained by a software developer) may then dynamically interpret the filename to parse out the position information (e.g., 50X and 50Y). The software code then places the resource in a position within the GUI according to the position information. Subsequently, changing the position information encoded within the filename (e.g., by the graphic designer) changes the position of the resource in the GUI (e.g., renaming the resource to “resourcename_100×50.jpg” replaces the resource at 100X and 50Y).

Abstract: A technique dynamically places resources within a graphical user interface (GUI). According to the novel technique, a resource (e.g., an image of the resource) of the GUI is assigned a filename (e.g., by a graphic designer) having position information encoded therein. For example, a resource with coordinates of 50 pixels in the “X” direction (“50X”) and 50 pixels in the “Y” direction (“50Y”) may be represented with a corresponding filename: “resourcename_50×50.jpg.” Software code that displays the GUI (e.g., maintained by a software developer) may then dynamically interpret the filename to parse out the position information (e.g., 50X and 50Y). The software code then places the resource in a position within the GUI according to the position information. Subsequently, changing the position information encoded within the filename (e.g., by the graphic designer) changes the position of the resource in the GUI (e.g., renaming the resource to “resourcename_100×50.jpg” replaces the resource at 100X and 50Y).

Abstract: A peer-to-peer storage system includes a storage coordinator that centrally manages distributed storage resources in accordance with system policies administered through a central administrative console. The storage resources, or “nodes,” are otherwise unused portions of storage media, e.g., hard disks, that are included in the devices such as personal computers, workstations, laptops, file servers, and so forth, that are connected to a corporate computer network, and are thus otherwise available only individually to the respective devices. The storage coordinator assigns the nodes to various “replication groups” and allocates the storage resources on each of the nodes in a given group to maintaining dynamically replicated versions of the group files. The storage nodes in a given group perform dynamic file replication and synchronization operations by communicating directly, that is, peer-to-peer, using a message-based protocol.