mhurhangee/patent-ind-claim-en huggingface dataset:
A method for locating anatomical landmarks in image data, comprising: receiving , at a processor, image data representative of a patient's joint, wherein the image data comprises multiple image slices taken in image planes selected from sagittal planes, coronal planes and axial planes of the patient; identifying an oblique plane intersecting a soft tissue represented in the image data and normal to a longitudinal axis of the soft tissue ; identifying , with the processor, a set of planes comprising the oblique plane and at least one other plane parallel or orthogonal to the oblique plane ; generating , with the processor, a set of reformatted images, from the image data, sampled along the set of planes; tracing a feature of the soft tissue in the set of reformatted images; and generating , with the processor, a 3-D marking representing the traced feature on a 3-D model; wherein generating the set of reformatted images comprises: identifying , with the processor, four corners of the oblique plane ; generating , with the processor, texture coordinates using the corner locations; and interpolating , with the processor, pixel intensities for the texture coordinates using the image data. receiving , at a processor, image data representative of a patient's joint, wherein the image data comprises multiple image slices taken in image planes selected from sagittal planes, coronal planes and axial planes of the patient; identifying an oblique plane intersecting a soft tissue represented in the image data and normal to a longitudinal axis of the soft tissue ; identifying , with the processor, a set of planes comprising the oblique plane and at least one other plane parallel or orthogonal to the oblique plane ; generating , with the processor, a set of reformatted images, from the image data, sampled along the set of planes; tracing a feature of the soft tissue in the set of reformatted images; and generating , with the processor, a 3-D marking representing the traced feature on a 3-D model; wherein generating the set of reformatted images comprises: identifying , with the processor, four corners of the oblique plane ; generating , with the processor, texture coordinates using the corner locations; and interpolating , with the processor, pixel intensities for the texture coordinates using the image data. identifying , with the processor, four corners of the oblique plane ; generating , with the processor, texture coordinates using the corner locations; and interpolating , with the processor, pixel intensities for the texture coordinates using the image data.
Primary structure for a spacecraft comprising an interface ring and a predetermined number of panels defining a box arranged so as to close an interior volume of the spacecraft, the box being connected to the interface ring, the side panels of the box being parallel to a geometric axis (A) of the interface ring, the interface ring being intended to be temporarily fastened to a system supporting the spacecraft in a launcher, each panel being a one-piece panel and being obtained by machining a single solid metal block, the side panels at the base of the box being connected to the interface ring via damping inserts , each panel comprising a network of intersecting ribs connected to one another by thinned plates , the network of ribs being arranged, in each panel, so as to induce at least a determined stiffness as well as a transfer of forces between a proximal edge and a distal edge relative to the interface ring, the side panels at the base of the box comprise open recesses for receiving the damping inserts, each of these recesses being defined by a rib , the latter rib being continued by at least one rib extending in a longitudinal direction relative to the geometric axis (A) of the interface ring.
Method for calibrating and/or operating a hand-held power tool , in particular a rebar tier, which is intended to rotate at least one object to be rotated, wherein the method has at least one test step in which a test object corresponding to the object to be rotated is rotated at least to such an extent that it is damaged by the rotation, characterized by at least one determining step in which at least one destruction characteristic value , at which the test object is damaged by the rotation, is determined.
A method performed by a network node , the method comprising: indicating (S134) to a wireless device whether at least one resource element, RE, associated with a reference signal is one of available and not available for physical downlink shared channel, PDSCH-to-RE mapping, the at least one RE associated with the reference signal being at least one RE in a same orthogonal frequency division multiplex, OFDM, symbol as the reference signal; transmitting (S136) signaling according to the PDSCH-to-RE mapping, the PDSCH being one of mapped and not mapped to the at least one RE associated with the reference signal based on the indication, wherein the reference signal is a non-zero power channel state information reference signal, NZP CSI-RS, used as a tracking reference signal; and characterized in that : if the PDSCH demodulation reference signal, DMRS, is quasi collocated, QCL, Type D with the reference signal, the at least one RE associated with the reference signal is available for the PDSCH-to-RE mapping; and if the PDSCH DMRS is not QCL Type D with the reference signal, the at least one RE associated with the reference signal is not available for the PDSCH-to-RE mapping. indicating (S134) to a wireless device whether at least one resource element, RE, associated with a reference signal is one of available and not available for physical downlink shared channel, PDSCH-to-RE mapping, the at least one RE associated with the reference signal being at least one RE in a same orthogonal frequency division multiplex, OFDM, symbol as the reference signal; transmitting (S136) signaling according to the PDSCH-to-RE mapping, the PDSCH being one of mapped and not mapped to the at least one RE associated with the reference signal based on the indication, wherein the reference signal is a non-zero power channel state information reference signal, NZP CSI-RS, used as a tracking reference signal; and characterized in that : if the PDSCH demodulation reference signal, DMRS, is quasi collocated, QCL, Type D with the reference signal, the at least one RE associated with the reference signal is available for the PDSCH-to-RE mapping; and if the PDSCH DMRS is not QCL Type D with the reference signal, the at least one RE associated with the reference signal is not available for the PDSCH-to-RE mapping. if the PDSCH demodulation reference signal, DMRS, is quasi collocated, QCL, Type D with the reference signal, the at least one RE associated with the reference signal is available for the PDSCH-to-RE mapping; and if the PDSCH DMRS is not QCL Type D with the reference signal, the at least one RE associated with the reference signal is not available for the PDSCH-to-RE mapping.
