Abstract: A method and user interfaces are described herein installing a field device as a replacement for a previously installed field device of a same type in a process control system. The disclosed method includes initially specifying a device type commissioning definition that includes a set of device-type specific parameters. A first set of instance-specific configuration parameter values are then stored for a first field device. When replacing the first field device by a second field device of the same type on a process control network, the commissioning definition and the previously stored parameters for the first device are used to automatically configure the second device.

Abstract: A customization tool is described in association with a universal device type manager (DTM) utility. The customization tool includes a set of user interfaces and associated functionality that facilitates creating a set of customized templates for a particular device type. The customized templates define access to device data via graphical user interfaces supported by the universal DTM utility and/or universal BTM utility for instances of the device type.

Abstract: A compare tool for use in a process control system device configuration environment is described herein. The compare tool, including a graphical user interface for providing comparison results, is utilized in a device configuration environment to compare parameter values from an instance of a field device to corresponding values maintained within an application database. After performing the comparison the utility displays the results on a user interface. More particularly the parameter names and associated values are presented in three columns of the user interface. A first column identifies a parameter within the field device. A second column identifies a previously archived value for the parameter identified in the first column, and a third column identifies a current value, captured from a device instance, corresponding to the parameter identified in the first column.

Abstract: A device management utility is described that includes a generalized graphical user interface facilitating access to a variety of resources associated with selected device types. In particular, the utility includes information interfaces communicatively linking the utility of a variety of data sources. In addition, the utility includes a graphical user interface display providing a variety of information associated with a selected device type. Such information includes device identification information, links to supplemental resources, and a set of screen selection controls for exposing multiple functional modes of operation of the device management utility.

Abstract: A universal device type manager (DTM) utility is described herein including a generalized architecture facilitating defining and generating user interfaces associated with a variety of field device types. The utility includes a device description data store interface that provides access to a device description store wherein standard device descriptions (DD files) for a variety of field device types are maintained. No specialized customization is done to the device descriptions by the device or tool vendors. A device type template store interface provides access to a set of device type manager definitions. A device type manager engine renders, on-demand, a device type manager user interface providing user access to parameters and other information for a field device type/instance based upon: (1) a device description and (2) a device type manager definition.

Abstract: A distributed control system architecture (HSE) provides an open, interoperable solution optimized for integration of distributed control systems and other control devices in a high performance backbone, provides an open, interoperable solution that provides system time synchronization suitable for distributed control applications operable over a high performance backbone, and provides an open, interoperable solution that provides a fault tolerant high performance backbone as well as fault tolerant devices that are connected to the backbone. The distributed control system architecture comprises a High speed Ethernet Field Device Access (HSE FDA) Agent, which maps services of a distributed control system, e.g., a fieldbus System, to and from a standard, commercial off-the-shelf (COTS) Ethernet/Internet component.

Abstract: A distributed control system architecture (HSE) provides an open, interoperable solution optimized for integration of distributed control systems and other control devices in a high performance backbone, provides an open, interoperable solution that provides system time synchronization suitable for distributed control applications operable over a high performance backbone, and provides an open, interoperable solution that provides a fault tolerant high performance backbone as well as fault tolerant devices that are connected to the backbone. The distributed control system architecture comprises a High speed Ethernet Field Device Access (HSE FDA) Agent, which maps services of a distributed control system, e.g., a fieldbus System, to and from a standard, commercial off-the-shelf (COTS) Ethernet/Internet component.