mhurhangee/patent-ind-claim-en huggingface dataset:
A host processor comprising: a physical layer, PHY, interface configured to be coupled to a plurality of data lanes of a memory bus; a read register ; and a memory controller coupled to the PHY interface, the memory controller comprising a data pattern checker logic circuit , wherein the memory controller is configured to: use the data pattern checker logic circuit to determine if patterns of repeatable data exist in data to be written to a memory element over the memory bus; and consolidate the data into fewer lanes and send the data across only certain ones of the plurality of data lanes of the memory bus using a write command modified by a column address select, CAS, command; receive data through the PHY interface from the memory element; and cause data within the read register to be duplicated based on information received from the memory element. a physical layer, PHY, interface configured to be coupled to a plurality of data lanes of a memory bus; a read register ; and a memory controller coupled to the PHY interface, the memory controller comprising a data pattern checker logic circuit , wherein the memory controller is configured to: use the data pattern checker logic circuit to determine if patterns of repeatable data exist in data to be written to a memory element over the memory bus; and consolidate the data into fewer lanes and send the data across only certain ones of the plurality of data lanes of the memory bus using a write command modified by a column address select, CAS, command; receive data through the PHY interface from the memory element; and cause data within the read register to be duplicated based on information received from the memory element. use the data pattern checker logic circuit to determine if patterns of repeatable data exist in data to be written to a memory element over the memory bus; and consolidate the data into fewer lanes and send the data across only certain ones of the plurality of data lanes of the memory bus using a write command modified by a column address select, CAS, command; receive data through the PHY interface from the memory element; and cause data within the read register to be duplicated based on information received from the memory element.
An apparatus comprising: a processing unit configured to - perform generalized frequency division multiplexing, GFDM, modulation of input data, wherein a symbol is divided into a number of subsymbols, - variably set at least any of bandwidth of a subcarrier or time length of a subsymbol included in a unit resource including one or more subcarriers or one or more subsymbols, and - set at least a part of a frequency band corresponding to an unused subcarrier of a first resource that is provided for use by a first destination as a used subcarrier in a second resource that is provided for use by a second destination, the second resource including the unit resource in which the bandwidth of the subcarrier is less than in the first resource, wherein the first destination is the same as or different than the second destination, and wherein the unused subcarrier of the first resource includes a DC subcarrier of the first resource and/or a subcarrier around a DC subcarrier of the first resource and/or a guard band. a processing unit configured to - perform generalized frequency division multiplexing, GFDM, modulation of input data, wherein a symbol is divided into a number of subsymbols, - variably set at least any of bandwidth of a subcarrier or time length of a subsymbol included in a unit resource including one or more subcarriers or one or more subsymbols, and - set at least a part of a frequency band corresponding to an unused subcarrier of a first resource that is provided for use by a first destination as a used subcarrier in a second resource that is provided for use by a second destination, the second resource including the unit resource in which the bandwidth of the subcarrier is less than in the first resource, - perform generalized frequency division multiplexing, GFDM, modulation of input data, wherein a symbol is divided into a number of subsymbols, - variably set at least any of bandwidth of a subcarrier or time length of a subsymbol included in a unit resource including one or more subcarriers or one or more subsymbols, and - set at least a part of a frequency band corresponding to an unused subcarrier of a first resource that is provided for use by a first destination as a used subcarrier in a second resource that is provided for use by a second destination, the second resource including the unit resource in which the bandwidth of the subcarrier is less than in the first resource, wherein the first destination is the same as or different than the second destination, and wherein the unused subcarrier of the first resource includes a DC subcarrier of the first resource and/or a subcarrier around a DC subcarrier of the first resource and/or a guard band.
A computer-implemented method for automatically generating an environmental control system health report of an aircraft, the method comprising: receiving, automatically over an electronic network, flight data recorded during a flight, the flight data comprising a plurality of parameters of data collected from the aircraft during the flight; isolating a subset of the plurality of parameters of the flight data that relate to an environmental control system of the aircraft; analyzing the subset of the plurality of parameters of the flight data to identify a time window in which a pattern in the subset of the plurality of parameters of the flight data matches a known pattern of flight data corresponding to a flight condition; extracting, from within the identified time window, a sample of the subset of the plurality of parameters of the flight data; and generating an environmental control system health report for the aircraft based on the extracted sample of the subset of the plurality of parameters of the flight data. receiving, automatically over an electronic network, flight data recorded during a flight, the flight data comprising a plurality of parameters of data collected from the aircraft during the flight; isolating a subset of the plurality of parameters of the flight data that relate to an environmental control system of the aircraft; analyzing the subset of the plurality of parameters of the flight data to identify a time window in which a pattern in the subset of the plurality of parameters of the flight data matches a known pattern of flight data corresponding to a flight condition; extracting, from within the identified time window, a sample of the subset of the plurality of parameters of the flight data; and generating an environmental control system health report for the aircraft based on the extracted sample of the subset of the plurality of parameters of the flight data.
