International Business Machines Corporation

William Robert Taylor

Ivory Wellman Knipfer

Fraser Allan Syme

Steven Charles Erickson

Michael J Branson

Matthew H Zemke

Jeffrey George Komatsu

Ryan Paske

Brian Timothy Kreifels

Zachary A Silverstein

Barry Alan Kritt

Cheranellore Vasudevan

Jacob Ryan Jepperson

Thomas S Mazzeo

James David Greenfield

Derek P Bagwell

Kenneth Wayne Roberson

Gary V Tollers

Matthew J Mitchell, Jr

John Walter Marreel

Timothy James Gerber

Nancy Mae Heinz

Kathryn Anne Fell

Jean Pommier

Sandeep Sinha

A method, system, and computer program product for automated identification and generation of user interface interactions for robotic process automation development are provided. The method identifies an interface environment including a set of user interface elements. The method identifies a set of element attributes associated with the set of user interface elements based on a user interface model. A set of automated interactions are generated based on the interface environment, the set of user interface elements, the set of element attributes, and the user interface model. An input interface is generated based on the set of automated interactions. The method generates program code for a thematic interface environment based on user input received through the input interface, the interface environment, the set of user interface elements, the set of element attributes, and the user interface model.

Robotic process automation

Embodiments of the invention relate to supply chain recommendations and application in real-time. A correlation between order proposals and firm orders is provided, and a correlation between the proposals and orders is measured in the form of compliance. A command associated with a measurement of the compliance is generated and applied to one or more hardware addressable components or associated machines. The application of the commands changes a physical aspect of the product, thereby effectively transforming a state of the product.

Product offering analytics

A logical inventory mechanism takes components in assemblies into account when determining purchase requirements. The inventory control system determines assemblies that are available, determines their components and whether or not each component may be reused, then adjusts physical inventory to generate therefrom logical inventory based on physical inventory plus parts in the assemblies that may be reused if the assemblies are disassembled. By computing logical inventory that would be available by disassembling assemblies, inventory levels may be reduced, thereby enhancing the efficiency of an inventory control system that includes the logical inventory mechanism. Assemblies in inventory thus may be used in two very different matters, as the starting point for a higher-level assembly, or to be disassembled to use one or more reusable components in the assembly in a different assembly.

Inventory mechanism that generates logical inventory from assemblies in inventory

A method, system and computer-usable medium for generating a manufacturing-usable easily modifiable product order document is presented. An object collection of objects that describe features of components of a product is created. A view database that describes a logical relationship among components in the object collection is also created. A single document that includes the object collection and the view database is then generated. This single document can be updated according to technical requirements for a product being manufactured according to a product description created from the single document.

Use of extensible object data to represent a fully qualified solution order

A system for performing a part inventory analysis is provided. In response to determining a current part inventory, current order demands on the current part inventory are determined. The current part inventory is segmented. An order demand coverage is determined for each segment of the segmented inventory based on the current order demands. A conditioned part inventory is determined based on a loaner part inventory analysis of the segmented inventory. A part purchase recommendation is calculated based on the conditioned part inventory. Then, data for the segmented inventory, the order demand coverage, the conditioned part inventory, and the part purchase recommendation are stored in a storage device.

Automatically adjusting inventory based on loaner parts and order demands

A system for automatically replacing loaner parts within a loaner system to prevent loaner system callback. In response to selecting a loaner system within loaner inventory data, it is determined whether the selected loaner system is required to be returned based on a target return date for the selected loaner system. In response to determining that the selected loaner system is not required to be returned, a notification is automatically generated and sent to a customer to return expiring loaner parts within the selected loaner system based on loaner part rules. A part replacement order is automatically generated for replacement loaner parts for each of the expiring loaner parts. Then, the replacement loaner parts are automatically shipped to the customer to replace the expiring loaner parts to prevent callback of the selected loaner system.

