Abstract: Provided is a method for scheduling activities. The method includes partitioning tasks provided for scheduling. The partitioning is accomplished by receiving at least one task including at least one data type. The data type is reviewed to determine at least one scheduling criteria and the task is routed to a queue based on the determined scheduling criteria. Each queue also has at least one queue characteristic. The method also includes scheduling the partitioned tasks. The scheduling is accomplished by retrieving the at least one task from the queue in response to a trigger. The retrieved task is routed to at least one scheduler. In a first instance the routing is based on the queue characteristic. In a second instance the routing is based on at least one scheduler characteristic. A scheduling system for performing this method is also provided.

Abstract: Provided is a problem solving system. More specifically, the problem solving system provides an interface operable to receive user supplied input data, the input data having at least one user defined characteristic. The system provides an algorithm pool having a plurality of pre-defined algorithms, each algorithm having at least one associated algorithm characteristic. The system also provides a data source pool having at least one data source, each data source having at least one data characteristic. An algorithm selector is in communication with the interface, algorithm pool and data source pool.

Abstract: Provided is a problem solving system. More specifically, the problem solving system provides an interface operable to receive user supplied input data, the input data having at least one user defined characteristic. The system provides an algorithm pool having a plurality of pre-defined algorithms, each algorithm having at least one associated algorithm characteristic. The system also provides a data source pool having at least one data source, each data source having at least one data characteristic. An algorithm selector is in communication with the interface, algorithm pool and data source pool.

Abstract: Provided is a workflow engine for managing data. More specifically, the workflow engine includes a receiving subsystem that is operable to receive data. An environment evaluating subsystem is also provided and is operable to evaluate an environment and determine at least one environmental parameter. A data evaluating system is in communication with the receiving subsystem and the environment evaluating subsystem. The data evaluating system is operable to determine at least one data parameter from the received data and to receive the environmental parameter. The data evaluating system will evaluate the data parameter and environment parameter and select at least one appropriate workflow rule for use in establishing a workflow job operation for execution by a job operation subsystem. An associated method of use is also provided.

Abstract: Provided is a method for scheduling activities. The method includes partitioning tasks provided for scheduling. The partitioning is accomplished by receiving at least one task including at least one data type. The data type is reviewed to determine at least one scheduling criteria and the task is routed to a queue based on the determined scheduling criteria. Each queue also has at least one queue characteristic. The method also includes scheduling the partitioned tasks. The scheduling is accomplished by retrieving the at least one task from the queue in response to a trigger. The retrieved task is routed to at least one scheduler. In a first instance the routing is based on the queue characteristic. In a second instance the routing is based on at least one scheduler characteristic. A scheduling system for performing this method is also provided.

Abstract: A tapered mounting for cutters which automatically provides accurate positioning of a cutter with respect to a holder. More particularly, the tapered mounting provides a concentric and perpendicular mounting of the cutter with respect to a centerline of rotation of the holder. The tapered cutter mounting in part provided by a frustoconically shaped shank, which is provided with one or more keys. The tapered mounting is further in part provided by a conically shaped bore in the cutter, the conically shaped bore having keyways for accepting the keys. The conically shaped bore surface is dimensioned to firmly engage the frustoconically shaped shank surface so that the cutter is precisely aligned concentrically and perpendicularly with respect to the centerline of rotation of the holder. The cutter hub is held fast with respect to the holder by operation of a hold down screw or bolt which threadably engages with respect to the holder.

Abstract: A milling machine cutter tool structured and oriented to perform complex three dimensional contour machining operations and provides for the cutting edges of the cutter to engage the workpiece in the same direction as the feed direction, thereby resulting in maximal cutting efficiency. The cutting tool is composed of a sleeve rotatably mounted to the milling machine, a quill axially movable in the sleeve, a position drive for selectively moving the quill relative to the sleeve, a drive shaft rotatably supported in the quill and connected at a rear end thereof to a cutter drive, a cutter head connected to the opposite forward end of the quill, a worm gear set mounted in the cutter head connecting gearably to the drive shaft, a cutter shaft mounted in the cutter head transversely in relation to the drive shaft and gearably connected to the worm gear set, and a side cutter connected to the cutter shaft, the side cutter supporting teeth extending forwardly of the cutting head.