mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: storing projection data of a projection (306, 314, 500) of a database at least partly in a grouped read optimized store -ROS-formatted ROS container (204c, 502) and partly in a column formatted ROS container (204a, 204b, 506) based on whether an estimated storage size of rows of projection data to be stored is greater than a predetermined threshold or based on a frequency of use of columns of the rows; and updating the projection data so that the updated projection is stored partly in a grouped ROS formatted ROS container (204c, 502) and partly in a column formatted ROS container (204a, 204b, 506), wherein, the projection (306, 314, 500) comprises a subset of columns of a table; the column formatted ROS container (204a, 204b, 506) comprises one or more files (508, 510, 512) where each file (508, 510, 512) in the column formatted ROS container (204a, 204b, 506) stores data for a different column of the projection (306, 314, 500); and the grouped ROS formatted ROS container (204c, 502) comprises a file comprising one or more blocks (504a, 504b, 504c) for a first set of two or more columns of the projection (306, 314, 500), and each block in the grouped ROS formatted ROS container (204c, 502) holds a data for a plurality of rows of the set of columns. storing projection data of a projection (306, 314, 500) of a database at least partly in a grouped read optimized store -ROS-formatted ROS container (204c, 502) and partly in a column formatted ROS container (204a, 204b, 506) based on whether an estimated storage size of rows of projection data to be stored is greater than a predetermined threshold or based on a frequency of use of columns of the rows; and updating the projection data so that the updated projection is stored partly in a grouped ROS formatted ROS container (204c, 502) and partly in a column formatted ROS container (204a, 204b, 506), the projection (306, 314, 500) comprises a subset of columns of a table; the column formatted ROS container (204a, 204b, 506) comprises one or more files (508, 510, 512) where each file (508, 510, 512) in the column formatted ROS container (204a, 204b, 506) stores data for a different column of the projection (306, 314, 500); and the grouped ROS formatted ROS container (204c, 502) comprises a file comprising one or more blocks (504a, 504b, 504c) for a first set of two or more columns of the projection (306, 314, 500), and each block in the grouped ROS formatted ROS container (204c, 502) holds a data for a plurality of rows of the set of columns.
A method of providing a projected video image, comprising: providing a receiver comprising a projector, a processor and camera, the receiver operable to receive a program service and to output an image signal, the projector operable to output an optical image for presentation based on a said image signal on a projection surface, the projection surface being external to the receiver; using the projector to project a frame onto the projection surface, capturing a visual image from the projection surface having said frame projected thereon with the camera and cropping the captured image based on said frame projected onto the projection surface, wherein the frame encloses an area of the projection surface on which said image for presentation will fall; determining from the cropped captured image, at the receiver, at least one color data optical property of the projection surface; deriving using the processor a correction matrix based on the at least one color data optical property of the projection surface, wherein the correction matrix includes color elements that correspond to color elements of an image projectable by the projector; applying using the processor the correction matrix to image data corresponding to a said image signal to obtain compensated image data compensated for the characteristics of the ambient light conditions and/or background characteristics of the projection surface; and projecting a compensated image according to the compensated image data onto the projection surface with the projector. providing a receiver comprising a projector, a processor and camera, the receiver operable to receive a program service and to output an image signal, the projector operable to output an optical image for presentation based on a said image signal on a projection surface, the projection surface being external to the receiver; using the projector to project a frame onto the projection surface, capturing a visual image from the projection surface having said frame projected thereon with the camera and cropping the captured image based on said frame projected onto the projection surface, wherein the frame encloses an area of the projection surface on which said image for presentation will fall; determining from the cropped captured image, at the receiver, at least one color data optical property of the projection surface; deriving using the processor a correction matrix based on the at least one color data optical property of the projection surface, wherein the correction matrix includes color elements that correspond to color elements of an image projectable by the projector; applying using the processor the correction matrix to image data corresponding to a said image signal to obtain compensated image data compensated for the characteristics of the ambient light conditions and/or background characteristics of the projection surface; and projecting a compensated image according to the compensated image data onto the projection surface with the projector.
