Abstract: A technique is provided for verifying the proper selection, installation, communication and operability of components in power electronic systems, such as motor drives. A processing circuit is coupled to multiple components or subsystems that identify themselves to the processing system. An identification code is stored that is compared to a similar code built based upon the information reported by the components at the time of commissioning, operation or servicing. If the comparison indicates that all components are properly installed, and communicating and operative, operation may continue. The technique may be applied in parallel motor drives at a power layer level to allow separate and parallel verification of component and component operation in the parallel drives.

Abstract: Techniques include systems and methods of synchronizing multiple parallel inverters in a power converter system. In one embodiment, control circuitry is connected to a power layer interface circuitry at each of the parallel inverters, via an optical fiber interface. The system is synchronized by transmitting a synchronizing pulse to each of the inverters. Depending on the operational mode of the system, different data exchanges may occur in response to the pulse. In an off mode, power up and power down data may be exchanged between the control circuitry and the inverters. In an initiating mode, identification data may be transmitted from the inverters to the control circuitry. In an active mode, control data may be sent from the control circuitry to the inverters. In some embodiments, the inverters also transmit feedback data and/or acknowledgement signals to the control circuitry.

Abstract: A method for reteaching a switching circuit is provided. The method includes presenting a target within a sensing range of a sensor of the switching circuit for a pre-determined duration and acquiring an identification code of the target via the sensor. The method also includes comparing the acquired identification code with all stored identification codes of other targets previously used by the switching circuit as a basis for switching and reteaching the switching circuit for switching based on the acquired identification code if the acquired identification code is different from all stored identification codes previously used by the switching circuit as a basis for switching.

Abstract: An automation control and monitoring system is provided that includes a common framework for components of the control and monitoring system through a resource oriented architecture (ROA). The ROA may enable enhanced scalability and distribution within the control and monitoring system. Further, the framework may provide a base set of functionalities to be implemented across components of the control and monitoring system, creating vertical scalability.

Abstract: Methods and systems for tracking an electronic signal corresponding to an operating frequency of an electronic component are provided. A method may include sampling the signal to determine previous and current time samples of the signal. A frequency of interest in the signal may also be pre-warped to decrease adverse warping effects resulting from processing signals having relatively higher operating frequencies. The previous and current time samples of the signals, along with the pre-warped frequency of interest, may be input into a digital tracking filter. The digital tracking filter may be configured to execute one or more algorithms on the previous and current time samples and the pre-warped frequency of interest to estimate a current operating frequency.

Abstract: A control and monitoring system is provided that includes an automation controller. The system includes a distributed model stored on the automation controller. Changes to the distributed model are provided via delta scripts that define only the changes to the model. Further, the control and monitoring system 24 includes distributed execution engines that execute commands based upon trigger events determined in the system. a plurality of automation control components networked together and with the automation controller, wherein the plurality of automation control components are capable of load balancing among the plurality of automation control components in response to performance demands of the control and monitoring system. These features of the control and monitoring system enable load balancing, data and processing redundancy, and collaborative design within the control and monitoring system.

Abstract: An automation control and monitoring system includes a server configured to receive a subscription request from a client component. The subscription request provides one or more criteria to the server. The server is configured to provide a set of data, via a first notification, to the client component based upon the one or more criteria in the subscription request. The server is configured to provide, via additional notifications based on the subscription request, additional sets of data, modifications to the set of data, or both, when additional data or modifications corresponding to the one or more criteria are available.

Abstract: An automation control and monitoring system is provided that includes an automation control component and a data store. The automation control component is configured to store measurement data acquired from a sensing component of the automation control system in onboard memory. The automation control component is configured to store the measurement data in the onboard memory in a manner defined by a data structure of the measurement data. The data store is configured to store and dynamically associate meta-data with the measurement data acquired from the sensing component such that the meta-data extends the data structure by linking at least portions of the meta-data with the measurement data.

Abstract: A Manufacturing Execution System (MES) is provided that leverages industry-specific workflows to process business requests. The MES system can maintain activity sets representing industry-specific workflows that can be selected and executed in order to satisfy business-driven goals. The activity sets can comprise both business-level and control-level operations, and can be configured using an intuitive graphical interface that mitigates the need for low-level programming by the end user. Some features of the MES system are enabled or disabled based on data type compatibility with devices in communication with the MES system.

Abstract: An automation control system is provided with an interface device configured to enable a user to monitor, control, or monitor and control processes of the automation control system. Upon power on or initialization of the interface device or when a previously logged in user is logged off, the interface device logs in a guest account associated with a user role having a defined set of access rights and provides access to monitor, control, or monitor and control the processes based upon the set of access rights.

