mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a longitudinally-corrugated web, comprising: first, guiding a web of medium material around a portion of an outer circumferential surface of a guide roll , wherein one portion of the guide roll is adjustably movable relative to another portion of the guide roll such that a path length of an edge portion of the web is shortened relative to a path length of a center portion of the web after leaving the guide roll ; then, drawing the web of medium material through a plurality of flute forming bars oriented generally along a longitudinal axis of the web to define a first corrugating labyrinth to longitudinally corrugate the web of medium material , wherein the plurality of flute forming bars include an upper set of flute forming bars disposed above the web of medium material , and a lower set of flute forming bars disposed below the web of medium material , wherein the upper and lower sets of flute forming bars are interdigitated so as to define the first corrugating labyrinth ; dynamically adjusting the vertical distance or gap between the upper and lower sets between an entrance end to the exit end of the plurality of flute forming bars while the web of medium material is actively moving through the first corrugating labyrinth . first, guiding a web of medium material around a portion of an outer circumferential surface of a guide roll , wherein one portion of the guide roll is adjustably movable relative to another portion of the guide roll such that a path length of an edge portion of the web is shortened relative to a path length of a center portion of the web after leaving the guide roll ; then, drawing the web of medium material through a plurality of flute forming bars oriented generally along a longitudinal axis of the web to define a first corrugating labyrinth to longitudinally corrugate the web of medium material , wherein the plurality of flute forming bars include an upper set of flute forming bars disposed above the web of medium material , and a lower set of flute forming bars disposed below the web of medium material , wherein the upper and lower sets of flute forming bars are interdigitated so as to define the first corrugating labyrinth ; dynamically adjusting the vertical distance or gap between the upper and lower sets between an entrance end to the exit end of the plurality of flute forming bars while the web of medium material is actively moving through the first corrugating labyrinth .
A method for monitoring performance of at least one component on a moving platform, the method comprising: receiving sensor data for the at least one component, along with supplemental data, at a processing node; and processing the sensor data, the processing using the supplemental data to filter the sensor data; wherein the supplemental data comprises a location fix and at least one of: a time stamp, an image from a camera on the moving platform, a temperature, a pressure, weather conditions, map information, historic data from the moving platform, historic data from a different moving platform, or load information; wherein the at least one component is a wheel assembly, and wherein the sensor data comprises data from at least one of: a bearing sensor; a tire pressure monitoring sensor; or an acoustic sensor; wherein the processing comprises: retrieving, based on the location fix, road conditions from a database; and filtering the sensor data based on the road conditions. receiving sensor data for the at least one component, along with supplemental data, at a processing node; and processing the sensor data, the processing using the supplemental data to filter the sensor data; wherein the at least one component is a wheel assembly, and wherein the sensor data comprises data from at least one of: a bearing sensor; a tire pressure monitoring sensor; or an acoustic sensor; wherein the processing comprises: retrieving, based on the location fix, road conditions from a database; and filtering the sensor data based on the road conditions. retrieving, based on the location fix, road conditions from a database; and filtering the sensor data based on the road conditions.
A system comprising: - a water heater comprising a water tank and a device for heating the water in the tank , the device comprising first heating means powered by a power grid ; - hot water consuming home equipment , distinct from said water heater, the equipment being able to be supplied with both cold water and/or hot water, and comprising second heating means powered by the power grid ; the system further comprising a control element configured to enable or disable the hot water supply to the equipment from the tank depending on at least data descriptive of a state of said power grid . - a water heater comprising a water tank and a device for heating the water in the tank , the device comprising first heating means powered by a power grid ; - hot water consuming home equipment , distinct from said water heater, the equipment being able to be supplied with both cold water and/or hot water, and comprising second heating means powered by the power grid ; the system further comprising a control element configured to enable or disable the hot water supply to the equipment from the tank depending on at least data descriptive of a state of said power grid .
A computer-implemented method for performing VM migration, comprising: storing dirty page tracking data in a memory of a peripheral component interconnect express, PCIe, device that is installed in a host machine that is running a hypervisor that manages a virtual machine, VM, running on the host machine; running a dirty page tracker of a physical function, PF, of the PCIe device ; bypassing, by a virtual function, VF, that is implemented by the PCIe device , the hypervisor while writing into a memory page of a VM ; sending, by the VF , to the dirty page tracker a dirty page indicator for the memory page; setting, by the dirty page tracker, the dirty page tracking data to indicate that the memory page is dirty; and providing the hypervisor with access to the dirty page tracking data via the PF wherein the dirty page tracker is not in the hypervisor. storing dirty page tracking data in a memory of a peripheral component interconnect express, PCIe, device that is installed in a host machine that is running a hypervisor that manages a virtual machine, VM, running on the host machine; running a dirty page tracker of a physical function, PF, of the PCIe device ; bypassing, by a virtual function, VF, that is implemented by the PCIe device , the hypervisor while writing into a memory page of a VM ; sending, by the VF , to the dirty page tracker a dirty page indicator for the memory page; setting, by the dirty page tracker, the dirty page tracking data to indicate that the memory page is dirty; and providing the hypervisor with access to the dirty page tracking data via the PF wherein the dirty page tracker is not in the hypervisor.
