Abstract: A power control system includes a base having a housing configured for releasably receiving a control unit and a cavity within the housing for receiving a solid state relay having a hockey puck configuration. The base includes an input power terminal for coupling to an input power source, an output power terminal for coupling to a power receiving load, and coupling fixtures for fixedly and electrically coupling to input and output power terminals and control terminals of the received solid state relay. A control unit is configured to control the solid state relay for selectively providing, at least a portion of, the power received at the input power terminal to the output power terminal. The control unit has a housing adapted to be releasably coupled to the base housing. The control unit and base each configured to electrically couple the control unit to the control terminals of the received solid state relay as a function of the control unit being coupled to the base.

Abstract: A power control assembly for use in an integrated power control system has a base with a housing that defines a cavity adapted for receiving a power switch. The control assembly includes a control module configured for generating control signals for controlling the power switch for selectively providing power to a load. A control housing houses the control module and is adapted to be releasably coupled to the base housing and is configured for electrically coupling to control couplers on the base housing for providing the generated control signals to the power switch within the housing cavity upon coupling the control housing to the base housing.

Abstract: A method of diagnosing a temperature sensing system having a temperature sensor, a field processing module coupled to the temperature sensor, a bitbus, a fieldbus, and an auxiliary processing module communicating with the bitbus and the fieldbus. The method includes generating a temperature characteristic at the temperature sensor, processing the temperature characteristic at the field processing module, and generating field operating data including a temperature diagnostic parameter as a function of the temperature characteristic. The method also includes communicating the field operating data including the temperature diagnostic parameter over the bitbus from the field processing module to the auxiliary processing module, generating at the auxiliary processing module auxiliary field data as a function of the received field operating data, and communicating the auxiliary field data over the fieldbus.

Abstract: A distributed operations system having integrated diagnostics, a bitbus and a fieldbus and includes a field device for generating a field operating characteristic and a field processing module for receiving the field operating characteristic from the field device. The field processing module includes a field diagnostic component and a field communication component configured for communication over the bitbus. The field processing module is configured for generating field operating data including a field diagnostic parameter as a function of the field operating characteristic. An auxiliary processing module is configured for communicating with the bitbus and receiving the field operating data. The auxiliary processing module includes an auxiliary diagnostic component and an auxiliary communication component having a fieldbus interface and a gateway component.

Abstract: A method of diagnosing a distributed operational system having a field device, a field processing module coupled to the field device, a bitbus, a fieldbus, and an auxiliary processing module communicating with the bitbus and the fieldbus. The method includes generating a field operating characteristic at the field device, processing the field operating characteristic at the field processing module, and generating field operating data including a field diagnostic parameter as a function of the field operating characteristic. The method also includes communicating the field operating data including the field diagnostic parameter over the bitbus from the field processing module to the auxiliary processing module. The method further includes generating at the auxiliary processing module auxiliary field data as a function of the received field operating data and communicating the auxiliary field data over the fieldbus.

Abstract: A temperature sensing and diagnostics system having a temperature sensor for generating a temperature characteristic and a bitbus includes a field processing module and an auxiliary processing module. The field processing module is adapted for coupling to the temperature sensor and for receiving the temperature characteristic from the temperature sensor. The field processing module includes a field diagnostic component and a field communication component configured for communication over the bitbus and is adapted to generate field operating data including a temperature diagnostic parameter as a function of the temperature characteristic. The auxiliary processing module is configured for communicating with the bitbus and for receiving the field operating data and includes an auxiliary diagnostic component and an auxiliary communication component having a fieldbus interface and a gateway component.

Abstract: An asset management system and method including an asset and a data tag attached to the asset. The data tag includes a data tag memory and a data tag communication interface. The system also includes asset information stored in the data tag memory, wherein the asset information including a characteristic of the asset. Also an asset management method for managing information related to assets. The method includes initializing a data tag with asset information and includes transmitting asset information to the data tag and storing the asset information in a memory of the data tag. The asset information includes service contact information The method also includes retrieving asset information from a data tag.

Abstract: A branch assembly for a communication bus is shown that allows easy connection and removal of devices from the bus. A switch is located within each assembly to direct the bus either from one bus interface directly to a second bus interface or from one bus interface through a branch interface to the second bus interface, as appropriate depending on the presence of device at the branch interface. The switch is integrated into the assembly and is mechanically actuated by the presence or absence of a connector at the branch interface.