Abstract: One example includes a radar image interface system. The system includes an image processor configured to receive synthetic aperture radar (SAR) image data associated with a region of interest and to generate a radar image of the region of interest based on the SAR image data. The image processor can be further configured to divide the radar image into a plurality of sequential units corresponding to respective zones of the region of interest. The system also includes a display system configured to display zoomed sequential units corresponding to respective zoomed versions of the sequential units of the radar image to a user. The system further includes an input interface configured to facilitate sequentially indexing through each of the zoomed versions of the sequential units on the display system in response to an indexing input provided by the user.

Abstract: Produced water from a crude oil or natural gas production process is purified using a membrane purification system for petroleum production, agricultural, commercial and domestic uses. The produced water is pretreated to remove, at least, particulates and oil from the produced water. The minimally pretreated water is then purified in a membrane purification system, that is operated at conditions such that membrane scaling is reduced or prevented. In particular, the membrane purification system is operated to maintain the turbidity of clarified water feed to the system or intermediate aqueous streams that are cascading through the membrane purification system. Ensuring that the turbidity of the reject streams generated in the membrane system are useful in achieving long membrane operating life.

Abstract: The low-energy water reclamation process consists of evaporation from water sources, followed by capturing, condensing and reusing the water released into the atmosphere from both the evaporation process and by plant transpiration. 95% to 99% of water from plant transpiration is lost by venting to the atmosphere. We capture that water, and reuse it, to grow food or provide potable water. Reclaiming and reusing the evaporated water reduces both the amount of new water required for plant growth or potable water production, and also reduces the total energy requirement for the process. Over a large growing area, we expect to reclaim a significant amount of transpired water, which will reduce the need for new water to grow food and/or provide pure unpolluted potable water, at lower total cost.

Abstract: This invention describes a process to migrate from an insecure, expensive proprietary IT infrastructure to a more secure, and inexpensive open source IT infrastructure. Design objectives include, Elimination of Computer Skilled on-site personnel, Elimination of licensing costs for proprietary software, Use of inexpensive commodity hardware platforms, and access to data solely through a “Remote Desktop” display screen (output) and keyboard (input).

Abstract: A data aggregation system comprises an aggregation server. The aggregation server receives from a Human-Machine Interface (HMI) graphics data comprising a graphical representation of a portion of an industrial automation environment over an enterprise network, receives operation data associated with an operation of the industrial automation environment over the enterprise network, and receives a request for a viewing session from a plurality of communication devices over a communication network. In response to the request, the aggregation server transfers the graphics data over the communication network to the plurality of communication devices. In response to the request, the aggregation server transfers the operation data over the communication network to the plurality of communication devices.

Abstract: A Human-Machine Interface (HMI) system provides graphical displays to communication devices. The HMI system processes status data from machine systems to generate display data for the graphical displays. The HMI system receives selection information indicating one of the communication devices and one of the graphical displays. In response, the HMI system retrieves display parameters for the selected communication device and retrieves the display data for the selected graphical display. The HMI system processes the display data and the display parameters to display a first model of the selected communication device rendering the selected graphical display. The HMI system allows the user to modify the graphical display and view a second model of the communication device rendering the modified graphical display.

Abstract: Produced water from a crude oil or natural gas production process is purified using a membrane purification system for petroleum production, agricultural, commercial and domestic uses. The produced water is pretreated to remove, at least, particulates and oil from the produced water. The minimally pretreated water is then purified in a membrane purification system, that is operated at conditions such that membrane scaling is reduced or prevented. In particular, the membrane purification system is operated to maintain the turbidity of clarified water feed to the system or intermediate aqueous streams that are cascading through the membrane purification system. Ensuring that the turbidity of the reject streams generated in the membrane system are useful in achieving long membrane operating life.

Abstract: Produced water from a crude oil or natural gas production process is purified using a membrane purification system for petroleum production, agricultural, commercial and domestic uses. The produced water is pretreated to remove, at least, particulates and oil from the produced water. The minimally pretreated water is then purified in a membrane purification system that is operated at conditions such that membrane scaling is reduced or prevented. In particular, the membrane purification system is operated to maintain the turbidity of clarified water feed to the system or intermediate aqueous streams that are cascading through the membrane purification system. Ensuring that the turbidity of the reject streams generated in the membrane system are useful in achieving long membrane operating life.

Abstract: A method is disclosed for improving the percent recovery and water quality in water with high levels of hardness. Embodiments of the method include receiving a produced water composition, partially softening the water composition, and directing the partially softened water composition through at least one reverse osmosis unit. The method may be used to purify and clarify produced water from oil and gas operations for use in boilers or once-through steam generators.

Abstract: A method for the conversion of graphical representations of automation environments is provided. The method includes receiving first graphics data in a first format comprising a first graphical representation of a first portion of an automation environment. The method also includes processing the first graphics data to convert the first graphics data to second graphics data in a second format. The method further includes receiving performance data associated with the operation of the first portion of the automation environment, and transferring the performance data and the second graphics data to a client device, for incorporation of the performance data into the second graphics data by the client device.

