mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a supercritical closed loop thermodynamic power generation cycle system, the method comprising: delivering an exhaust stream from a high-pressure expander ; splitting the exhaust stream from the high-pressure expander to a first exhaust stream and a second exhaust stream ; directing the first exhaust stream to a first low-pressure expander , wherein the first low-pressure expander is coupled to a pressurization device through a turbocompressor shaft ; directing the second exhaust stream to a second low-pressure expander , wherein the second low-pressure expander is coupled to the high-pressure expander and an electrical generator through a turbogenerator shaft ; and delivering a pressurized fluid stream above a critical point of the fluid from the pressurization device and providing the pressurized fluid stream to the high-pressure expander , further comprising heating the exhaust stream before splitting the exhaust stream to the first exhaust stream and the second exhaust stream and heating the pressurized fluid stream with one or more heat exchangers and a heat source before supplying the pressurized fluid stream to the high-pressure expander , wherein splitting the exhaust stream from the high pressure expander comprises controling a flow ratio of the first exhaust stream to the second exhaust stream . delivering an exhaust stream from a high-pressure expander ; splitting the exhaust stream from the high-pressure expander to a first exhaust stream and a second exhaust stream ; directing the first exhaust stream to a first low-pressure expander , wherein the first low-pressure expander is coupled to a pressurization device through a turbocompressor shaft ; directing the second exhaust stream to a second low-pressure expander , wherein the second low-pressure expander is coupled to the high-pressure expander and an electrical generator through a turbogenerator shaft ; and delivering a pressurized fluid stream above a critical point of the fluid from the pressurization device and providing the pressurized fluid stream to the high-pressure expander , further comprising heating the exhaust stream before splitting the exhaust stream to the first exhaust stream and the second exhaust stream and heating the pressurized fluid stream with one or more heat exchangers and a heat source before supplying the pressurized fluid stream to the high-pressure expander , wherein splitting the exhaust stream from the high pressure expander comprises controling a flow ratio of the first exhaust stream to the second exhaust stream .
A computer-implemented method for a static analysis system, the method comprising: receiving a request to extract source code that is built by a build system ; setting, in an execution environment of the build system , a first environment variable that specifies a custom agent to be executed in the execution environment of the build system , wherein the first environment variable can cause the build of the source of the source code to fail and wherein the custom agent is a class loaded at run-time that causes calls to default functions of the build system , comprising a create virtual machine, VM, function, to be replaced by custom functions provided by a static analysis system, wherein the default create VM function is a function that the build system calls to invoke a virtual machine; intercepting, by the custom create VM function , a request by the build system to create a virtual machine using a default create VM function ; removing, by the custom create VM function , the first environment variable from the execution environment of the build system ; and executing, by the custom create VM function , the default create VM function to invoke a VM having the custom agent loadable without the execution environment having the first environment variable being set; intercepting, by the custom agent of the VM, a request by the build system to build one or more source code files; and extracting, by the custom agent , source code of the one or more source code files. receiving a request to extract source code that is built by a build system ; setting, in an execution environment of the build system , a first environment variable that specifies a custom agent to be executed in the execution environment of the build system , wherein the first environment variable can cause the build of the source of the source code to fail and wherein the custom agent is a class loaded at run-time that causes calls to default functions of the build system , comprising a create virtual machine, VM, function, to be replaced by custom functions provided by a static analysis system, wherein the default create VM function is a function that the build system calls to invoke a virtual machine; intercepting, by the custom create VM function , a request by the build system to create a virtual machine using a default create VM function ; removing, by the custom create VM function , the first environment variable from the execution environment of the build system ; and executing, by the custom create VM function , the default create VM function to invoke a VM having the custom agent loadable without the execution environment having the first environment variable being set; intercepting, by the custom agent of the VM, a request by the build system to build one or more source code files; and extracting, by the custom agent , source code of the one or more source code files.
