Abstract: A photocurable resin composition, the photocurable resin composition comprises a prepolymer, a first photoinitiator, and a second distinct photoinitiator, the prepolymer comprising a repeating unit, the repeating unit comprising a first functional group and a distinct second functional group, the first photoinitiator having a first absorption wavelength, and the second distinct photoinitiator having a second absorption wavelength, the first photoinitiator having a first absorption wavelength to functionalise the first functional group, and the second distinct photoinitiator having a second absorption wavelength to functionalise the second functional group.

Abstract: A resin composition, the resin composition including a prepolymer (209) and optionally one or more diluent(s) (FIG. 3A), the prepolymer (209) including repeating units having at least one carbonate linkage and at least one unsaturated side-chain, the at least one optional diluent(s) comprising at least one unsaturated side-chain, with either or both of the prepolymer (209) and the at least one optional diluent(s) including at least one O=C-N linkage, preferably a urethane linkage.

Abstract: A resin composition, the resin composition comprising a prepolymer (209) and optionally one or more diluent(s) (FIG. 3A), the prepolymer (209) comprising repeating units having at least one carbonate linkage and at least one unsaturated side-chain, the at least one optional diluent(s) comprising at least one unsaturated side-chain, wherein either or both of the prepolymer (209) and the at least one optional diluent(s) comprises at least one O?C—N linkage, preferably a urethane linkage.

Abstract: An oil composition comprises at least 50 percent by mass, based on the mass of the composition, of an oil and 0.01 to 25 percent by mass, based on the mass of the composition, of a polymer comprising at least one poly(lactone) segment. The at least one poly(lactone) segment is derived from a lactone substituted by one or two hydrocarbyl groups, or substituted hydrocarbyl groups, at least one such group having at least 4 carbon atoms. The oil compositions are suitable for use in the lubrication of the crankcase of internal combustion engines.

Abstract: A photocurable resin composition, the photocurable resin composition comprises a prepolymer, a first photoinitiator, and a second distinct photoinitiator, the prepolymer comprising a repeating unit, the repeating unit comprising a first functional group and a distinct second functional group, the first photoinitiator having a first absorption wavelength, and the second distinct photoinitiator having a second absorption wavelength, the first photoinitiator having a first absorption wavelength to functionalise the first functional group, and the second distinct photoinitiator having a second absorption wavelength to functionalise the second functional group.

Abstract: An oil composition comprises at least 50 percent by mass, based on the mass of the composition, of an oil and 0.01 to 25 percent by mass, based on the mass of the composition, of a polymer comprising at least one poly(lactone) segment. The at least one poly(lactone) segment is derived from a lactone substituted by one or two hydrocarbyl groups, or substituted hydrocarbyl groups, at least one such group having at least 4 carbon atoms. The oil compositions are suitable for use in the lubrication of the crankcase of internal combustion engines.

Abstract: A resin composition, the resin composition comprising a prepolymer (209) and optionally one or more diluent(s) (FIG. 3A), the prepolymer (209) comprising repeating units having at least one carbonate linkage and at least one unsaturated side-chain, the at least one optional diluent(s) comprising at least one unsaturated side-chain, wherein either or both of the prepolymer (209) and the at least one optional diluent(s) comprises at least one O?C—N linkage, preferably a urethane linkage.

Abstract: A system and method for deploying one or more graphical programs on a personal digital assistant (PDA). One or more selected graphical programs may be programmatically converted to an executable format that can be executed by the portable computing device. For example, the graphical programs may be initially represented as a plurality of data structures that define or specify the operation of the respective graphical programs, and conversion software program may operate to access these data structures from memory and convert the data structures to an executable format suitable for the portable computing device. The executable may be transferred to the portable computing device for execution.

Abstract: A system and method for enabling a graphical program to receive and respond to programmatic events, such as user interface events. The graphical program may include a graphical user interface having various user interface elements and a block diagram having a plurality of nodes indicating functionality of the graphical program. The graphical program may be configured to receive and respond to one or more user interface events. For each event, a portion of graphical source code (such as a plurality of interconnected nodes) may be included in the block diagram, wherein the portion of graphical source code is operable to receive and respond to the respective user interface event. The portion of graphical source code may be executable to perform a desired process or action in response to the respective event. In one embodiment, a sub-program node may be associated with each event.

Abstract: A system and method for deploying one or more graphical programs on a personal digital assistant (PDA). One or more selected graphical programs may be programmatically converted to an executable format that can be executed by the portable computing device. For example, the graphical programs may be initially represented as a plurality of data structures that define or specify the operation of the respective graphical programs, and conversion software program may operate to access these data structures from memory and convert the data structures to an executable format suitable for the portable computing device. The executable may be transferred to the portable computing device for execution.