A composite pile which is formed by inserting a steel pipe pile into a soil cement column body constructed in the ground, the steel pipe pile comprising: a steel pipe pile main body ; and one or more spiral blades attached to the steel pipe pile main body , wherein a diameter (D) of each of the spiral blades is set to three times or more as large as a the diameter (d) of the steel pipe pile main body ; the spiral blades are constituted of a distal blade attached to a distal portion of the steel pipe pile main body , and intermediate blades attached to portions of the steel pipe pile main body excluding the distal portion thereof; a length (L 1 ) between the distal blade and the intermediate blade present at the lowermost end is set to 2.0 m or more; a length (L m ) between the intermediate blades is set to 3.0 m or more; and a length (L 2 ) between the intermediate blade present at the uppermost end and a pile head portion of the steel pipe pile main body is set to 0.3 m or more and 0.5 m or less.
A selectable clutch assembly comprising: a freewheeling unit having an input side with inner splines and an output side with outer splines, the freewheeling unit having a driving mode wherein torque applied to the input side is transferred to the output side and an over running mode wherein torque applied to the output side is not transferred to the input side; and a bypass assembly having a bypass coupling with inner splines and outer splines, the inner splines of the bypass coupling coupled to the outer splines of the output side of the freewheeling unit such that the bypass assembly is rotatable with the output side of the freewheeling unit , the bypass assembly actuatable between an engaged position in which the outer splines of the bypass coupling are coupled to the inner splines of the input side of the freewheeling unit and a disengaged position in which the outer splines of the bypass coupling are not coupled to the inner splines of the input side of the freewheeling unit ; wherein, in the disengaged position of the bypass assembly, the freewheeling unit is operable in the driving mode and the over running mode such that the selectable clutch assembly is configured for unidirectional torque transfer from the input side to the output side; and wherein, in the engaged position of the bypass assembly, the over running mode of the freewheeling unit is disabled such that the selectable clutch assembly is configured for bidirectional torque transfer from the input side to the output side and from the output side to the input side. a freewheeling unit having an input side with inner splines and an output side with outer splines, the freewheeling unit having a driving mode wherein torque applied to the input side is transferred to the output side and an over running mode wherein torque applied to the output side is not transferred to the input side; and a bypass assembly having a bypass coupling with inner splines and outer splines, the inner splines of the bypass coupling coupled to the outer splines of the output side of the freewheeling unit such that the bypass assembly is rotatable with the output side of the freewheeling unit , the bypass assembly actuatable between an engaged position in which the outer splines of the bypass coupling are coupled to the inner splines of the input side of the freewheeling unit and a disengaged position in which the outer splines of the bypass coupling are not coupled to the inner splines of the input side of the freewheeling unit ; wherein, in the disengaged position of the bypass assembly, the freewheeling unit is operable in the driving mode and the over running mode such that the selectable clutch assembly is configured for unidirectional torque transfer from the input side to the output side; and wherein, in the engaged position of the bypass assembly, the over running mode of the freewheeling unit is disabled such that the selectable clutch assembly is configured for bidirectional torque transfer from the input side to the output side and from the output side to the input side.