A method of identifying nodes in a communications network for use in locating wireless terminals within the communications network based upon reports, from the wireless terminals, of transmissions received from the nodes, the method comprising: prioritising combinations of nodes in which at least three nodes are located around a reference node in a configuration satisfying similarity criteria to an idealised star configuration, wherein the idealised star configuration comprises the at least three nodes evenly angularly distributed around, and at the same distance from, the reference node, wherein, if the combinations of nodes contain N nodes, a minimum number of n reports are identified, where n = (N-1) / (N-3), and wherein, for each of the identified reports and for each pair of nodes in the combinations of nodes, a difference in reported reference time of transmissions from two nodes of a pair is represented as sum of the time required for a wireless signal to travel the difference in distance between a wireless terminal generating the identified report and the two nodes of the pair, and the difference in emission time of the transmissions from the two nodes of the pair. the time required for a wireless signal to travel the difference in distance between a wireless terminal generating the identified report and the two nodes of the pair, and the difference in emission time of the transmissions from the two nodes of the pair.
A heat exchanging device for exchanging heat from a first fluid to a second fluid, said heat exchange device comprising: a first conduit for conveying the first fluid in a first flow direction, said first conduit including a double wall construction with an inner wall and outer wall, said outer wall positioned concentrically radially outwardly from the inner wall and fixed thereto defining a plurality of leak channels there between; a second conduit for conveying the second fluid in a second flow direction, said second conduit including at least a portion of an outer surface of the outer wall of the first conduit providing thermal contact between the second fluid in the second conduit and the first fluid in the first conduit to exchange heat between the first fluid in the first conduit and the second fluid in the second conduit; the heat exchange device being characterized by said channels extending longitudinally along the first conduit in the first flow direction and by one or more of the plurality of leak channels extending beyond the second conduit so that in case of the first fluid breaching the inner wall without necessarily breaching the outer wall, and, the second fluid breaching the outer wall without necessarily breaching the inner wall, results in leak fluid, constituted by any first fluid that has breached the inner wall, or, any second fluid that has breached the outer wall, entering one or more of the plurality of leak channels, said leak fluid will be conveyed axially along the first conduit in said one or more of the plurality of leak channels axially beyond the second conduit to facilitate detection. a first conduit for conveying the first fluid in a first flow direction, said first conduit including a double wall construction with an inner wall and outer wall, said outer wall positioned concentrically radially outwardly from the inner wall and fixed thereto defining a plurality of leak channels there between; a second conduit for conveying the second fluid in a second flow direction, said second conduit including at least a portion of an outer surface of the outer wall of the first conduit providing thermal contact between the second fluid in the second conduit and the first fluid in the first conduit to exchange heat between the first fluid in the first conduit and the second fluid in the second conduit; the heat exchange device being characterized by said channels extending longitudinally along the first conduit in the first flow direction and by one or more of the plurality of leak channels extending beyond the second conduit so that in case of the first fluid breaching the inner wall without necessarily breaching the outer wall, and, the second fluid breaching the outer wall without necessarily breaching the inner wall, results in leak fluid, constituted by any first fluid that has breached the inner wall, or, any second fluid that has breached the outer wall, entering one or more of the plurality of leak channels, said leak fluid will be conveyed axially along the first conduit in said one or more of the plurality of leak channels axially beyond the second conduit to facilitate detection.
A controller for adjusting the speed of a turbine , the controller comprising: an input to receive information relating to the current operating conditions of a turbine at a given fluid flow from an engine; an analyser to determine the optimum rotational speed of the turbine based on the information received by the input; and an output configured to supply a correction signal to the turbine, characterised in that the correction signal alters a load applied to the turbine to increase or decrease the rotational speed of the turbine independent of the given fluid flow to match the optimum rotational speed of the turbine.