A method in a wireless device of a wireless communication network, the method comprising: receiving scheduling information for one or more System Information messages; characterized in that, the method further comprising: determining a coverage enhancement level associated with each of the one or more System Information messages based on the received scheduling information; determining a coverage enhancement level of the wireless device; identifying a subset of the one or more System Information messages based on the determined coverage enhancement level of the wireless device; and acquiring a System Information message from the identified subset of the one or more System Information messages. receiving scheduling information for one or more System Information messages; characterized in that, the method further comprising: determining a coverage enhancement level associated with each of the one or more System Information messages based on the received scheduling information; determining a coverage enhancement level of the wireless device; identifying a subset of the one or more System Information messages based on the determined coverage enhancement level of the wireless device; and acquiring a System Information message from the identified subset of the one or more System Information messages. determining a coverage enhancement level associated with each of the one or more System Information messages based on the received scheduling information; determining a coverage enhancement level of the wireless device; identifying a subset of the one or more System Information messages based on the determined coverage enhancement level of the wireless device; and acquiring a System Information message from the identified subset of the one or more System Information messages.
A device for the sliding and braking of sliding doors and shutters, especially for closing and passing through two adjacent rooms, comprising a profile made of metal or other suitable material having a substantially "C" shaped cross-section with a lower horizontal branch or base, fixable with screws or equivalent means to the inner side of the door to be moved, and fitted with an upper horizontal branch shaped as an inverted "U" constituting the guide for one or more wheels of at least one support of the device that is attachable to the wall above the through opening between said rooms, further comprising two damper stops, each composed of a piston and a coil spring positioned above one another and a pivoting slider, characterised in that the two damper stops are opposite to each other and fixed along the base of the profile misaligned with each other, such that one of them is closer to the vertical branch of said profile than the other one, the pivoting slider which said damper stops are provided with abutting with one of two appendages (56, 58) protruding from said at least one support and defining an actuator, said appendages being misaligned with each other consistently with the misalignment of the damper stops and of the pivoting slider which said stops are fitted with, said pivoting slider of the damper stops acting in conjunction with the respective appendage (56, 58) to compress and move rearwards both the coil spring and the stem of the piston of said damper stops.
A method for self-registration and/or self-assembly of a plurality of electrical devices (140, 142, 144, 146, 148, 150), the method comprising: performing self-registration of the plurality of electrical devices (140, 142, 144, 146, 148, 150) by sending, from each of the plurality of electrical devices (140, 142, 144, 146, 148, 150), device information (164, 166, 168, 170, 172, 174) that is stored in each of the plurality of electrical devices (140, 142, 144, 146, 148, 150) to a control device, including a processor, via a network, wherein the device information (164, 166, 168, 170, 172, 174) of each device identifies unique characteristics of the device the device information is stored in; receiving, in the control device, the device information (164, 166, 168, 170, 172, 174) sent from each of the plurality of electrical devices (140, 142, 144, 146, 148, 150); storing, in a memory of the control device, the device information (164, 166, 168, 170, 172, 174) of each of the plurality of electrical devices (140, 142, 144, 146, 148, 150); and determining, from the stored device information (164, 166, 168, 170, 172, 174) of each of the plurality of electrical devices (140, 142, 144, 146, 148, 150) that each of the plurality of electrical devices (140, 142, 144, 146, 148, 150) are present and available on the network, characterized in that the plurality of electrical devices (140, 142, 144, 146, 148, 150) are devices for charging and discharging electrical power. performing self-registration of the plurality of electrical devices (140, 142, 144, 146, 148, 150) by sending, from each of the plurality of electrical devices (140, 142, 144, 146, 148, 150), device information (164, 166, 168, 170, 172, 174) that is stored in each of the plurality of electrical devices (140, 142, 144, 146, 148, 150) to a control device, including a processor, via a network, wherein the device information (164, 166, 168, 170, 172, 174) of each device identifies unique characteristics of the device the device information is stored in; receiving, in the control device, the device information (164, 166, 168, 170, 172, 174) sent from each of the plurality of electrical devices (140, 142, 144, 146, 148, 150); storing, in a memory of the control device, the device information (164, 166, 168, 170, 172, 174) of each of the plurality of electrical devices (140, 142, 144, 146, 148, 150); and determining, from the stored device information (164, 166, 168, 170, 172, 174) of each of the plurality of electrical devices (140, 142, 144, 146, 148, 150) that each of the plurality of electrical devices (140, 142, 144, 146, 148, 150) are present and available on the network, characterized in that the plurality of electrical devices (140, 142, 144, 146, 148, 150) are devices for charging and discharging electrical power.