A bioparticle measuring method comprising: detecting signal from a first measurement sample and signal from a second measurement sample by a flow cytometer, wherein the first measurement sample is prepared by mixing: a first sample containing a bioparticle sampled from a specimen; and a detector capable of binding to the bioparticle and containing a fluorescent substance, in the presence of an inhibitor capable of binding to the bioparticle and containing none of the fluorescent substance, wherein the detector binds to a target site contained in a target molecule present in the bioparticle, and the inhibitor binds to the target site to inhibit the detector from binding to the target site, wherein the detector is at least one selected from the group consisting of an antibody and a lectin and wherein the inhibitor contains the antibody which binds to the target site, and the second measurement sample is prepared by mixing: a second sample sampled from the same specimen independently from the first sample; and the detector, under a condition that the inhibitor is substantially absent; and calculating a measurement result of the bioparticle from a detection result of the signals from the first measurement sample and a detection result of the signals from the second measurement sample, wherein the bioparticle is an extracellular vesicle. detecting signal from a first measurement sample and signal from a second measurement sample by a flow cytometer, wherein the first measurement sample is prepared by mixing: a first sample containing a bioparticle sampled from a specimen; and a detector capable of binding to the bioparticle and containing a fluorescent substance, in the presence of an inhibitor capable of binding to the bioparticle and containing none of the fluorescent substance, wherein the detector binds to a target site contained in a target molecule present in the bioparticle, and the inhibitor binds to the target site to inhibit the detector from binding to the target site, wherein the detector is at least one selected from the group consisting of an antibody and a lectin and wherein the inhibitor contains the antibody which binds to the target site, and the second measurement sample is prepared by mixing: a second sample sampled from the same specimen independently from the first sample; and the detector, under a condition that the inhibitor is substantially absent; and calculating a measurement result of the bioparticle from a detection result of the signals from the first measurement sample and a detection result of the signals from the second measurement sample,
A packaged wound dressing comprising modified cellulosic fibres treated with an antimicrobial composition comprising a source of an antimicrobial metal ion, 0.1% to 4.0% by weight metal chelating agent, and a quaternary cationic surfactant, the dressing having an equilibrium moisture content of between 10% and 20% by weight when sealed, wherein the wound dressing is packaged in a moisture impermeable packaging material or film.
A plurality of particles comprising tasquinimod in free base form or as a pharmaceutically acceptable salt, said particles having a D(v,0.9) of at most 25 μm and a D(v,0.5) of at most 10 μm.
A turbine blade with a profile including a blade suction side line , a blade pressure side line , and a blade trailing edge formed by a curve connecting the blade suction side line and the blade pressure side line to each other, wherein the curve forming the blade trailing edge of the profile is formed by connecting a pressure side curve portion which has an arc shape having a constant radius of curvature around a center lying on a camber line (CL) and is connected to the blade pressure side line , and a suction side curve portion which is connected to the blade suction side line and which extends from the rear end of the blade suction- side line toward the camber line (CL) while passing through a region closer to the camber line (CL) than a symmetric curve portion which is line-symmetric to the pressure side curve portion with respect to the camber line (CL), which is a straight line at the blade trailing edge.
An image sensor comprises a filter array , a reading circuit , a controller , a converter and an image output interface , the controller is coupled to the reading circuit , the converter and the image output interface , wherein the filter array comprises a plurality of color filter array patterns, each color filter array pattern comprises multiple-color filters and at least one infrared (IR) filter; the multiple-color filters are configured to capture visible rays; the IR filters are configured to capture IR rays; the reading circuit is configured, in an IR mode, to read out IR signals from pixels corresponding to the IR filters and multiple-color signals from pixels corresponding to a part of the multiple-color filters under control of the controller , wherein the part of the multiple-color filters does not comprise all of the multiple-color filters; the reading circuit is configured, in an RGB-IR mode, to read out signals from pixels corresponding to all the filters of the image sensor ; the converter is configured to convert the IR signals into IR digital signals under the control of the controller ; the image output interface is configured, in the IR mode, to output the IR digital signals under the control of the controller , wherein the reading circuit comprises row selection circuit and column selection circuit , the row selection circuit is configured to skip filter rows in which no IR filter is located and select filter rows in which the IR filters are located when the image sensor enters an IR mode to sample signals from pixels corresponding to the selected filter rows, wherein the filter rows comprise at least one filter row in which no IR filter is located, and the column selection circuit is configured to select all filter columns when the image sensor enters the IR mode to sample signals from pixels corresponding to the selected filter columns.
A robot system comprising: a robot having a working section for performing an operation on a target object; a camera provided to the robot in a vicinity of the working section, and a control device that performs drive control of the robot while confirming the target object based on image data from the camera, wherein the control device performs image-capture control and focus control, when moving the working section with respect to the target object according to a predetermined trajectory, the image-capture control executing image-capturing of the target object with the camera a plurality of times, the focus control focusing to predetermined images within a plurality of images captured by image-capture control, wherein image-capture control is performed at fixed time intervals, and focus control is performed so that the lens is focused at predetermined positions specified along the trajectory of the camera, characterised in that the control device performs the image-capturing at a position at which the target object is focused among the plurality of images captured, in synchronization with the focus control to focus the camera, ahead of the image-capture position, at a movement position ahead in the movement direction of the working section that moves toward the target object. a robot having a working section for performing an operation on a target object; a camera provided to the robot in a vicinity of the working section, and a control device that performs drive control of the robot while confirming the target object based on image data from the camera, wherein the control device performs image-capture control and focus control, when moving the working section with respect to the target object according to a predetermined trajectory, the image-capture control executing image-capturing of the target object with the camera a plurality of times, the focus control focusing to predetermined images within a plurality of images captured by image-capture control, wherein image-capture control is performed at fixed time intervals, and focus control is performed so that the lens is focused at predetermined positions specified along the trajectory of the camera, characterised in that the control device performs the image-capturing at a position at which the target object is focused among the plurality of images captured, in synchronization with the focus control to focus the camera, ahead of the image-capture position, at a movement position ahead in the movement direction of the working section that moves toward the target object.
