Abstract: A method and apparatus to modify control devices residing on a Fieldbus communications network, without interrupting the operation of the control devices. The control device updating may further be controlled and monitored by a remotely located host that also communicates on the Fieldbus network. The control device may comprise at least two distinct memory areas, wherein at least one memory area must be active, and at least one memory area must be inactive. Active memory areas provide the control device microprocessor operating system with executable instructions or data. The host downloads new executable instructions or data to inactive memory areas, with associated data entry points, during unscheduled communications periods wherein data input/output is not being performed between the control device and the host or another control device.

Abstract: A method and apparatus to modify control devices residing on a Fieldbus communications network, without interrupting the operation of the control devices. The control device updating may further be controlled and monitored by a remotely located host that also communicates on the Fieldbus network. The control device may comprise at least two distinct memory areas, wherein at least one memory area must be active, and at least one memory area must be inactive. Active memory areas provide the control device microprocessor operating system with executable instructions or data. The host downloads new executable instructions or data to inactive memory areas, with associated data entry points, during unscheduled communications periods wherein data input/output is not being performed between the control device and the host or another control 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 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 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: In one general aspect, methods and devices for use with multiple communications protocols automatically determine which communications protocol to use when connected to a system bus. Signals transmitted on the system bus are monitored to determine what communications protocol the system bus is using. After determining which communications protocol the system is using, a compatible communications protocol is selected from one of several communications protocols stored in a device's memory. As a result, a user may connect a device to the system bus without having to determine which communications protocol is used by the system bus. Furthermore, suppliers may stock a single type of device that is compatible with multiple communications protocols reducing overhead associated with stocking devices. In addition, a device may be switched between systems without regard to the communications protocol of the device or system.

Abstract: In one general aspect, methods and devices for use with multiple communications protocols automatically determine which communications protocol to use when connected to a system bus. Signals transmitted on the system bus are monitored to determine what communications protocol the system bus is using. After determining which communications protocol the system is using, a compatible communications protocol is selected from one of several communications protocols stored in a device's memory. As a result, a user may connect a device to the system bus without having to determine which communications protocol is used by the system bus. Furthermore, suppliers may stock a single type of device that is compatible with multiple communications protocols reducing overhead associated with stocking devices. In addition, a device may be switched between systems without regard to the communications protocol of the device or system.

Abstract: A process control instrument includes a sensor/actuator portion and a transmitter portion connected to the sensor/actuator portion. The transmitter portion is operable to communicate with other process variable transmitters through a communication network. The transmitter includes a processing module and a power module operable to generate a power output supplied to at least the transmitter portion, wherein the power module is operable to adjust the power output based on a power control signal. Moreover, the power control signal may be generated by a controller device remote from the process control instrument and communicated to the process control instrument over the communication network. Additionally, the power module includes a power control module for adjusting the power output.

Abstract: In one general aspect, methods and devices for use with multiple communications protocols automatically determine which communications protocol to use when connected to a system bus. Signals transmitted on the system bus are monitored to determine what communications protocol the system bus is using. After determining which communications protocol the system is using, a compatible communications protocol is selected from one of several communications protocols stored in a device's memory. As a result, a user may connect a device to the system bus without having to determine which communications protocol is used by the system bus. Furthermore, suppliers may stock a single type of device that is compatible with multiple communications protocols reducing overhead associated with stocking devices. In addition, a device may be switched between systems without regard to the communications protocol of the device or system.

Abstract: A process control instrument includes a sensor/actuator portion and a transmitter portion connected to the sensor/actuator portion. The transmitter portion is operable to communicate with other process variable transmitters through a communication network. The transmitter includes a processing module and a power module operable to generate a power output supplied to at least the transmitter portion, wherein the power module is operable to adjust the power output based on a power control signal. Moreover, the power control signal may be generated by a controller device remote from the process control instrument and communicated to the process control instrument over the communication network. Additionally, the power module includes a power control module for adjusting the power output.