A system, comprising: an interface , which is configured to receive time-varying boundary condition values measured for a probe inside a cavity of an organ of a patient; and a processor , configured to: calculate a time-dependent shape of the probe, by: representing sections of the probe as first springs; and characterised by representing external forces acting on the sections as second springs; and solving a set of coupled equations of motion, for the first springs and the second springs, so as to meet the time-varying boundary condition values; and present the shape to a user. an interface , which is configured to receive time-varying boundary condition values measured for a probe inside a cavity of an organ of a patient; and a processor , configured to: calculate a time-dependent shape of the probe, by: representing sections of the probe as first springs; and characterised by representing external forces acting on the sections as second springs; and solving a set of coupled equations of motion, for the first springs and the second springs, so as to meet the time-varying boundary condition values; and present the shape to a user. calculate a time-dependent shape of the probe, by: representing sections of the probe as first springs; and characterised by representing external forces acting on the sections as second springs; and solving a set of coupled equations of motion, for the first springs and the second springs, so as to meet the time-varying boundary condition values; and representing sections of the probe as first springs; and characterised by representing external forces acting on the sections as second springs; and solving a set of coupled equations of motion, for the first springs and the second springs, so as to meet the time-varying boundary condition values; and present the shape to a user.
A method of mitigating silent data corruption, SDC, in a system including a memory controller arranged to couple processor circuitry to a memory device , comprising: comparing, by a comparator circuitry of the memory controller , a codeword received from the memory device and a corresponding successful decoded codeword, the successful decoded codeword having been deemed a success by an error correction circuitry , wherein the successful decoded codeword is the output from the error correction circuitry when the corresponding received codeword is input to the error correction circuitry ; and rejecting, by an SDC mitigation logic of the memory controller , the successful decoded codeword if a Hamming distance between the corresponding received codeword and the successful decoded codeword is greater than or equal to a threshold. comparing, by a comparator circuitry of the memory controller , a codeword received from the memory device and a corresponding successful decoded codeword, the successful decoded codeword having been deemed a success by an error correction circuitry , wherein the successful decoded codeword is the output from the error correction circuitry when the corresponding received codeword is input to the error correction circuitry ; and rejecting, by an SDC mitigation logic of the memory controller , the successful decoded codeword if a Hamming distance between the corresponding received codeword and the successful decoded codeword is greater than or equal to a threshold.
A method for controlling or assessing a yarn manufacturing process in a yarn manufacturing apparatus having at least a first sensor head (12, 18, 24, 30; 44), wherein the method comprises the steps of running an elongate textile body past the first sensor head (12, 18, 24, 30; 44), measuring at a first plurality of times, by means of the first sensor head (12, 18, 24, 30; 44), a color parameter (P k ) of the textile body , forming a time-series of values comprising values of the color parameter (P k ) attributed to different times, using the values of the color parameter (P k ) for controlling or assessing the process, characterized in that values (VP k ) that depend on the color parameter (P k ) are clustered into color clusters. running an elongate textile body past the first sensor head (12, 18, 24, 30; 44), measuring at a first plurality of times, by means of the first sensor head (12, 18, 24, 30; 44), a color parameter (P k ) of the textile body , forming a time-series of values comprising values of the color parameter (P k ) attributed to different times, using the values of the color parameter (P k ) for controlling or assessing the process, characterized in that values (VP k ) that depend on the color parameter (P k ) are clustered into color clusters.