A coated component, comprising: a substrate defining a surface; a ceramic coating disposed on the surface of the substrate; and a reactive phase coating disposed along the ceramic coating, wherein the ceramic coating comprises a plurality of slots disposed in the ceramic coating forming a plurality of segments of ceramic coating material, wherein each individual slot in the plurality of slots has a width of 10 microns to 200 microns and a depth of 50 microns to 1000 microns. a substrate defining a surface; a ceramic coating disposed on the surface of the substrate; and a reactive phase coating disposed along the ceramic coating, wherein the ceramic coating comprises a plurality of slots disposed in the ceramic coating forming a plurality of segments of ceramic coating material, wherein each individual slot in the plurality of slots has a width of 10 microns to 200 microns and a depth of 50 microns to 1000 microns.
An autonomous mobile cleaner comprising: a main body ; a suction unit having a handle and configured to maintain a predetermined distance from the main body and suck up surrounding foreign material; an air pipe configured to connect the main body and the suction unit and guide the foreign material into the main body ; a first driving wheel installed in a left side with respect to a traveling direction of the main body and a second driving wheel installed in a right side below the main body ; a driving unit configured to drive the first and second driving wheels by operating a driving motor; a wheel sensor connected to the first driving wheel and the second driving wheel and configured to sense rotation of the first driving wheel and the second driving wheel ; and a controller configured to control movement of the main body through the driving unit based on the rotation of the driving wheels sensed by the wheel sensor , characterized in that : when a difference between the rotation amount of the first driving wheel and the rotation amount of the second driving wheel , which are sensed by the wheel sensor , is greater than or equal to a predetermined value or when the rotation direction of the first driving wheel and the rotation direction of the second driving wheel are different from each other, the controller drives the first driving wheel and the second driving wheel in a predetermined obstruction avoidance pattern. a main body ; a suction unit having a handle and configured to maintain a predetermined distance from the main body and suck up surrounding foreign material; an air pipe configured to connect the main body and the suction unit and guide the foreign material into the main body ; a first driving wheel installed in a left side with respect to a traveling direction of the main body and a second driving wheel installed in a right side below the main body ; a driving unit configured to drive the first and second driving wheels by operating a driving motor; a wheel sensor connected to the first driving wheel and the second driving wheel and configured to sense rotation of the first driving wheel and the second driving wheel ; and a controller configured to control movement of the main body through the driving unit based on the rotation of the driving wheels sensed by the wheel sensor , characterized in that : when a difference between the rotation amount of the first driving wheel and the rotation amount of the second driving wheel , which are sensed by the wheel sensor , is greater than or equal to a predetermined value or when the rotation direction of the first driving wheel and the rotation direction of the second driving wheel are different from each other, the controller drives the first driving wheel and the second driving wheel in a predetermined obstruction avoidance pattern.
An electrode for a lithium secondary battery , comprising: an electrode layer ; a pre-lithiation prevention layer formed on the electrode layer ; and a lithium layer formed on the pre-lithiation prevention layer , characterized in that the pre-lithiation prevention layer includes polyvinylidene fluoride-co-hexafluoropropylene, wherein the pre-lithiation prevention layer has a thickness of 1 to 3 μ m, the pre-lithiation prevention layer has a lithium ion conductivity of 10 -3 S/cm or less, and the lithium layer has a thickness of 0.5 μm or more and less than 5 μm. an electrode layer ; a pre-lithiation prevention layer formed on the electrode layer ; and a lithium layer formed on the pre-lithiation prevention layer , characterized in that the pre-lithiation prevention layer includes polyvinylidene fluoride-co-hexafluoropropylene, wherein the pre-lithiation prevention layer has a thickness of 1 to 3 μ m, the pre-lithiation prevention layer has a lithium ion conductivity of 10 -3 S/cm or less, and the lithium layer has a thickness of 0.5 μm or more and less than 5 μm.