Abstract: An industrial controller that controls operation of an industrial system. The industrial controller comprises a processor and a memory storing instruction, wherein the instructions cause the processor to perform certain functions. In particular, the instructions cause the processor to communicate high speed data in a first industrial protocol between the industrial controller and a high speed device during a first frame section but not during a second frame section of a controller frame of the industrial controller and communicate linking device data in a second industrial protocol between the industrial controller and a linking device during the second frame section but not during the first frame section or during the third frame section of the controller frame.

Abstract: Various embodiments include a system having: at least one computing device configured to perform actions including: measuring at least one of the following parameters: a steam pressure within a steam drum, a load on a GT, a position of a bypass valve bypassing an HRSG, and a steam flow rate through the steam drum; defining a threshold range for each of: a steam pressure within the steam drum, a load on the GT, a position of the bypass valve bypassing the HRSG and a steam flow rate through the steam drum based upon the measured data and a target steam level; and adjusting the steam flow rate through the steam drum in response to at least one of the measured parameters deviating from the corresponding threshold range.

Abstract: An industrial controller that controls operation of an industrial system. The industrial controller comprises a processor and a memory storing instruction, wherein the instructions cause the processor to perform certain functions. In particular, the instructions cause the processor to communicate high speed data in a first industrial protocol between the industrial controller and a high speed device during a first frame section but not during a second frame section of a controller frame of the industrial controller and communicate linking device data in a second industrial protocol between the industrial controller and a linking device during the second frame section but not during the first frame section or during the third frame section of the controller frame.

Abstract: Approaches for redundant control for at least one active controller configured to perform a plurality of functions and communicate with a plurality of components over a communications network in a multi-controller system is provided. The redundant controller is configured to perform a plurality of functions which are identical to the plurality of functions being performed at the active controller and determine whether a failure of the active controller has occurred. Upon determining that a failure of the active controller has occurred, the redundant controller assumes assuming the role of the active controller such that it performs the functions that are identical to the functions being performed at the active controller and communicates with the components over the communications network.

Abstract: Various embodiments include a system having: at least one computing device configured to perform actions including: measuring at least one of the following parameters: a steam pressure within a steam drum, a load on a GT, a position of a bypass valve bypassing an HRSG, and a steam flow rate through the steam drum; defining a threshold range for each of: a steam pressure within the steam drum, a load on the GT, a position of the bypass valve bypassing the HRSG and a steam flow rate through the steam drum based upon the measured data and a target steam level; and adjusting the steam flow rate through the steam drum in response to at least one of the measured parameters deviating from the corresponding threshold range.

Abstract: Disclosed herein are systems and methods method of verifying the configuration of an overspeed system for a shaft. The method comprises determining a first rotational speed of a shaft using an overspeed system. The overspeed system comprises a toothed wheel that rotates in relation to the rotational speed of the shaft. The method further comprises determining a second rotational speed of the shaft using a vibration sensing system for monitoring vibration of the shaft. The method further comprises comparing the first rotational speed of the shaft and the second rotational speed of the shaft to verify a configuration of the overspeed system.

Abstract: The embodiments described herein include a system, non-transitory tangible computer-readable medium including executable code, and a method. In one embodiment, a non-transitory tangible computer-readable medium including executable code is provided. The executable code includes instructions for providing a batch commissioning system configured to operatively couple at least two field devices to a control system, and for providing a batch decommissioning system configured to operatively uncouple the at least two field devices from the control system. The executable code further includes instructions for providing a graphical user interface (GUI) configured to use the batch commissioning system, the batch decommissioning system, or a combination thereof, to select, on a display, the at least two field devices, and to communicatively interface with the control system to operatively couple, uncouple, or a combination thereof, the at least two field device from the control system.

Abstract: A method of controlling a water level in a steam drum includes predicting a transient in the steam drum based on plant characteristics including steam flow from the steam drum, drum pressure in the steam drum, and one or both of a gas turbine load and a position of a bypass valve configured to control the steam flow from the steam drum to two or more steam flow conduits. The method further includes generating a sliding setpoint to control the water level based on predicting the transient in the steam drum.