A cooling system for a turbine engine , comprising: a compressor formed from a plurality of stages positioned within a compressor chamber , each of the plurality of stages includes a set of radially extending compressor blades ; and at least one mid-frame cooling channel extending from an inlet through at least one mid-frame torque disc positioned downstream of the compressor and upstream of a turbine assembly , wherein the at least one mid-frame torque disc is formed from a torque disc rim positioned radially outward of a torque disc hub , wherein the torque disc rim and the torque disc hub are separated by a torque disc web having an axially extending width that is less than both the torque disc rim and the torque disc hub , wherein the at least one mid-frame cooling channel is positioned in the torque disc rim , and wherein the at least one mid-frame cooling channel extends axially through the at least one mid-frame torque disc within a radially outwardmost 50 percent of the at least one mid-frame torque disc , further comprising an outlet section in communication with an outlet of the cooling system , wherein the outlet section is positioned immediately upstream from the outlet , wherein the outlet section is non-parallel and non-orthogonal to a longitudinal axis of the turbine engine and positioned against a rotating direction of the turbine engine to create deswirling action for minimum pressure drop. a compressor formed from a plurality of stages positioned within a compressor chamber , each of the plurality of stages includes a set of radially extending compressor blades ; and at least one mid-frame cooling channel extending from an inlet through at least one mid-frame torque disc positioned downstream of the compressor and upstream of a turbine assembly , wherein the at least one mid-frame torque disc is formed from a torque disc rim positioned radially outward of a torque disc hub , wherein the torque disc rim and the torque disc hub are separated by a torque disc web having an axially extending width that is less than both the torque disc rim and the torque disc hub , wherein the at least one mid-frame cooling channel is positioned in the torque disc rim , and wherein the at least one mid-frame cooling channel extends axially through the at least one mid-frame torque disc within a radially outwardmost 50 percent of the at least one mid-frame torque disc , further comprising an outlet section in communication with an outlet of the cooling system , wherein the outlet section is positioned immediately upstream from the outlet , wherein the outlet section is non-parallel and non-orthogonal to a longitudinal axis of the turbine engine and positioned against a rotating direction of the turbine engine to create deswirling action for minimum pressure drop.
An actuator assembly configured to adjust a viewing axis of a vehicle mirror, the assembly comprising: a toggle switch ; a pivot plate rotationally coupled to the toggle switch proximate a first axis; a support bracket rotationally coupled to the pivot plate along a second axis and rotationally coupled to the toggle switch along the first axis, wherein the support bracket is configured to support the vehicle mirror, and wherein a rotation of the toggle switch is configured to move the pivot plate relative to the support bracket to adjust a viewing angle of the vehicle mirror; and characterized by a damper coupled to the toggle switch and the support bracket , wherein the damper is configured to dampen a rotation of the toggle switch about the first axis relative to the support bracket . a toggle switch ; a pivot plate rotationally coupled to the toggle switch proximate a first axis; a support bracket rotationally coupled to the pivot plate along a second axis and rotationally coupled to the toggle switch along the first axis, wherein the support bracket is configured to support the vehicle mirror, and wherein a rotation of the toggle switch is configured to move the pivot plate relative to the support bracket to adjust a viewing angle of the vehicle mirror; and characterized by a damper coupled to the toggle switch and the support bracket , wherein the damper is configured to dampen a rotation of the toggle switch about the first axis relative to the support bracket .
Method for producing a snap-action switch , which has a current-carrying snap-action spring which can be brought into two rest positions by mechanical actuation, comprising the following steps: - producing the snap-action spring from a multilayer plated material, the plating having at least one layer of a non-ferrous metal and/or a layer of a noble metal, - fixing the snap-action spring at at least one end in the snap-action switch, and - deforming the fixed snap-action spring at at least one adjustment point (163, 163", 164, 164", 166) during mounting in the snap-action switch in order to adjust the snap-action switch , - characterized in that a partial or complete displacement of the plating at the adjustment point(s) of the span-action spring either take(s) place in the deforming step or before the deforming step, such that the plating is provided on as large an area as possible and is only displaced at the adjustment point(s). - producing the snap-action spring from a multilayer plated material, the plating having at least one layer of a non-ferrous metal and/or a layer of a noble metal, - fixing the snap-action spring at at least one end in the snap-action switch, and - deforming the fixed snap-action spring at at least one adjustment point (163, 163", 164, 164", 166) during mounting in the snap-action switch in order to adjust the snap-action switch , - characterized in that a partial or complete displacement of the plating at the adjustment point(s) of the span-action spring either take(s) place in the deforming step or before the deforming step, such that the plating is provided on as large an area as possible and is only displaced at the adjustment point(s).