A method of operating a transfer printer configured to transfer ink from a printer ribbon to a substrate which is transported along a predetermined substrate path adjacent to the printer, the printer comprising: a tape drive comprising two tape drive motors , two tape spool supports on which said spools of ribbon may be mounted, each spool being drivable by a respective one of said motors; a printhead being displaceable towards and away from the predetermined substrate path and being arranged to, during printing, contact one side of the ribbon to press an opposite side of the ribbon into contact with a substrate on the predetermined substrate path, and a printing surface; and a controller configured to control the tape drive to transport ribbon between the first and second ribbon spools; the method comprising: controlling the tape drive to perform a ribbon movement in which ribbon is transported between first and second ribbon spools along a ribbon path, the ribbon path having a first length during a first part of said ribbon movement, and a second length during a second part of said ribbon movement, a transition from the first length to the second length being caused by a displacement of the printhead towards and away from the printing surface, characterized in that control of at least one of the tape drive motors is based upon data indicative of the first and second lengths. a tape drive comprising two tape drive motors , two tape spool supports on which said spools of ribbon may be mounted, each spool being drivable by a respective one of said motors; a printhead being displaceable towards and away from the predetermined substrate path and being arranged to, during printing, contact one side of the ribbon to press an opposite side of the ribbon into contact with a substrate on the predetermined substrate path, and a printing surface; and a controller configured to control the tape drive to transport ribbon between the first and second ribbon spools; the method comprising: controlling the tape drive to perform a ribbon movement in which ribbon is transported between first and second ribbon spools along a ribbon path, the ribbon path having a first length during a first part of said ribbon movement, and a second length during a second part of said ribbon movement, a transition from the first length to the second length being caused by a displacement of the printhead towards and away from the printing surface, characterized in that control of at least one of the tape drive motors is based upon data indicative of the first and second lengths.
An apparatus comprising: a near infrared (NIR) light emitting diode (LED) (102; 108) having a predominant axis of NIR light transmission from the LED; and a lens that disperses NIR light received from the LED with respect to first and second planes, the planes being normal to each other and intersecting along the predominant LED axis, the lens having an air to lens light entry boundary where light from the LED enters a surface of the lens and a lens to air light exit boundary where light exits the lens in each of the first and second planes, the first and second planes intersecting with the light entry surface forming an intersection, the intersection formed by the second plane with the light entry surface is being a line that is concave on each side of the predominant axis and where a radius of the light entry boundary of the line successively increases over each span of a predetermined number of degrees progressing outwards along the line from the predominant axis, wherein a radius of the lens to air light exit boundary in the first plane beginning at an upper distal end of the lens successively decreases over each span of the predetermined number of degrees to a point below the predominant axis wherein the radius reaches a minimum and then increases to a point of inflection in the light exit boundary beyond which the lens surface of the lens to air light exit boundary becomes concave out to a lower distal end. a near infrared (NIR) light emitting diode (LED) (102; 108) having a predominant axis of NIR light transmission from the LED; and a lens that disperses NIR light received from the LED with respect to first and second planes, the planes being normal to each other and intersecting along the predominant LED axis, the lens having an air to lens light entry boundary where light from the LED enters a surface of the lens and a lens to air light exit boundary where light exits the lens in each of the first and second planes, the first and second planes intersecting with the light entry surface forming an intersection, the intersection formed by the second plane with the light entry surface is being a line that is concave on each side of the predominant axis and where a radius of the light entry boundary of the line successively increases over each span of a predetermined number of degrees progressing outwards along the line from the predominant axis, wherein a radius of the lens to air light exit boundary in the first plane beginning at an upper distal end of the lens successively decreases over each span of the predetermined number of degrees to a point below the predominant axis wherein the radius reaches a minimum and then increases to a point of inflection in the light exit boundary beyond which the lens surface of the lens to air light exit boundary becomes concave out to a lower distal end.
A safety valve for use in a subterranean well, the safety valve comprising: a housing assembly having a flow passage extending longitudinally through the housing assembly, wherein an outer diameter of the housing assembly is eccentric relative to the flow passage, wherein the housing assembly has a thickened wall section due to the outer diameter being eccentric relative to the flow passage, characterised in that at least one position sensor is positioned in the thickened wall section. a housing assembly having a flow passage extending longitudinally through the housing assembly, wherein an outer diameter of the housing assembly is eccentric relative to the flow passage, wherein the housing assembly has a thickened wall section due to the outer diameter being eccentric relative to the flow passage, characterised in that at least one position sensor is positioned in the thickened wall section.
