Abstract:
A method includes creating a plurality of function blocks. The function blocks are defined by at least one user. The method also includes identifying a plurality of data flows between the function blocks. Each data flow includes at least one of: a flow of data from an output of one of the function blocks and a flow of data into an input of one of the function blocks. The method further includes identifying at least one value for at least one property of one or more of the function blocks. The function blocks, data flows, and at least one property value define a serial interface protocol for communicating over a serial interface. The data flows may be identified by presenting symbols representing the function blocks to the at least one user via a graphical user interface and allowing the at least one user to link inputs and outputs of the symbols.
Abstract:
A setup control unit is configured to get activated via a first computer that is to become a node in the process control system and which activation is initiated by a setup tool being brought to the first computer. The setup control unit contacts a configuration control computer, supplies a setup tool identifier to the configuration control computer, accesses system information elements in the configuration control computer, presents system nodes to an operator using the system information elements, receives an operator selection of a system node, sends the node selection to the configuration control computer for registering, based on a setup tool identifier investigation, receives node parameter data associated with the selected system node from the configuration control computer and supplies the first computer with the node parameter data for making it into the selected system node.
Abstract:
A computer-based database management method permits management of a configuration database associated with one of a plurality of devices. Each device has a variable configuration which includes at least one adjustable parameter. The method includes the steps of selecting a particular device, selecting a particular parameter of the particular device, assigning a particular value for the particular parameter at a particular time, communicating the particular value for the particular parameter to the particular device at the particular time, creating a transaction record, and storing the transaction record in a configuration database. The transaction record includes an identifier uniquely identifying the particular device and further specifies the particular parameter of the particular device, the particular value for the particular parameter, and the particular time at which the particular value is to be applied to the particular parameter.
Abstract:
A control node has a sequence table and subscribers, with the sequence table having data records each having an identification for an action of a manufacturing sequence associated with the control node, an identification for a subscriber carrying out the action and an identification of a parameter set associated with the action, and wherein each subscriber has a sequence interpreter which is designed to read and to interpret the sequence table, and to initiate the actions associated with the subscriber.
Abstract:
There is described a method, to a program and to a system for graphically displaying and projecting at least one network of devices of an automation system, a high density of information usually occurring at the user interface. To allow a user to selectively display devices in a network, in addition to a large quantity of overview information, a solution is proposed in which a user can display individual devices in more detail in an overview. The user can therefore select a device, the instantaneously non-visible details of which he wishes to access, and change the appearance of the device from a not very detailed display to a very detailed display by way of further interaction. This applies to any desired number of devices which can be simultaneously displayed in detail. One advantage is that the network interfaces of devices may also be displayed which cannot be displayed with all network interfaces in the overview without the user being forced to have to change to a different, detail-oriented view.
Abstract:
An interface control for use in a field device management system coupled to a set of smart field devices automatically performs functions related to communication between a device, a database and a user of the management system and functions related to interfacing with a user in a manner which is transparent to the software application running on the management system. The control monitors a device, or a block or a parameter of a device, displays information pertaining to the device, block or parameter to a user, receives information pertaining to such device, block, or parameter from a user and the device, automatically updates the displayed information, and implements changes to the device block or parameter specified by the user. A timeline control specifies a time at which past, present or future configurations of devices, blocks, parameters, or other data associated with one or more devices is to be displayed.
Abstract:
There is described a method, to a program and to a system for graphically displaying and projecting at least one network of devices of an automation system, a high density of information usually occurring at the user interface. To allow a user to selectively display devices in a network, in addition to a large quantity of overview information, a solution is proposed in which a user can display individual devices in more detail in an overview. The user can therefore select a device, the instantaneously non-visible details of which he wishes to access, and change the appearance of the device from a not very detailed display to a very detailed display by way of further interaction. This applies to any desired number of devices which can be simultaneously displayed in detail. One advantage is that the network interfaces of devices may also be displayed which cannot be displayed with all network interfaces in the overview without the user being forced to have to change to a different, detail-oriented view.
Abstract:
A field device management system includes an interface which provides communication between a software application implemented on the system and a set of smart field devices coupled to the system. The interface accesses information from and/or writes information to the smart field devices, a database and device descriptions associated with the smart field devices to provide a consistent communication connection with such devices, database and device descriptions, irrespective of the types of smart field devices connected to the system. The interface is based on a predefined hierarchy of categories of information defining the device data associated with the smart field devices, and is implemented using an OLE object for each of the predefined categories of information. In particular, each OLE object stores device data associated with one of the predefined categories of information and includes instructions for communicating with one of the smart field devices, one of the device descriptions and/or the database to effect a command related to the stored device data.
Abstract:
A field device management system communicates with a smart device using a device description written in a communication protocol associated with the smart device and accesses data pertaining to a conventional or non-smart field device using a device description written in conformance with the smart device communication protocol. The field device management system uses the device description for the conventional device to initially request certain data pertaining to the conventional device from a user and then stores this data in a memory for future access.
Abstract:
A setup control unit is configured to get activated via a first computer that is to become a node in the process control system and which activation is initiated by a setup tool being brought to the first computer. The setup control unit contacts a configuration control computer, supplies a setup tool identifier to the configuration control computer, accesses system information elements in the configuration control computer, presents system nodes to an operator using the system information elements, receives an operator selection of a system node, sends the node selection to the configuration control computer for registering, based on a setup tool identifier investigation, receives node parameter data associated with the selected system node from the configuration control computer and supplies the first computer with the node parameter data for making it into the selected system node.