Automatic loaner part replacement to prevent system callback

A method and apparatus for a pull back optimizer in conjunction with an inventory management system allows for efficient retrieval of return assemblies for optimized parts fulfillment. The inventory management system includes a return assembly inventory and a list of parts needed for order fulfillment. The return assembly inventory lists the part numbers and quantities of parts in each return assembly. The pull back optimizer allows a user of the inventory management system to efficiently determine the optimal return systems to pull back to production for parts fulfillment to minimize the impact on those using the return assemblies.

Efficient retrieval of return assemblies for optimized parts fulfillment

The present disclosure is directed to a method for determining dynamic test coverage for a product. The method may comprise: receiving a customer order, the customer order comprising at least one product configuration; receiving a rule set associated with the at least one product configuration; analyzing the rule set to determine a proxy part to add to the at least one product configuration; providing the proxy part an indicator; adding the proxy part to the at least one product configuration; iteratively comparing the product configuration to the rule set until the product configuration meets the rule set; providing a test associated with the at least one product configuration; receiving at least one signal from at least one indicator; and removing at least one proxy part from the at least one product configuration.

Dynamic determination of a minimal configured product to achieve desired test coverage

A method is provided for meeting anticipated parts demands, by controlling substitute part inventory coverage based on percentage requirements. The method is characterized by substitution sets determined as a ratio of the current PN level. In one embodiment, current parts of specified type and substitute parts functionally equivalent to the current parts are respectively kept in inventory. This embodiment includes specifying a maximum percentage of demand for the current parts that is allowed to be filled using substitute parts. The number of additional parts needed to cover a demand is determined, when the demand specifies a total number of current parts exceeding the number thereof in inventory. A number of substitute parts is then assigned from inventory to cover the demand, up to a number that does not exceed the specified maximum percentage of the specified total number. When the number of additional parts needed is greater than the number of assigned substitute parts, a number of current parts equal to the difference therebetween is then purchased.

Planning parts demand coverage based on variable percentage of substitution parts

A time-phased reutilization of configured products is provided. Partially configured products are detected. Each partially configured product is analyzed to determine if the partially configured product is a valid partially configured product, suitable for being modified into other configurations. A time phased management process is applied to the valid partially configured product.

Time phased configured product reutilization sales model

A method for managing customer order alterations in a manufacturing environment is provided. A new order that comprises a new product configuration is received. The new product configuration is a modified version of an original product configuration in an existing order. A first score for a first option for building the new product configuration from scratch is determined. A second score for a second option for modifying the existing product configuration to satisfy the new product configuration is determined. A best option is determined by comparing the first and second scores and selecting an option with a lower score. The best option is presented to a user. In another exemplary embodiment additional scores for additional options for building the new product configuration from other products in existing inventory are determined. The best option is then determined by comparing all scores and selecting an option with a lower score.

Method, medium, and system for managing customer order alterations

A computer implemented method, apparatus, and computer program product for managing an ancestry tree. An order to build a product is received. The ancestry tree is created. The ancestry tree comprises a set of nodes, where each node represents a part of the product. A request to determine a higher level sub-assembly containing a specific part is received. The node of the specific part is located in the ancestry tree. An ancestor pointer in the node of the specific part is returned. The ancestor pointer indicates a higher level sub-assembly containing the part.

Real-time identification of sub-assemblies containing nested parts

An object oriented framework mechanism provides a straightforward and convenient way to implement an order processing system for a manufacturing environment. The order processing framework includes an order class and an order item class that are core classes, and several classes that are extensible according to the needs of the user. The core classes and class relationships define the core function of the framework mechanism. Extensible classes include a configuration process class, an order input class, an order output class, an exploder class, a validator class, a link generator class, and a test data class. These extensible classes are extended by a programmer to implement a desired order processing environment. The framework provides consistent programmer interfaces over a wide variety of different production environments, which greatly enhances programmer efficiency and which makes the resultant code much easier to maintain.

Growing community of inventors

Rochester, MN, United States of America

William Robert Taylor