Abstract: The embodiments described herein include a system and a method. In one embodiment, a system includes a library configured to store reusable executable control information and a substitution information. The system further includes a controller configured to instantiate the reusable executable control information in a memory and to associate the substitution information with a field device.

Abstract: Certain embodiments of the invention may include systems and methods for deploying application code change configurations for multiple target controllers. According to an example embodiment of the invention, a method is provided for updating configurations associated with one or more controllers. The method can include updating one or more library user blocks, associating corresponding user block instances with the one or more library user blocks, and modifying one or more application code configurations associated with the one or more controllers based at least in part on the association.

Abstract: The embodiments described herein include a system and a method. In one embodiment, an industrial process control system includes a processor and a link active scheduler. The link active scheduler is configured to schedule execution of a macrocycle. The macrocycle includes an application timeslot and an asynchronous timeslot. The link active scheduler is further configured to schedule execution of scheduled instructions for a plurality of field devices of the industrial process control system in the application timeslot. The link active scheduler is further configured to schedule execution of unscheduled instructions for the plurality of field devices of the industrial process control system in the asynchronous timeslot. The industrial process control system further includes a macrocycle viewer executable by the processor. The macrocycle viewer is configured to display the macrocycle in a visual format.

Abstract: Systems and methods for block instantiation are provided. In one embodiment, a system includes a processor and a visual instantiation facility executable by the processor. The visual instantiation facility is configured to read a device definition (DD) file including at least one function block and to visually display function block instantiation information of the at least one function block in a visual display. The visual instantiation facility is further configured to instantiate the at least one function block in a field device.

Abstract: A device includes an interface configured to receive an indication of a second device on a network, and a processor configured to determine if the indication is one of an expected set of indications and generate a permanent node address for assignment to the second device if the indication is one of an expected set of indications. The permanent node address places the second device into an active mode as a permanent node addressed device. The processor is further configured to receive at least one device parameter from the permanent node addressed device, determine if the at least one device parameter matches an expected device parameter for the permanent node addressed device, and generate a second permanent node address for assignment to the device if the at least one device parameter matches the expected device parameter for the permanent node addressed device.

Abstract: A method for displaying a control system comprising, receiving a function block diagram file including a function block having an associated logic function, receiving an animation instruction associated with the function block, receiving system data from a system controller, receiving a first graphic associated with the logic function from a function block library, processing the first graphic and the system data according to the animation instruction to render an updated first graphic reflecting the systems data, and displaying the function block and the rendered updated first graphic associated with the logic function.

Abstract: A device includes an interface configured to receive an indication of a second device on a network, and a processor configured to determine if the indication is one of an expected set of indications and generate a permanent node address for assignment to the second device if the indication is one of an expected set of indications. The permanent node address places the second device into an active mode as a permanent node addressed device. The processor is further configured to receive at least one device parameter from the permanent node addressed device, determine if the at least one device parameter matches an expected device parameter for the permanent node addressed device, and generate a second permanent node address for assignment to the device if the at least one device parameter matches the expected device parameter for the permanent node addressed device.

Abstract: The embodiments described herein include a system and a method. In one embodiment, a system includes a library configured to store reusable executable control information and a substitution information. The system further includes a controller configured to instantiate the reusable executable control information in a memory and to associate the substitution information with a field device.

Abstract: Systems and methods for block instantiation are provided. In one embodiment, a system includes a processor and a visual instantiation facility executable by the processor. The visual instantiation facility is configured to read a device definition (DD) file including at least one function block and to visually display function block instantiation information of the at least one function block in a visual display. The visual instantiation facility is further configured to instantiate the at least one function block in a field device.

Abstract: The embodiments described herein include a system and a method. In one embodiment, an industrial process control system includes a processor and a link active scheduler. The link active scheduler is configured to schedule execution of a macrocycle. The macrocycle includes an application timeslot and an asynchronous timeslot. The link active scheduler is further configured to schedule execution of scheduled instructions for a plurality of field devices of the industrial process control system in the application timeslot. The link active scheduler is further configured to schedule execution of unscheduled instructions for the plurality of field devices of the industrial process control system in the asynchronous timeslot. The industrial process control system further includes a macrocycle viewer executable by the processor. The macrocycle viewer is configured to display the macrocycle in a visual format.

Abstract: Certain embodiments of the invention may include systems and methods for deploying application code change configurations for multiple target controllers. According to an example embodiment of the invention, a method for is provided for updating configurations associated with one or more controllers. The method can include updating one or more library user blocks, associating corresponding user block instances with the one or more library user blocks, and modifying one or more application code configurations associated with the one or more controllers based at least in part on the association.

Abstract: A method for displaying a control system comprising, receiving a function block diagram file including a function block having an associated logic function, receiving an animation instruction associated with the function block, receiving system data from a system controller, receiving a first graphic associated with the logic function from a function block library, processing the first graphic and the system data according to the animation instruction to render an updated first graphic reflecting the systems data, and displaying the function block and the rendered updated first graphic associated with the logic function.