Method for processing and activating steelworks slags, preferably LD slags, as hydraulic composite materials for the cement industry, characterized in that fluid steelworks slags are cooled, wherein they solidify at the earliest after four hours, at least 30 mass percent mineral crystalline belite phase is present in the solidified steelworks slags, the solidified steelworks slags are communited to a fineness of from at least 5,500 Blaine to 7,000 Blaine, wherein the crystals of the belite phase are freed from the non-reactive phases surrounding them, and the communited steelworks slags are fed to a use as hydraulic composite material for the cement industry.
A vascular infusion system , comprising: a vascular access device configured to be coupled to an injector pump for injecting an infusant into the vasculature of a patient, the vascular access device comprising a catheter through which the infusant is injected, the catheter comprising a catheter adapter that couples to the injector pump and a tubular body member that extends from the catheter adapter, the tubular body member having an outer surface, a proximal end, a distal end, a lumen extending between the proximal and distal ends, a tapered tip at the distal end, and a distal lumen opening , the catheter adapter further including an introducer needle that is contained within the lumen and extends distally from the distal lumen opening of the tubular body member; wherein the tubular body member comprises: a recess formed in the outer surface, the recess comprising a small concavity defined by a surface and adjacent sidewalls and a diffusion hole positioned in the surface of the recess, the hole being formed through a wall thickness of the tubular body member and in fluid communication with the lumen. a vascular access device configured to be coupled to an injector pump for injecting an infusant into the vasculature of a patient, the vascular access device comprising a catheter through which the infusant is injected, the catheter comprising a catheter adapter that couples to the injector pump and a tubular body member that extends from the catheter adapter, the tubular body member having an outer surface, a proximal end, a distal end, a lumen extending between the proximal and distal ends, a tapered tip at the distal end, and a distal lumen opening , the catheter adapter further including an introducer needle that is contained within the lumen and extends distally from the distal lumen opening of the tubular body member; wherein the tubular body member comprises: a recess formed in the outer surface, the recess comprising a small concavity defined by a surface and adjacent sidewalls and a diffusion hole positioned in the surface of the recess, the hole being formed through a wall thickness of the tubular body member and in fluid communication with the lumen.
A method for recognizing a contingency in a power supply network, PSN, , the method comprising the steps of: (a) processing (S21) measurement data (MD 1 ,...,MD n ) generated by in-field measurement devices (3-1,...,3-n) of said power supply network by a local network state estimation model (LNSM) to calculate local network state profiles (LNSP 1 ,...,LNSP n ); (b) generating (S22) a global network state profile (GNSP) from the local network state profiles (LNSP 1 ,...,LNSP n ); (c) processing (S23) the measurement data (MD 1 ,...,MD n ) generated by the in-field measurement devices (3-1,...,3-n) of said power supply network to provide a relevance profile (RP) comprising for the in-field measurement devices (3-1,...,3-n) a relevance distribution indicating a probability where the origin of a contingency within the power supply network resides; and (d) computing (S24) a similarity between a candidate contingency profile (CCP) being formed by the generated global network state profile (GNSP) and formed by the calculated relevance profile (RP) and reference contingency profiles (rCP) stored in a reference contingency database to identify the reference contingency profile (rCP) having the highest computed similarity as the recognized contingency. (a) processing (S21) measurement data (MD 1 ,...,MD n ) generated by in-field measurement devices (3-1,...,3-n) of said power supply network by a local network state estimation model (LNSM) to calculate local network state profiles (LNSP 1 ,...,LNSP n ); (b) generating (S22) a global network state profile (GNSP) from the local network state profiles (LNSP 1 ,...,LNSP n ); (c) processing (S23) the measurement data (MD 1 ,...,MD n ) generated by the in-field measurement devices (3-1,...,3-n) of said power supply network to provide a relevance profile (RP) comprising for the in-field measurement devices (3-1,...,3-n) a relevance distribution indicating a probability where the origin of a contingency within the power supply network resides; and (d) computing (S24) a similarity between a candidate contingency profile (CCP) being formed by the generated global network state profile (GNSP) and formed by the calculated relevance profile (RP) and reference contingency profiles (rCP) stored in a reference contingency database to identify the reference contingency profile (rCP) having the highest computed similarity as the recognized contingency.
