Abstract: Automated techniques for identifying packaging solutions, where a dynamic, automated decision is made as to whether items are to be bulk packed and/or whether particular containers are to be bulk cased (that is, consolidated within casing such as pallets). Factors considered may comprise customer-specific requests, order destination, type of items, quantity of items, size of items, quantity of grouped orders, size of grouped orders, and so forth. Orders may contain items that are alike as well as items that are different from one another. A particular order or orders may be assembled as the items of the order(s) arrive for packaging, without requiring a fixed timing or sequence of item arrival, thereby providing a dynamic, real-time packaging solution.

Abstract: A method for reconfiguring a partially manufactured product for a canceled custom-built order during a manufacturing process includes canceling a custom-built order for a product that has been partially manufactured. The method also includes reading a configuration of the partially manufactured product for the custom-built order that has been canceled, and reading at least one order for a different manufactured product, wherein each order is associated with a target configuration. The method yet further includes reading a set of rules that match a given configuration with one of a set of target configurations and executing the set of rules upon the configuration of the partially manufactured product so as to match the configuration of the partially manufactured product with one of a target configuration of the at least one order.

Abstract: A method for dynamically altering manufacturing routings to add, remove, or skip operations and combinations of operations within a shop floor control system in real-time to respond to current conditions. One aspect of the present invention is a computer-implemented method for dynamically generating a manufacturing production work flow. One embodiment of this method comprises receiving indication that an assembly has completed a manufacturing operation, the assembly having a work flow and a sampling strategy associated therewith; querying a data source for characteristics of a plurality of previously sampled components; querying a manufacturing floor control system for current production status; and dynamically updating the work flow for the assembly based at least in part on the sampling strategy, characteristics of the plurality of previously sampled components, and the current production status.

Abstract: Automated techniques for identifying packaging solutions, where a dynamic, automated decision is made as to whether items are to be bulk packed and/or whether particular containers are to be bulk cased (that is, consolidated within casing such as pallets). Factors considered may comprise customer-specific requests, order destination, type of items, quantity of items, size of items, quantity of grouped orders, size of grouped orders, and so forth. Orders may contain items that are alike as well as items that are different from one another. A particular order or orders may be assembled as the items of the order(s) arrive for packaging, without requiring a fixed timing or sequence of item arrival, thereby providing a dynamic, real-time packaging solution.

Abstract: A method for reconfiguring a partially manufactured product during a manufacturing process is disclosed. The method can include reading a configuration of the partially manufactured product and reading at least one order for a manufactured product, wherein each order is associated with a target configuration. The method can further include reading a set of rules that match a given configuration with one of a set of target configurations and executing the set of rules upon the configuration of the partially manufactured product so as to match the configuration of the partially manufactured product with one of a target configuration of the at least one order. The method can further include initiating re-configuration of the partially manufactured product to the target configuration with which it was matched. Thus, the partially manufactured product is reused in the manufacturing process to fulfill an order it was not originally created to fulfill.

Abstract: Embodiments of the present invention address deficiencies of the art in respect to manufacturing production and provide a novel and non-obvious method, system and computer program product for reuse of cancelled products that are partially manufactured. In one embodiment of the invention, a method for reusing a partially manufactured product during a manufacturing process can be provided. The method can include reading a configuration of the partially manufactured product and reading a set of rules that match a given configuration with one of a set of defined target configurations. The method can further include executing the set of rules upon the configuration of the partially manufactured product so as to match the configuration of the partially manufactured product with a target configuration.

Abstract: Embodiments of the present invention address deficiencies of the art in respect to staging manufactured items and provide a method, system and computer program product for staging items in a manufacturing environment. In an embodiment of the invention, a method for staging items in a manufacturing environment can be provided.

Abstract: Embodiments of the present invention provide a method, system and computer program product for multiple-location auto-cascading clear to build inventory management. In an embodiment of the invention, an order processing method can be provided. The order processing method can include determining a required allocation of parts necessary to build an order, recursively soft allocating parts in different locations until enough parts have been soft allocated to satisfy the required allocation of parts necessary to build the order, and hard allocating the soft allocated parts. In one aspect of the embodiment, it can be determined that not enough parts remain amongst the different locations to satisfy the required allocation of parts necessary to build the order. In that circumstance, the soft allocated parts can be cleared for allocation by a different order.

Abstract: Embodiments of the present invention provide a method, system and computer program product for an auto-cascading clear to build (CTB) tool for multiple enterprise parts management. A method for auto-cascading (CTB) for multiple enterprise parts management can include receiving a demand resulting in an inventory requirement to satisfy the demand, soft allocating inventory meeting a portion of the inventory requirement from multiple different intra-plant locations in an order of priority specified by a set of inventory location priority rules, further soft allocating inventory meeting a remaining portion of the inventory requirement from inventory of multiple different external suppliers in an order of priority specified by the set of inventory location priority rules, and hard reserving the soft allocated inventory and updating inventory levels both in each of the intra-plant locations and also in the external suppliers.

Abstract: Embodiments of the present invention address deficiencies of the art in respect to product data sharing in a multi-node supply chain and provide a method, system and computer program product for progressive vendor data management and verification in a multi-node supply chain. In one embodiment of the invention, a method for progressive vendor data management and verification in a multi-node supply chain can be provided. The method can include propagating vendor data requirements for a product component downstream from a root node in the supply chain to a leaf node in the supply chain producing a portion of the product component. The method further can include verifying vendor data at each node in the supply chain according to the vendor data requirements.

Abstract: A method and system makes date-time conversions and complex date-time calculations between dates of different calendaring systems. The conversion method herein allows embedded, real-time conversion in computer applications and systems between multiple calendaring systems. A date of a first date-time format is converted to any date of a second date-time format after a transformation to a temporal reference or epoch date. The conversion method can be embedded into any code space to enable full date-time conversion abilities. The real-time conversion of the conversion method requires no conversion tables and no post-processing manipulation thus eliminating the need for individual programmers to re-create the same date cross reference tables, or post processing algorithms. The conversion method supports conversion between any two date-time formats including the various existing Gregorian conventions.