Power electronics system for charging at least one electrically operated vehicle , wherein the power electronics system has at least three modules each having at least one terminal pair with DC output, at least one rectifier , at least one AC input , at least one DC link and a number of switching elements (222, 223; 422, 423; 522, 523; 622, 623; 722, 723; 1022, 1023; 1122, 1123; 1222, 1223; 1322, 1323), in which the respective DC outputs of the at least three modules can be connected selectively by means of the switching elements (222, 223; 422, 423; 522, 523; 622, 623; 722, 723; 1022, 1023; 1122, 1123; 1222, 1223; 1322, 1323) so as to form at least one charging point for charging the at least one electrically operated vehicle , wherein the switching elements (222, 223; 422, 423; 522, 523; 622, 623; 722, 723; 1022, 1023; 1122, 1123; 1222, 1223; 1322, 1323) are arranged at and/or between the DC outputs of the at least three modules in such a way that, between the at least three modules, at least one series and one parallel circuit configuration can be dynamically set by suitable switching states of the switching elements (222, 223; 422, 423; 522, 523; 622, 623; 722, 723; 1022, 1023; 1122, 1123; 1222, 1223; 1322, 1323), and the operating range of the power electronics system can thereby be toggled dynamically, wherein the power electronics system is configured, at an approximately constant output power, to provide either a peak voltage at rated current or a reduced voltage at a correspondingly increased current depending on requirements by corresponding switching of the switching elements (222, 223; 422, 423; 522, 523; 622, 623; 722, 723; 1022, 1023; 1122, 1123; 1222, 1223; 1322, 1323), characterized in that at least one mixed series/parallel circuit configuration can be set dynamically, and the operating range of the power electronics system can thereby be toggled dynamically to one of the at least one charging point, wherein, in the event of a fault in one of the at least three modules, the faulty module is isolated or charge current is routed past the faulty module, respectively, by specifically setting the switching states of the respective switching elements (222, 223; 422, 423; 522, 523; 622, 623; 722, 723; 1022, 1023; 1122, 1123; 1222, 1223; 1322, 1323).
A bearing arrangement adapted to be positioned between a hub and a spindle , said bearing arrangement having a rotation axis (A), said bearing arrangement comprising an outer annular bearing member and roller elements , said bearing arrangement further comprising a sealing device comprising an air passage for pressurized air through said sealing device , wherein a portion of said sealing device is adapted to be clamped between a portion of said hub and said outer annular bearing member of said bearing arrangement , wherein said bearing arrangement is a first bearing arrangement adapted to be connected to a second bearing arrangement , said second bearing arrangement comprises at least an outer annular bearing member and roller elements , characterized in that said first and said second bearing arrangements are connected via a snap-on connection, preferably via a ring member .
A thin-layer tape automated lamination method comprising: a supply step of supplying a plurality of thin-layer tapes (Tn) each having a thickness of 5 μm to 80 μm; and a lamination-shaping step of laminating and shaping the supplied thin-layer tapes (Tn) in a lamination region of a basal body surface, characterized in that the supply step includes a provisional formation step of forming a lamination tape (S) by entirely or partially laminating the thin-layer tapes (Tn), and the lamination-shaping step laminates and shapes the formed lamination tape (S) in the lamination region of the basal body surface. a supply step of supplying a plurality of thin-layer tapes (Tn) each having a thickness of 5 μm to 80 μm; and a lamination-shaping step of laminating and shaping the supplied thin-layer tapes (Tn) in a lamination region of a basal body surface, characterized in that the supply step includes a provisional formation step of forming a lamination tape (S) by entirely or partially laminating the thin-layer tapes (Tn), and the lamination-shaping step laminates and shapes the formed lamination tape (S) in the lamination region of the basal body surface.
An evaporation-limiting insert for a container comprising: a hollow tubular body configured to extend into a container from an opening of the container and having an upper end portion; a retainer feature at the upper end portion of the tubular body and configured to engage a portion of the container to secure the insert within the container , wherein the tubular body includes a plurality of holes formed through a wall of the tubular body and distributed along at least a portion of the length of the body to permit fluid to flow through a space inside the tubular body , wherein at least a portion of the holes are located below a midpoint of the tubular body , and wherein the holes are arranged in two groups aligned axially along opposed sides of the tubular body . a hollow tubular body configured to extend into a container from an opening of the container and having an upper end portion; a retainer feature at the upper end portion of the tubular body and configured to engage a portion of the container to secure the insert within the container , wherein the tubular body includes a plurality of holes formed through a wall of the tubular body and distributed along at least a portion of the length of the body to permit fluid to flow through a space inside the tubular body , wherein at least a portion of the holes are located below a midpoint of the tubular body , and wherein the holes are arranged in two groups aligned axially along opposed sides of the tubular body .