Abstract: An automation control system is provided that includes one or more components. The components include an embedded execution engine that is configured to execute one or more commands based upon data communicated to the one or more components from another component of the automation control system. The data is representative of a change to an object in the control system.

Abstract: A Manufacturing Execution System (MES) is provided for execution of workflows in response to specified business objectives. The MES system can maintain a library of activity sets representing industry-specific workflows that can be selected and executed in order to satisfy business-driven goals. The activity sets can comprise both business-level and control-level operations, and can be configured using an intuitive graphical interface that mitigates the need for low-level programming by the end user. In response to receipt of a request from a business-level system such as an ERP system, the MES system can match the request to an activity set, and subsequently execute the workflow defined by the activity set to facilitate satisfying the request.

Abstract: An automation control system is provided that includes delta scripts that describe one or more changes of the stored state information. The delta scripts may be useful to enable one or more other components of the control system and the one or more other components apply the one or more delta scripts to update state information stored on the one or more other components based upon the one or more changes.

Abstract: An automation control and monitoring system includes an operating system and a data model. The operating system is configured to receive a request for instantiation of an object representing an attribute of the automation control and monitoring system. The operating system is also configured to generate an object identifier when the request for instantiation is received, wherein the object identifier is unique from any other object identifiers employed by the operating system. The data model is configured to store and associate the object with the generated object identifier such that any component of the automation control and monitoring system may access the object by referencing the object identifier.

Abstract: An integrated drive motor (IDM) power distribution architecture utilizes an IDM power interface module (IPIM) to create a control voltage that is distributed to all the IDMs in a network. This power distribution may be accomplished along a hybrid cable, for example, that includes both signal conductors and power conductors. The IPIM is capable of detecting short circuits and/or overload conditions and disabling the power supply to the IDMs. Additionally, a second power supply may be utilized in the IPIM such that when the power supply to the IDMs is deactivated, the IPIM may remain functional, for example, to report one or more fault conditions to the user. Additionally, this reporting of fault status may be accomplished via a user display integrated with or coupled to the IPIM.

Abstract: The present invention provides novel techniques for validating laboratory data values for properties of interest of products produced by a process system. In particular, samples of the product may be sent to a laboratory testing facility, where laboratory testing procedures may be used to obtain the laboratory data values for the property of interest. The laboratory data values may be sent to a control system which includes a laboratory data validation module. The laboratory data validation module may be capable of validating the laboratory data values of the property of interest by comparing the laboratory data values of the property of interest with predicted values generated by a model. The model may be created using inputs such as laboratory and measured data values of the property of interest as well as laboratory and measured data values of other properties of the product.

Abstract: A Manufacturing Execution System (MES) is provided that leverages industry-specific workflows to process business requests. The MES system can maintain activity sets representing industry-specific workflows that can be selected and executed in order to satisfy business-driven goals. The activity sets can comprise both business-level and control-level operations, and can be configured using an intuitive graphical interface that mitigates the need for low-level programming by the end user. Comprehensive functional blocks having combined control, visualization, and reporting configurations can be used to graphically construct workflows that are used by the MES system to coordinate multiple aspects of an enterprise.

Abstract: A method for the computer aided design of human machine interface animated graphical elements is provided. The method includes receiving through a user interface a selection of a graphic comprising a plurality of components in a design format. The method also includes receiving through the user interface an indication that a first component of the plurality of components is static, and an indication that a second component of the plurality of components is dynamic. The method also includes converting the first component from the design format to a static format, and converting the second component from the design format to a dynamic format. The method then exports the graphic with the first component in the static format and the second component in the dynamic format.

Abstract: An Enterprise Resource Planning (ERP) gateway is provided for routing of ERP messages to Manufacturing Execution System (MES) applications. The gateway can receive a message from an ERP system via a manufacturing services bus specifying a business objective requiring action at a control level of an enterprise. The received message can be routed to a selected MES application capable of carrying out the business objective based on attributes within the message. Message routing can be based on location tags contained in the message. The message can also be routed to a selected subset of MES applications based on an analysis of respective capabilities and control contexts of the MES applications. Messages can be routed between the ERP system and the MES applications via the manufacturing services bus, which can manage protocol transformations for a heterogeneous set of applications.

Abstract: A system for manufacturing an industrial automation drive includes a carrier frame configured to hold one or more semiconductor devices for use in the industrial automation drive. The carrier frame includes a set of fasteners disposed around an internal wall of the carrier frame such that each fastener of the set of fasteners includes an angled edge and a horizontal edge. Each fastener of the set of fasteners is configured to toollessly couple a power circuit board having the semiconductor devices to the carrier frame by bending from a first position when the power circuit board is pushed against the angled edge and returning to the first position when the power circuit board is pushed past the horizontal edge.