Abstract: In one example, a user interface is provided for interactively displaying data. The interactive user interface includes: an interactive display window that displays data according to a tabular format including one or more rows and one or more columns, and wherein the displayed data is dynamically displayed within the interactive display window based on a drag and drop user action performed within the display window; and a frame that surrounds the display window and that dynamically displays a first range of first axis data corresponding to the one or more rows and a second range of second axis data corresponding to the one or more columns.

Abstract: Systems and methods implementing utility-maximized scheduling of time-sensitive tasks in a resource constrained-environment are described herein. Some embodiments include a method for utility-optimized scheduling of computer system tasks performed by a processor of a first computer system that includes determining a time window including a candidate schedule of a new task to be executed on a second computer system, identifying other tasks scheduled to be executed on the second computer system within said time window, and identifying candidate schedules that each specifies the execution times for at least one of the tasks (which include the new task and the other tasks). The method further includes calculating an overall utility for each candidate schedule based upon a task utility calculated for each of the tasks when scheduled according to each corresponding candidate schedule and queuing the new task for execution according to a preferred schedule with the highest overall utility.

Abstract: Systems and methods implementing utility-maximized scheduling of time-sensitive tasks in a resource constrained-environment are described herein. Some embodiments include a method for utility-optimized scheduling of computer system tasks performed by a processor of a first computer system that includes determining a time window including a candidate schedule of a new task to be executed on a second computer system, identifying other tasks scheduled to be executed on the second computer system within said time window, and identifying candidate schedules that each specifies the execution times for at least one of the tasks (which include the new task and the other tasks). The method further includes calculating an overall utility for each candidate schedule based upon a task utility calculated for each of the tasks when scheduled according to each corresponding candidate schedule and queuing the new task for execution according to a preferred schedule with the highest overall utility.

Abstract: Systems and methods implementing a demand-driven workload scheduling optimization of shared resources used to execute tasks submitted to a computer system are disclosed. Some embodiments include a method for demand-driven computer system resource optimization that includes receiving a request to execute a task (said request including the task's required execution time and resource requirements), selecting a prospective execution schedule meeting the required execution time and a computer system resource meeting the resource requirement, determining (in response to the request) a task execution price for using the computer system resource according to the prospective execution schedule, and scheduling the task to execute using the computer system resource according to the prospective execution schedule if the price is accepted.

Abstract: In one example, a user interface is provided for interactively displaying data. The interactive user interface includes: an interactive display window that displays data indicating a schedule of events, wherein the data is displayed according to a first display format; and a highlight selection item that reformats a subset of the displayed data to visually distinguish the subset from the displayed data.

Abstract: In one example, a user interface is provided for interactively displaying data. The interactive user interface includes: an interactive display window that displays data according to a tabular format including one or more rows and one or more columns, and wherein the displayed data is dynamically displayed within the interactive display window based on a drag and drop user action performed within the display window; and a frame that surrounds the display window and that dynamically displays a first range of first axis data corresponding to the one or more rows and a second range of second axis data corresponding to the one or more columns.

Abstract: A system for processing code contained in one or more selected files, before the code is linked to form an executable image, determines the locations in memory where the code will be stored after it is linked, and revises the code to correspond to the determined memory locations. The object code files include code comprising a programming environment, such as LISP, and code input by a user. The user can delete selected portions of the programming environment. Read only, static, and dynamic memory are utilized and each portion of the code input by the user is evaluated to determine which memory is most appropriate.

Abstract: A system for processing code contained in one or more selected files, before the code is linked to form an executable image, features means for determining the locations in memory where the code will be stored after it is linked, and means for revising the code to correspond to the determined memory locations. The object code files include code comprising a programming environment, such as LISP, and code input by a user. The user can delete selected portions of the programming environment. Read only, static, and dynamic memory are utilized and each portion of the code input by the user is evaluated to determine which memory is most appropriate.