A camera for facilitating autonomous picture production, comprising: an imager for capturing an image stream ; a signal processor for processing the image stream into a plurality of image data paths; characterized by a memory for cyclically buffering images of at least two of the plurality of image data paths, into separate circular buffers , and for buffering the cyclically-buffered images into at least two corresponding output image streams of the camera. an imager for capturing an image stream ; a signal processor for processing the image stream into a plurality of image data paths; characterized by a memory for cyclically buffering images of at least two of the plurality of image data paths, into separate circular buffers , and for buffering the cyclically-buffered images into at least two corresponding output image streams of the camera.
A capacitive touch panel, comprising: a substrate , a plurality of touch electrodes provided on the substrate , and a plurality of signal lines corresponding to the plurality of touch electrodes , wherein, the substrate includes a touch region for touching and a signal line connection region for external connection of the signal lines , the plurality of touch electrodes are provided in the touch region , and the plurality of signal lines are routed from the touch region to the signal line connection region , and the plurality of touch electrodes and portions of the plurality of signal lines in the touch region are covered with a portion of a photoresist used in a photolithographic process for forming the plurality of touch electrodes and the plurality of signal lines , said photoresist having been been formed into a photoresist pattern by using a multi-tone mask wherein a thickness of a portion of the photoresist pattern in a signal line connection region is less than a thickness of a portion of the photoresist pattern in a touch region such that portions of the plurality of signal lines in the signal line connection region are not covered with the photoresist used in the photolithographic process for forming the plurality of touch electrodes and the plurality of signal lines .
A hybrid pipe for stay cable, comprising a tubular shaped wall , the wall having an internal face and an external face , characterised in that the pipe further comprises at least one first and one second reinforcing element , the first and second reinforcing element being provided at the wall to form the hybrid pipe such that the hybrid pipe has a higher mechanical resistance and/or a lower thermal dilatation coefficient than the wall itself, wherein the first reinforcing element is attached at the wall in such a way that at least one longitudinal pocket area is formed along the wall , wherein the second reinforcing element is a longitudinal plate, preferably comprising one or more openings, wherein a plurality of openings is provided in the wall corresponding to the first reinforcing element , and wherein the plurality of openings is arranged in such a way that the plurality of openings is encased at least on one side by the first reinforcing element , wherein the first reinforcing element is a curved profile forming at least one channel , wherein the channel is able to accommodate one or more high strength tensile elements such as steel strand wires, fibre wires and/or high strength ropes, wherein the first reinforcing element being a curved profile is provided at the internal face of the wall whereas the second reinforcing element being a longitudinal plate is provided at the external face of the wall . wherein the first reinforcing element is attached at the wall in such a way that at least one longitudinal pocket area is formed along the wall , wherein the second reinforcing element is a longitudinal plate, preferably comprising one or more openings, wherein a plurality of openings is provided in the wall corresponding to the first reinforcing element , and wherein the plurality of openings is arranged in such a way that the plurality of openings is encased at least on one side by the first reinforcing element , wherein the first reinforcing element is a curved profile forming at least one channel , wherein the channel is able to accommodate one or more high strength tensile elements such as steel strand wires, fibre wires and/or high strength ropes, wherein the first reinforcing element being a curved profile is provided at the internal face of the wall whereas the second reinforcing element being a longitudinal plate is provided at the external face of the wall .
An ergonomic infant carrier comprising a contoured shell having a non-planar base and a contiguous perimeter side wall upstanding from the base ; and at least one carrying strap attached or attachable to the contoured shell ; wherein said base has a bottom portion , a head portion , extending from a first end of the bottom portion and a foot portion , extending from a second end of the bottom portion opposite the first end, the bottom portion having a width which is less than that of the head and foot portions whereby the side wall defines a waisted portion partway along the longitudinal extent of the infant carrier for accommodating a side of a carer, characterized in that the head and foot portions extending upwardly from the bottom portion to meet the side wall .
A solid dispersion comprising the compound represented by Formula (I) and a pharmaceutically acceptable polymer, which is hydroxypropyl methyl cellulose acetate succinate, wherein the solid dispersion comprises one or more anilinic substances each in an amount equal to or less than about 3.0% by weight based on the weight of the compound of Formula (I) present in the solid dispersion.