A method in a network node for multiplexing a physical channel , between the network node and devices comprised in a mixed wireless network , wherein the mixed wireless network further comprises a cellular network comprising one or more cellular channels and a Device-to-Device, D2D, network comprising one or more D2D channels, the method comprising: time division multiplexing the physical channel between a first group of cellular channels and a first group of D2D channels ; and frequency division multiplexing the physical channel between a second group of cellular channels and the first group of D2D channels ; wherein the physical channel comprises two types of subframes: a cellular-only subframe and a D2D and cellular-compatible subframe , and wherein the cellular-only subframe is associated with the first group of cellular channels , and the D2D and cellular-compatible subframe is associated with the second group of cellular channels and the first group of D2D channels ; the method further comprising positioning repetitively cellular-only and D2D and cellular-compatible subframes within the physical channel , characterized in that the positioning repetitively of cellular-only and D2D and cellular-compatible subframes within the physical channel is done with a timing pattern, and wherein the timing pattern is based on a Hybrid Automatic Repeat Request, HARQ, timing of the cellular network . time division multiplexing the physical channel between a first group of cellular channels and a first group of D2D channels ; and frequency division multiplexing the physical channel between a second group of cellular channels and the first group of D2D channels ; wherein the physical channel comprises two types of subframes: a cellular-only subframe and a D2D and cellular-compatible subframe , and wherein the cellular-only subframe is associated with the first group of cellular channels , and the D2D and cellular-compatible subframe is associated with the second group of cellular channels and the first group of D2D channels ; the method further comprising positioning repetitively cellular-only and D2D and cellular-compatible subframes within the physical channel , characterized in that the positioning repetitively of cellular-only and D2D and cellular-compatible subframes within the physical channel is done with a timing pattern, and wherein the timing pattern is based on a Hybrid Automatic Repeat Request, HARQ, timing of the cellular network .
An object recognition device configured to recognize an object by using measurement results of a laser distance measurement sensor , the object recognition device comprising: an acquisition unit configured to acquire the measurement results of the laser distance measurement sensor ; a time-series data creation unit configured to create time-series data of the measurement results by arranging the measurement results in time series, said time-series data being an occupancy grid map for each measurement time, said occupancy grid map for each measurement time being a time-series map of the measurement results created associating the measurement results with grid-shaped cells indicating coordinates in a space in time series; and a recognition unit configured to recognize a position and a size of the object indicated by the measurement results by grouping the measurement results close to each other on the grids described by the time-series data, wherein the time-series data creation unit is further configured to create the time-series data by retaining the measurement result described by the time-series data for a predetermined time and deleting the measurement result which is not updated continuously for the predetermined time or more, characterized in that the object recognition device further includes a reliability calculation unit configured to calculate reliability of the position and size of the object recognized by the recognition unit, and the time-series data creation unit is further configured to change a time for retaining the measurement result on the time-series data according to the reliability. an acquisition unit configured to acquire the measurement results of the laser distance measurement sensor ; a time-series data creation unit configured to create time-series data of the measurement results by arranging the measurement results in time series, said time-series data being an occupancy grid map for each measurement time, said occupancy grid map for each measurement time being a time-series map of the measurement results created associating the measurement results with grid-shaped cells indicating coordinates in a space in time series; and a recognition unit configured to recognize a position and a size of the object indicated by the measurement results by grouping the measurement results close to each other on the grids described by the time-series data, wherein the time-series data creation unit is further configured to create the time-series data by retaining the measurement result described by the time-series data for a predetermined time and deleting the measurement result which is not updated continuously for the predetermined time or more, characterized in that the object recognition device further includes a reliability calculation unit configured to calculate reliability of the position and size of the object recognized by the recognition unit, and the time-series data creation unit is further configured to change a time for retaining the measurement result on the time-series data according to the reliability.
An integrated circuit device, comprising: an interlayer dielectric, ILD, layer having a plurality of trenches formed therein, wherein the plurality of trenches includes three trenches, including a left trench, a middle trench, and a right trench, each trench having sidewalls and a bottom defined by a lower metal; an insulator layer only on the bottom of the middle trench included in the plurality, the insulator layer covering the lower metal defining the bottom of the middle trench; a fill metal in each of the trenches, the fill metal in electrical contact with the lower metal defining the bottom of each trench, except that the lower metal defining the bottom of the middle trench is isolated from the fill metal by the insulator layer ; and a lateral interconnect that electrically connects the fill metal of the left, middle, and right trenches. an interlayer dielectric, ILD, layer having a plurality of trenches formed therein, wherein the plurality of trenches includes three trenches, including a left trench, a middle trench, and a right trench, each trench having sidewalls and a bottom defined by a lower metal; an insulator layer only on the bottom of the middle trench included in the plurality, the insulator layer covering the lower metal defining the bottom of the middle trench; a fill metal in each of the trenches, the fill metal in electrical contact with the lower metal defining the bottom of each trench, except that the lower metal defining the bottom of the middle trench is isolated from the fill metal by the insulator layer ; and a lateral interconnect that electrically connects the fill metal of the left, middle, and right trenches.