Abstract: The embodiments described herein include a system and a method. In one embodiment, a system includes an industrial controller configured to control a first field device. The first field device includes an actuator and a positioner coupled to the actuator. The positioner is configured to position the actuator. The first field device is configured to detect an undesired condition and to communicate the undesired condition to the industrial controller by using a ReadBack facility of the first field device.

Abstract: A method of controlling a water level in a steam drum includes predicting a transient in the steam drum based on plant characteristics including steam flow from the steam drum, drum pressure in the steam drum, and one or both of a gas turbine load and a position of a bypass valve configured to control the steam flow from the steam drum to two or more steam flow conduits. The method further includes generating a sliding setpoint to control the water level based on predicting the transient in the steam drum.

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: The embodiments described herein include a system, non-transitory tangible computer-readable medium including executable code, and a method. In one embodiment, a non-transitory tangible computer-readable medium including executable code is provided. The executable code includes instructions for providing a batch commissioning system configured to operatively couple at least two field devices to a control system, and for providing a batch decommissioning system configured to operatively uncouple the at least two field devices from the control system. The executable code further includes instructions for providing a graphical user interface (GUI) configured to use the batch commissioning system, the batch decommissioning system, or a combination thereof, to select, on a display, the at least two field devices, and to communicatively interface with the control system to operatively couple, uncouple, or a combination thereof, the at least two field device from the control system.

Abstract: The embodiments described herein include a system and a method. In one embodiment, a system includes an industrial controller configured to control a first field device. The first field device includes an actuator and a positioner coupled to the actuator. The positioner is configured to position the actuator. The first field device is configured to detect an undesired condition and to communicate the undesired condition to the industrial controller by using a ReadBack facility of the first 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 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 neutron monitoring system uses a gamma thermometer to calibrate a nuclear instrument to ensure more accurate neutron flux measurements in a nuclear reactor core. The nuclear instrument generates a first signal proportional to a measured local neutron flux. The gamma thermometer generates a second signal proportional to a measured local gamma flux. A processor is used to compensate the second signal by filtering groups of delayed gamma sources to a reduced number of specific groups of delayed gamma sources. A third signal is calculated based upon yield fractions and time constants that are determined for the specific groups of delayed gamma sources. A gain of the nuclear instrument is calibrated based on a compensated second signal that is determined by subtracting the third signal from the second signal.

Abstract: Control systems and methods for controlling certain systems, devices, and apparatus are described. A control system may include a memory and at least one processor. The memory may be operable to store both a Foundation Fieldbus protocol that facilitates communication with one or more Foundation Fieldbus devices and a second protocol that facilitates communication with one or more control devices. The at least one processor may be operable to access both the Foundation Fieldbus protocol and the second protocol, and to control the one or more Foundation Fieldbus devices and the one or more control devices. A network may facilitate communications between the at least one processor and both the one or more Foundation Fieldbus devices using the Foundation Fieldbus protocol and the one or more control devices using the second protocol.

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: A method of calibrating a nuclear instrument using a gamma thermometer may include: measuring, in the instrument, local neutron flux; generating, from the instrument, a first signal proportional to the neutron flux; measuring, in the gamma thermometer, local gamma flux; generating, from the gamma thermometer, a second signal proportional to the gamma flux; compensating the second signal; and calibrating a gain of the instrument based on the compensated second signal. Compensating the second signal may include: calculating selected yield fractions for specific groups of delayed gamma sources; calculating time constants for the specific groups; calculating a third signal that corresponds to delayed local gamma flux based on the selected yield fractions and time constants; and calculating the compensated second signal by subtracting the third signal from the second signal. The specific groups may have decay time constants greater than 5×10?1 seconds and less than 5×105 seconds.

Abstract: Control systems and methods for controlling certain systems, devices, and apparatus are described. A control system may include a memory and at least one processor. The memory may be operable to store both a Foundation Fieldbus protocol that facilitates communication with one or more Foundation Fieldbus devices and a second protocol that facilitates communication with one or more control devices. The at least one processor may be operable to access both the Foundation Fieldbus protocol and the second protocol, and to control the one or more Foundation Fieldbus devices and the one or more control devices. A network may facilitate communications between the at least one processor and both the one or more Foundation Fieldbus devices using the Foundation Fieldbus protocol and the one or more control devices using the second protocol.