Abstract: A predictive control system for automatic operation of a plant includes controllable equipment and a predictive controller. The predictive controller is configured to use a predictive model to predict values of controlled variables predicted to result from operating the controllable equipment in accordance with corresponding values of manipulated variables, use the values of the controlled variables predicted by the predictive model to evaluate an objective function that defines a control objective as a function of at least the controlled variables, perform a predictive optimization process to generate optimal values of the manipulated variables for a plurality of time steps in an optimization period using the predictive model and the objective function, and operate the controllable equipment by providing the controllable equipment with control signals based on the optimal values of the manipulated variables generated by performing the predictive optimization process.

Abstract: A control system for automatic operation of a fluid catalytic cracking unit is shown. The control system includes a reactor severity control device operable to modulate a temperature affecting volume gain within the fluid catalytic cracking unit and a controller. The controller includes a processing circuit configured to calculate the volume gain within the fluid catalytic cracking unit by comparing a volume based on one or more input oil feeds to the fluid catalytic cracking unit to a volume of one or more output oil products of the fluid catalytic cracking unit. The processing circuit is further configured to use a neural network model to generate a target severity predicted to optimize the volume gain within the fluid catalytic cracking unit. The processing circuit is further configured to operate the reactor severity control device using the target severity to modulate the temperature affecting the volume gain within the fluid catalytic cracking unit.

Abstract: A control system for automatic operation of a fluid catalytic cracking unit is shown. The control system includes a reactor severity control device operable to modulate a temperature affecting volume gain within the fluid catalytic cracking unit and a controller. The controller includes a processing circuit configured to calculate the volume gain within the fluid catalytic cracking unit by comparing a volume based on one or more input oil feeds to the fluid catalytic cracking unit to a volume of one or more output oil products of the fluid catalytic cracking unit. The processing circuit is further configured to use a neural network model to generate a target severity predicted to optimize the volume gain within the fluid catalytic cracking unit. The processing circuit is further configured to operate the reactor severity control device using the target severity to modulate the temperature affecting the volume gain within the fluid catalytic cracking unit.

Abstract: A plurality of fabric controllers distributed throughout a fabric attached architecture and each associated with at least one resource node. The plurality of fabric controllers configured to control each associated resource node. Resources of the resource nodes are utilized in virtual environments responsive to respective fabric controllers issuing instructions received from the fabric attached architecture to respective resource nodes.

Abstract: A plurality of fabric controllers distributed throughout a fabric attached architecture and each associated with at least one resource node. The plurality of fabric controllers configured to control each associated resource node. Resources of the resource nodes are utilized in virtual environments responsive to respective fabric controllers issuing instructions received from the fabric attached architecture to respective resource nodes.

Abstract: A plurality of fabric controllers distributed throughout a fabric attached architecture and each associated with at least one resource node. The plurality of fabric controllers configured to control each associated resource node. Resources of the resource nodes are utilized in virtual environments responsive to respective fabric controllers issuing instructions received from the fabric attached architecture to respective resource nodes.

Abstract: A plurality of fabric controllers distributed throughout a fabric attached architecture and each associated with at least one resource node. The plurality of fabric controllers configured to control each associated resource node. Resources of the resource nodes are utilized in virtual environments responsive to respective fabric controllers issuing instructions received from the fabric attached architecture to respective resource nodes.

Abstract: Embodiments of the present disclosure include an optical shuffle box. The optical shuffle box may include a set of optical connector ports and a set of optical fiber pigtails. Each optical fiber pigtail may have a first end and a second end. The second end of each optical fiber pigtail may include an optical connector. Each optical connector port may be communicatively coupled to the first end of two or more optical fiber pigtails.

Abstract: Systems and methods for monitoring printer status in a networked environment are provided. For each of a plurality of printers, a respective server port device is connected to a communication port of a corresponding printer. Each server port device is adapted to receive real-time printer status information from the corresponding printer. A status monitor is provided for receiving the printer status information from one or more of the server port devices. The printer status information is wirelessly broadcast from the respective server port devices to an IP address of the status monitor. The server port device may comprise a User Datagram Protocol (UDP) status processor for converting the printer status information received from the printer in a first format into a second format for broadcast using a UDP protocol.

Abstract: A method and apparatus for heating at least one fluid tank that receives production fluid comprising produced oil and a produced liquid from a hydrocarbon producing well. A layer of liquid is provided in the fluid tank that has a higher specific density and a higher thermal conductivity than the produced oil. The layer of liquid at least partially covers a heat trace positioned in the fluid tank. The heat trace transfers heat to the layer of liquid.

Abstract: Systems and methods for providing customized coupons in a casino gaming environment are provided. A printer resident in a gaming machine is provided and has at least one communication port for communication external to the gaming machine. A coupon layout generator may also be provided for creating customized coupons. A server manager may be provided for distributing the customized coupons to one or more targeted recipients. A server port device may be provided for connecting the server manager to the communication port of the printer and for converting an Ethernet signal from the server manager to a serial signal recognizable by the printer. With such a system, an IP address may be assigned to the server port device. The IP address, together with player identification information, is used by the server manager to determine appropriate coupons for distribution to the gaming machine.

Abstract: A method and apparatus for heating at least one fluid tank that receives production fluid comprising produced oil and a produced liquid from a hydrocarbon producing well. A layer of liquid is provided in the fluid tank that has a higher specific density and a higher thermal conductivity than the produced oil. The layer of liquid at least partially covers a heat trace positioned in the fluid tank. The heat trace transfers heat to the layer of liquid.

Abstract: Systems and methods for providing customized coupons in a casino gaming environment are provided. A printer resident in a gaming machine is provided and has at least one communication port for communication external to the gaming machine. A coupon layout generator may also be provided for creating customized coupons. A server manager may be provided for distributing the customized coupons to one or more targeted recipients. A server port device may be provided for connecting the server manager to the communication port of the printer and for converting an Ethernet signal from the server manager to a serial signal recognizable by the printer. With such a system, an IP address may be assigned to the server port device. The IP address, together with player identification information, is used by the server manager to determine appropriate coupons for distribution to the gaming machine.