Abstract: A partition set for reinforcing a container's handles, the partition set including at least one interlocking subcomponent without hand holes and at least one interlocking subcomponent with two end panels with hand holes; the hand holes alignable with the container's hand holes; thereby providing reinforcement to the container's handles. Also, a container with hand hole reinforcement provided by the partition set.

Abstract: A partition set for reinforcing a container's handles, the partition set including at least one interlocking subcomponent without hand holes and at least one interlocking subcomponent with two end panels with hand holes; the hand holes alignable with the container's hand holes; thereby providing reinforcement to the container's handles. Also, a container with hand hole reinforcement provided by the partition set.

Abstract: A partition set for reinforcing a container's handles, the partition set including at least one interlocking subcomponent without hand holes and at least one interlocking subcomponent with two end panels with hand holes; the hand holes alignable with the container's hand holes; thereby providing reinforcement to the container's handles. Also, a container with hand hole reinforcement provided by the partition set.

Abstract: An enterprise planning system provides interview-based enterprise planning techniques that enable users to interact with a simple, manageable and understandable front-end for complex planning software. The interview-based enterprise planning system guides users through an enterprise planning process that captures the planning data with a set of ordered input screens that include an interview-based progression of an enterprise planning session. The interview-based enterprise planning system presents an interview-based question and answer planning process in which users enter input data through a combination of, for example, input fields, yes-no answers to interview questions, and drop-down boxes. The interview-based planning process may be customized on an organization wide basis, on a per plan basis, and/or on a per user basis.

Abstract: Techniques are described for sharing multidimensional data between software systems, such as enterprise software systems. Specifically, the techniques provide mechanisms for defining inter-application “links” for automatically moving data among different databases associated with the enterprise software systems. For example, a system may include a first database storing multidimensional data for a first software application, and a second database storing multidimensional data for a second software application. The system further includes an interface by which an administrator defines a link that specifies a source area of the first database and a target area of the second database. A link control module automatically moves multidimensional data from the source area to the target area in accordance with the link. The link control module may automatically move the multidimensional data directly between live portions of the respective databases.

Abstract: A spreadsheet environment is utilized to interact with a multidimensional data store associated with the enterprise planning session. In general, a conventional spreadsheet application is extended to provide additional functionality for interacting with the multidimensional data store maintained by the enterprise planning system. Instances of the extended spreadsheet application execute on a client computing device, and present a user with a two-dimensional representation of a portion of the multidimensional data store. For example, the extended spreadsheet application may present user with a workbook that includes one or more worksheets within which the user may view and update his planning data. In this manner, the extended spreadsheet application functions as an interface between two-dimensional worksheets maintained by the computing devices and the multidimensional data store maintained by the enterprise planning system.

Abstract: A system of structures uses the energy and properties of a stream flow to protect downstream structures from various potentailly damaging stream-flow-induced events. One element, a streamwise-vortex generator is placed upstream from a structure to protect it from impact by buoyant contaminates. The generator is positioned at a depth sufficiently below the surface to minimize the likelihood of contact with vehicles or debris. In this position it induces a vortex in the current flow whose axis is essentailly parallel to the streamwise flow. The vortex persists downstream of the generator and, migrating to the surface, deflects a debris away from the protected structure. Another element, a vorticity generator, causes interference with, and/or diversion of streambed-scouring vortices or eddies which are naturally generated adjacent the sides of structures. The result is protection of the streambed from damaging scour which would otherwise occur.

Abstract: A streamwise-vortex generating diverter is placed upstream from a structure to protect the structure. The diverter is positioned to induce a vortex, or rotation, in the current flow whose axis is essentially parallel to the streamwise flow. This rotating flow persists downstream of the diverter effectively guiding debris away from the protected structure.