A method for applying a vacuum based pressure on an uncured composite structure , the method comprising: bonding membranes to a boundary of a caul , wherein the membranes include positive features that define vacuum channels ; and splicing the membranes to each other, wherein the positive features that define the vacuum channels in the membranes are aligned to each other during splicing of the membranes , the membranes spliced to each other and bonded to the caul to form an integrated caul , and the integrated caul applies a pressure on the uncured composite structure during operation of the integrated caul . bonding membranes to a boundary of a caul , wherein the membranes include positive features that define vacuum channels ; and splicing the membranes to each other, wherein the positive features that define the vacuum channels in the membranes are aligned to each other during splicing of the membranes , the membranes spliced to each other and bonded to the caul to form an integrated caul , and the integrated caul applies a pressure on the uncured composite structure during operation of the integrated caul .
A turbine engine component comprising: a fiber structure ; a matrix embedding the fiber structure ; and a carbon nanotube filler in the matrix , characterised in that : the fiber structure forms at least a portion of an airfoil ; and the carbon nanotube filler has a content of 0.05-0.49% in the matrix by weight. a fiber structure ; a matrix embedding the fiber structure ; and a carbon nanotube filler in the matrix , characterised in that : the fiber structure forms at least a portion of an airfoil ; and the carbon nanotube filler has a content of 0.05-0.49% in the matrix by weight. the fiber structure forms at least a portion of an airfoil ; and the carbon nanotube filler has a content of 0.05-0.49% in the matrix by weight.
A method for color correcting a digital print, wherein, in a first step, a specified digital image is provided to a digital printer as a color-separate digital image with at least one color channel pattern, wherein each color channel pattern is associated with a print color channel of the digital printer and has information relating to the printing position and printing size of the printing points to be placed by the printer of the corresponding print color channel, and a printing point is defined by the printing position and size thereof, wherein the method additionally comprises the steps of: a) providing correction data for the digital print, wherein the correction data at least comprises a correction value for at least one color channel pattern, b) using the correction data on the color-separate digital image, wherein a color-corrected color-separate digital image is obtained, c) printing the color-corrected color-separate digital image using the digital printer, wherein the correction value is used on the printing points intended for the color channel pattern by adjusting the printing point sizes of at least a part of the printing points of the color channel pattern depending on the correction value. a) providing correction data for the digital print, wherein the correction data at least comprises a correction value for at least one color channel pattern, b) using the correction data on the color-separate digital image, wherein a color-corrected color-separate digital image is obtained, c) printing the color-corrected color-separate digital image using the digital printer, wherein the correction value is used on the printing points intended for the color channel pattern by adjusting the printing point sizes of at least a part of the printing points of the color channel pattern depending on the correction value.
An Ad5 serotype adenovirus characterised by the modifications comprising: a) at least one of I421G, T423N, E424S, E450Q or L426Y point mutation(s) in the hexon hypervariable region 7 (HVR7 mutation) wherein said mutation prevents virus binding with coagulation factor 10 (FX); b) at least one of S408E or P409A point mutation(s) in the fiber knob region AB loop (KO1 mutation) wherein said mutation prevents virus binding with the coxsackie and adenovirus receptor (CAR); and c) at least one of D342E or D342A point mutation(s) in the penton integrin binding motif Arg-Gly-Asp (RGD) wherein said mutation prevents virus binding with αvβ 3 /αvβ 5 integrin. a) at least one of I421G, T423N, E424S, E450Q or L426Y point mutation(s) in the hexon hypervariable region 7 (HVR7 mutation) wherein said mutation prevents virus binding with coagulation factor 10 (FX); b) at least one of S408E or P409A point mutation(s) in the fiber knob region AB loop (KO1 mutation) wherein said mutation prevents virus binding with the coxsackie and adenovirus receptor (CAR); and c) at least one of D342E or D342A point mutation(s) in the penton integrin binding motif Arg-Gly-Asp (RGD) wherein said mutation prevents virus binding with αvβ 3 /αvβ 5 integrin.