Abstract: A method is disclosed for enhancing the separation of oil-water micellar emulsion, such as those found in production fluid. Specifically, an embodiment of the invention is separating oil and water phases in recovered production fluid by adding an ionic salt such as sodium chloride, calcium chloride, sodium carbonate, sodium bicarbonate, and/or a high-molecular weight alcohol, such as 2-ethyl hexanol or decanol, to the production fluid. The production fluid may include fluids produced from an enhanced oil recovery method.

Abstract: A method for the conversion of graphical representations of automation environments is provided. The method includes receiving first graphics data in a first format comprising a first graphical representation of a first portion of an automation environment. The method also includes processing the first graphics data to convert the first graphics data to second graphics data in a second format. The method further includes receiving performance data associated with the operation of the first portion of the automation environment, and transferring the performance data and the second graphics data to a client device, for incorporation of the performance data into the second graphics data by the client device.

Abstract: A human-machine interface system for an industrial automation environment is provided. The human-machine interface system includes a communication interface configured to receive machine data from an aggregation server, a user interface configured to display graphical data to a user, and a processor coupled to the communication interface and the user interface. The processor is configured to process the machine data to produce first graphical data including a first human-machine interface including one or more tabs, transmit the first graphical data to the user interface for display, and detect a pointer indicating an interest over one of the one or more tabs. The processor is also configured to process the machine data to produce second graphical data including the first human-machine interface including an open drawer corresponding to the one of the one or more tabs, and transmit the second graphical data to the user interface for display.

Abstract: A method for the conversion of graphical representations of automation environments is provided. The method includes receiving first graphics data in a first format comprising a first graphical representation of a first portion of an automation environment, processing the first graphics data to convert the first graphics data to second graphics data in a second format, where the second graphics data comprises a second graphical representation of the first portion of the automation environment, and transferring the second graphics data for delivery to and display on a client device.

Abstract: A human-machine-interface (HMI) system comprises a machine interface, a communication interface, and a processing system. The machine interface receives operation data from a plurality of machines within an industrial automation environment, wherein the operation data corresponds to operations of the plurality of machines. The communication interface receives a request for a remote viewing session from a communication device, and in response to the request, transfers graphics data and the operation data for delivery to and display by the communication device. The processing system monitors for changes to the graphics data and the operation data during the remote viewing session. The communication, upon a change occurring to the graphics data, transfers updated graphics data for delivery to and display by the communication device, and upon a change occurring to the operation data, transfers updated operation data for delivery to and display by the communication device.

Abstract: A method for remote monitoring of real-time information is provided. In the method, a representation is displayed of each of a plurality of items configured to generate the real-time information. Also displayed is a representation of each of a plurality of destinations configured to receive the real-time information. The real-time information is received from the items. A command is received which selects one of the items and one of the destinations. After receiving the command, at least a portion of the real-time information received from the selected item is transmitted to the selected destination.

Abstract: Within an industrial automation environment, a human-machine interface (HMI) is provided comprising a HMI computer, a display electrically coupled with the computer, and a controller wirelessly coupled with the computer. The controller is configured to detect motion of the controller, and wirelessly transmit motion data related to the motion of the controller to the HMI computer. The HMI computer is configured to receive industrial automation data, wirelessly receive motion data from the controller, process the motion data into control data, and select a first set of industrial automation data for display in response to the control data.

Abstract: A method for remote monitoring of real-time information is provided. In the method, a representation is displayed of each of a plurality of items configured to generate the real-time information. Also displayed is a representation of each of a plurality of destinations configured to receive the real-time information. The real-time information is received from the items. A command is received which selects one of the items and one of the destinations. After receiving the command, at least a portion of the real-time information received from the selected item is transmitted to the selected destination.

Abstract: A human-machine-interface (HMI) system comprises a machine interface, a communication interface, and a processing system. The machine interface receives operation data from a plurality of machines within an industrial automation environment, wherein the operation data corresponds to operations of the plurality of machines. The communication interface receives a request for a remote viewing session from a communication device, and in response to the request, transfers graphics data and the operation data for delivery to and display by the communication device. The processing system monitors for changes to the graphics data and the operation data during the remote viewing session. The communication, upon a change occurring to the graphics data, transfers updated graphics data for delivery to and display by the communication device, and upon a change occurring to the operation data, transfers updated operation data for delivery to and display by the communication device.

Abstract: A method for remote monitoring of real-time information is provided. In the method, a representation is displayed of each of a plurality of items configured to generate the real-time information. Also displayed is a representation of each of a plurality of destinations configured to receive the real-time information. The real-time information is received from the items. A command is received which selects one of the items and one of the destinations. After receiving the command, at least a portion of the real-time information received from the selected item is transmitted to the selected destination.