Abstract: A system and method for deploying one or more graphical programs on a personal digital assistant (PDA). One or more selected graphical programs may be programmatically converted to an executable format that can be executed by the portable computing device. For example, the graphical programs may be initially represented as a plurality of data structures that define or specify the operation of the respective graphical programs, and conversion software program may operate to access these data structures from memory and convert the data structures to an executable format suitable for the portable computing device. The executable may be transferred to the portable computing device for execution.

Abstract: A system and method for enabling a graphical program to receive and respond to programmatic events, such as user interface events. The graphical program may include a graphical user interface having various user interface elements and a block diagram having a plurality of nodes indicating functionality of the graphical program. The graphical program may be configured to receive and respond to one or more user interface events. For each event, a portion of graphical source code (such as a plurality of interconnected nodes) may be included in the block diagram, wherein the portion of graphical source code is operable to receive and respond to the respective user interface event. The portion of graphical source code may be executable to perform a desired process or action in response to the respective event. In one embodiment, a sub-program node may be associated with each event.

Abstract: A system and method for enabling a graphical program to receive and respond to programmatic events. The graphical program may include a graphical user interface having various user interface elements and a block diagram having a plurality of nodes indicating functionality of the graphical program. The graphical program may be configured to respond to one or more events. For each event, a portion of graphical source code may be operable to receive and respond to a respective event. The portion of graphical source code may be executable to perform a desired process or action in response to the respective event. In one embodiment, a sub-program node may be associated with each event. In another embodiment, an event structure node may be included in the block diagram, wherein the event structure node includes one or more sub-diagrams, each sub-diagram including graphical source code for responding to one or more events.

Abstract: A process control configuration and management system provides a plurality of function blocks representing a plurality of devices in relation to a spatial layout of a facility in which the process control system is implemented. The configuration and management system also provides process control information and process simulation information related to each of the plurality of devices in relation to the spatial layout of the facility. The configuration and management system may be implemented on a handheld device and it may include a geographic positioning system providing geographic positioning data related to the handheld device and various devices in relation to the spatial layout of the facility.

Abstract: A system and method for deploying one or more graphical programs on a personal digital assistant (PDA). One or more selected graphical programs may be programmatically converted to an executable format that can be executed by the portable computing device. For example, the graphical programs may be initially represented as a plurality of data structures that define or specify the operation of the respective graphical programs, and conversion software program may operate to access these data structures from memory and convert the data structures to an executable format suitable for the portable computing device. The executable may be transferred to the portable computing device for execution.

Abstract: A wearable computer for use in a process control environment includes a central processing unit, a memory and a number of other or integral devices such as a display, a microphone, a video camera, a voice recognition unit and a remote communication device that communicates with a host computer. The wearable computer provide information pertaining to one or more devices within a process control system (such as diagnostic information, help information, operator overviews, schematics or process parameter information) via the display. The wearable computer also executes a voice recognition routine that processes a received voice signal to automatically identify user inputs such as commands, process control devices within the field of view of the wearer, device tags, etc. and uses the user inputs to change a display, to alter a process signal, to retrieve device information etc.

Abstract: A system and method for deploying one or more graphical programs on a personal digital assistant (PDA). One or more selected graphical programs may be programmatically converted to an executable format that can be executed by the portable computing device. For example, the graphical programs may be initially represented as a plurality of data structures that define or specify the operation of the respective graphical programs, and conversion software program may operate to access these data structures from memory and convert the data structures to an executable format suitable for the portable computing device. The executable may be transferred to the portable computing device for execution.

Abstract: A system and method for deploying one or more graphical programs on a personal digital assistant (PDA). One or more selected graphical programs may be programmatically converted to an executable format that can be executed by the portable computing device. For example, the graphical programs may be initially represented as a plurality of data structures that define or specify the operation of the respective graphical programs, and conversion software program may operate to access these data structures from memory and convert the data structures to an executable format suitable for the portable computing device. The executable may be transferred to the portable computing device for execution.

Abstract: A system and method for creating a distributed application using graphical programming techniques are disclosed. The distributed application may comprise a first graphical program and a second graphical program, where a host computer system executes the first graphical program, and a plurality of remote computer systems or computing devices each execute an instance of the second graphical program. In some embodiments the first graphical program may utilize a node that represents the second graphical program. The node may be operable to exchange data with a plurality of instances of the second graphical program executing on a plurality of remote devices.