A line lock (10,150) comprising a body (12,152) at least partially bounding a first primary passageway (22,158), a first secondary passageway (24,160), and a first working passageway (28,162), the first working passageway (28,162) having a transverse cross sectional area with a first location having a first minimum width and a spaced apart second location having a second minimum width, characterised by at least a portion of the first working passageway (28,162) being disposed between the first primary passageway (22,158) and the first secondary passageway (24,160) such that a geometric line segment extending between the first primary passageway (22,158) and the first secondary passageway (24,160) intersects with first working passageway (28,162).
A method comprising: introducing a hydrophobically and cationically modified relative permeability modifier into a portion of a subterranean formation, wherein the hydrophobically and cationically modified relative permeability modifier comprises a polymerization reaction product of a hydrophilic monomer with a hydrophobically modified hydrophilic monomer and a cationic compound, wherein the hydrophilic monomer is polydimethylaminoethyl methacrylate, the hydrophobically modified hydrophilic monomer is hexadecyl bromide, and the cationic compound is propyl iodide.
A method for selecting supply air device to a ventilation system of a space from a group of supply air devices, which space has a measurable volume, said method comprising steps of - defining total air flow rate of the space, - defining acceptable noise level of the space, - selecting a first subgroup of possible supply air devices based on the air flow capacities of the supply air devices and acceptable noise level of the space, - determining the number of supply air devices needed in the space and - calculating design air flow for the supply air device, when using determined number of supply air devices, characterized in that the method further comprises steps of - defining at least two additional rating properties for the supply air devices, - evaluating the performance of each supply air device of the first subgroup according to each rating property and scoring the performance, - calculating combined rating value for each supply air device of the first subgroup by summing up performance scores of individual rating properties, - ranking the supply air devices of the first subgroup based on the combined rating value and - selecting supply air device to the space based on said ranking. - defining total air flow rate of the space, - defining acceptable noise level of the space, - selecting a first subgroup of possible supply air devices based on the air flow capacities of the supply air devices and acceptable noise level of the space, - determining the number of supply air devices needed in the space and - calculating design air flow for the supply air device, when using determined number of supply air devices, - defining at least two additional rating properties for the supply air devices, - evaluating the performance of each supply air device of the first subgroup according to each rating property and scoring the performance, - calculating combined rating value for each supply air device of the first subgroup by summing up performance scores of individual rating properties, - ranking the supply air devices of the first subgroup based on the combined rating value and - selecting supply air device to the space based on said ranking.
A sensor assembly, comprising: a substrate having a first outer surface and a second outer surface opposite the first outer surface; a first die attached to the first outer surface and having a first diaphragm; a second die attached to the second outer surface and having a second diaphragm; a full-bridge pressure sensor including a plurality of piezoresistive elements, a first subset of at least two of the plurality of piezoresistive elements is disposed on or in the first diaphragm; and an integrated circuit; characterized in that the full-bridge pressure sensor includes a second subset of at least two of the plurality of piezoresistive elements disposed on or in the second diaphragm, the first subset and the second subset of the piezoresistive elements are connected to the integrated circuit, the integrated circuit is configured to receive a first signal from the first subset and a second signal from the second subset, the integrated circuit is configured to correct a signal error between the first signal and the second signal and to measure a pressure around the sensor assembly; and the integrated circuit is a first integrated circuit disposed on the first outer surface and further comprising a second integrated circuit disposed on the second outer surface. a substrate having a first outer surface and a second outer surface opposite the first outer surface; a first die attached to the first outer surface and having a first diaphragm; a second die attached to the second outer surface and having a second diaphragm; a full-bridge pressure sensor including a plurality of piezoresistive elements, a first subset of at least two of the plurality of piezoresistive elements is disposed on or in the first diaphragm; and an integrated circuit; characterized in that the full-bridge pressure sensor includes a second subset of at least two of the plurality of piezoresistive elements disposed on or in the second diaphragm, the first subset and the second subset of the piezoresistive elements are connected to the integrated circuit, the integrated circuit is configured to receive a first signal from the first subset and a second signal from the second subset, the integrated circuit is configured to correct a signal error between the first signal and the second signal and to measure a pressure around the sensor assembly; and the integrated circuit is a first integrated circuit disposed on the first outer surface and further comprising a second integrated circuit disposed on the second outer surface.
A method for analysing a condition of a pipeline in real time, comprising: generating a transient pressure wave in fluid carried along the pipeline; detecting a transient pressure wave interaction signal responsive to the transient pressure wave, the pressure wave interaction signal having a time duration corresponding to a region of interest of the pipeline; and processing the transient pressure wave interaction signal to analyse the region of interest of the pipeline characterized in that the processing of the transient pressure wave interaction signal comprises: downsampling in the time domain the transient pressure wave interaction signal to generate a downsampled time window of pressure information; processing the downsampled time window of pressure information by an artificial neural network trained to identify a hydraulic feature of a first type and determine associated hydraulic feature characteristics of the hydraulic feature of the first type; and verifying whether the hydraulic feature of the first type occurs in the region of interest of the pipeline. generating a transient pressure wave in fluid carried along the pipeline; detecting a transient pressure wave interaction signal responsive to the transient pressure wave, the pressure wave interaction signal having a time duration corresponding to a region of interest of the pipeline; and processing the transient pressure wave interaction signal to analyse the region of interest of the pipeline characterized in that the processing of the transient pressure wave interaction signal comprises: downsampling in the time domain the transient pressure wave interaction signal to generate a downsampled time window of pressure information; processing the downsampled time window of pressure information by an artificial neural network trained to identify a hydraulic feature of a first type and determine associated hydraulic feature characteristics of the hydraulic feature of the first type; and verifying whether the hydraulic feature of the first type occurs in the region of interest of the pipeline. downsampling in the time domain the transient pressure wave interaction signal to generate a downsampled time window of pressure information; processing the downsampled time window of pressure information by an artificial neural network trained to identify a hydraulic feature of a first type and determine associated hydraulic feature characteristics of the hydraulic feature of the first type; and verifying whether the hydraulic feature of the first type occurs in the region of interest of the pipeline.
A method comprising: displaying in a first display area a user interface element that is movable from the first display area to a second display area, distinct from the first display area, across an interface between the first display area and the second display area, wherein the interface physically separates the first display area from the second display area; characterized in that displaying an interface effect in a portion of the first display area, adjacent to the interface, indicative to a user that the user interface element is movable across the interface from the first display area to the second display area, wherein the interface effect moves automatically from the first display area to the second display area when the user interface element is moved by a user from the first display area to the second display area.
A surgical system comprising: a master manipulator; a robotic slave manipulator; a rigid curved cannula (416; 2102) coupled to the robotic slave manipulator, a center of motion being defined for the curved cannula (416; 2102), and a straight line instrument insertion and withdrawal axis being defined by a straight line that extends from a longitudinal axis at a distal end (420; 2106) of the curved cannula (416; 2102); a passively flexible instrument shaft that is extendable past the distal end (420; 2106) of the curved cannula (416; 2102); and a control system in communication with the master manipulator and the robotic slave manipulator, wherein the control system is configured to calculate control parameters of a desired motion for the curved cannula (416; 2102) based on kinematic constraints for the cannula including the centre of motion and kinematic constraints that define the instrument shaft as being positioned at the distal end along the straight line insertion and withdrawal axis, and wherein the control system is configured to command the robotic slave manipulator to move the distal end of the curved cannula (416; 2102) around the center of motion based on the calculated control parameters of the desired motion of the curved cannula (416; 2012). a master manipulator; a robotic slave manipulator; a rigid curved cannula (416; 2102) coupled to the robotic slave manipulator, a center of motion being defined for the curved cannula (416; 2102), and a straight line instrument insertion and withdrawal axis being defined by a straight line that extends from a longitudinal axis at a distal end (420; 2106) of the curved cannula (416; 2102); a passively flexible instrument shaft that is extendable past the distal end (420; 2106) of the curved cannula (416; 2102); and a control system in communication with the master manipulator and the robotic slave manipulator, wherein the control system is configured to calculate control parameters of a desired motion for the curved cannula (416; 2102) based on kinematic constraints for the cannula including the centre of motion and kinematic constraints that define the instrument shaft as being positioned at the distal end along the straight line insertion and withdrawal axis, and wherein the control system is configured to command the robotic slave manipulator to move the distal end of the curved cannula (416; 2102) around the center of motion based on the calculated control parameters of the desired motion of the curved cannula (416; 2012).
Method of modifying the surface of an elastomer glove with unsaturated carbon-carbon bonds characterized in that the unsaturated carbon-carbon bonds are at least partially saturated in the region of the surface by means of a photo-chemical reaction with at least one thiol or by applying or dipping to apply a layer of latex to at least certain regions of the surface of the elastomer glove, the unsaturated carbon-carbon bonds of which in the region of its surface are at least partially saturated by a photochemical reaction with at least one thiol.