mhurhangee/patent-ind-claim-en huggingface dataset:
A wire rope inspection method comprising the steps of: applying a magnetic field to a wire rope (W) that is an inspection target; acquiring a detection signal by detecting a change in a magnetic flux of the wire rope (W) to which the magnetic field has been applied, while relatively moving with respect to the wire rope (W); acquiring a first-order differential waveform (F'(t)) by performing first differential processing on a magnetic flux waveform (F(t)) that is a signal waveform based on the acquired detection signal; acquiring a second-order differential waveform (F"(t)) by performing second differential processing on a positive component or a negative component of the acquired first-order differential waveform (F'(t)); generating a composite waveform by adding the positive component of the acquired second-order differential waveform (F"(t)) and an absolute value of the negative component of the acquired second-order differential waveform (F"(t)) in a state in which at least one of portions of the acquired second-order differential waveform (F"(t)) corresponding to the positive component and the absolute value of the negative component is shifted along a time axis based on a set shift amount (D, D200) such that the portions overlap with each other, the portions indicating an abnormal portion of the wire rope (W) and determining the abnormal portion of the wire rope (W) in a case where a value based on the generated composite waveform is greater than a predetermined determination threshold (S). applying a magnetic field to a wire rope (W) that is an inspection target; acquiring a detection signal by detecting a change in a magnetic flux of the wire rope (W) to which the magnetic field has been applied, while relatively moving with respect to the wire rope (W); acquiring a first-order differential waveform (F'(t)) by performing first differential processing on a magnetic flux waveform (F(t)) that is a signal waveform based on the acquired detection signal; acquiring a second-order differential waveform (F"(t)) by performing second differential processing on a positive component or a negative component of the acquired first-order differential waveform (F'(t)); generating a composite waveform by adding the positive component of the acquired second-order differential waveform (F"(t)) and an absolute value of the negative component of the acquired second-order differential waveform (F"(t)) in a state in which at least one of portions of the acquired second-order differential waveform (F"(t)) corresponding to the positive component and the absolute value of the negative component is shifted along a time axis based on a set shift amount (D, D200) such that the portions overlap with each other, the portions indicating an abnormal portion of the wire rope (W) and determining the abnormal portion of the wire rope (W) in a case where a value based on the generated composite waveform is greater than a predetermined determination threshold (S).
A storage device comprising a controller and a flash memory including a first memory block and a second memory block, the controller comprising: a host interface configured to receive data requested for storage from a host , and receive from the host lifetime information, wherein the lifetime information indicates a change period of the data, wherein the change period of the data includes at least one of a time interval between creation and modification of the data, a time interval between creation and deletion of the data, and a time interval between modification and deletion of the data, and wherein the lifetime information includes lifetime grades produced by classifying the change period of the data into N grades, where N is a natural number, according to a length of the change period; and a data placement manager configured to a) determine a storage position of the data in the flash memory based on the lifetime information of the data; b) again determine the storage position of the data based on the changed lifetime information when the lifetime information of the data stored in the flash memory is changed; c) migrate the data to the second memory block when the lifetime grade of the data stored in the first memory block is changed; and d) determine the storage position of data having an equal lifetime grade in a corresponding memory block. a host interface configured to receive data requested for storage from a host , and receive from the host lifetime information, wherein the lifetime information indicates a change period of the data, wherein the change period of the data includes at least one of a time interval between creation and modification of the data, a time interval between creation and deletion of the data, and a time interval between modification and deletion of the data, and wherein the lifetime information includes lifetime grades produced by classifying the change period of the data into N grades, where N is a natural number, according to a length of the change period; and a data placement manager configured to a) determine a storage position of the data in the flash memory based on the lifetime information of the data; b) again determine the storage position of the data based on the changed lifetime information when the lifetime information of the data stored in the flash memory is changed; c) migrate the data to the second memory block when the lifetime grade of the data stored in the first memory block is changed; and d) determine the storage position of data having an equal lifetime grade in a corresponding memory block. a) determine a storage position of the data in the flash memory based on the lifetime information of the data; b) again determine the storage position of the data based on the changed lifetime information when the lifetime information of the data stored in the flash memory is changed; c) migrate the data to the second memory block when the lifetime grade of the data stored in the first memory block is changed; and d) determine the storage position of data having an equal lifetime grade in a corresponding memory block.
Method for avoiding a collision between a vehicle and a road user having a mobile radio interface , characterized in that the method comprises the following steps: - carrying out at least three radio measurements, wherein each radio measurement takes place between in each case one of at least three separate radio stations and the mobile radio interface of the road user, and wherein in the radio measurements exclusively respective distances between the respective radio station and the mobile radio interface are measured, and wherein one of the radio stations is the vehicle , and wherein one or some or all of the other radio stations which are not the vehicle is/are a respective further vehicle or a respective road infrastructure device, - calculating the position of the mobile radio interface on the basis of the distances measured by means of the radio measurements, wherein the radio stations exchange data with one another in order to carry out the method, which data relates to the measured distances and the station's own positions, - determining whether there is a risk of a collision between the vehicle and the road user having the mobile radio interface , and - outputting, in response to a detected risk of collision, a warning message or carrying out a collision avoidance manoeuvre by means of the vehicle . - carrying out at least three radio measurements, wherein each radio measurement takes place between in each case one of at least three separate radio stations and the mobile radio interface of the road user, and wherein in the radio measurements exclusively respective distances between the respective radio station and the mobile radio interface are measured, and wherein one of the radio stations is the vehicle , and wherein one or some or all of the other radio stations which are not the vehicle is/are a respective further vehicle or a respective road infrastructure device, - calculating the position of the mobile radio interface on the basis of the distances measured by means of the radio measurements, wherein the radio stations exchange data with one another in order to carry out the method, which data relates to the measured distances and the station's own positions, - determining whether there is a risk of a collision between the vehicle and the road user having the mobile radio interface , and - outputting, in response to a detected risk of collision, a warning message or carrying out a collision avoidance manoeuvre by means of the vehicle .
A method for visualizing an assembly of parts for an object , the method comprising: identifying a shop order instance for the assembly of parts for the object ; identifying a volume for the shop order instance ; displaying the assembly of parts within the volume in context with a number of assemblies of other parts within the volume ,wherein installation of one of the number of assemblies of other parts within the volume blocks installation of the assembly of parts ; displaying a set of graphical indicators (231, 1312-1318) in association with at least one of the assembly of parts and the number of assemblies , wherein the set of graphical indicators indicates a status of shop order instances for the assembly and the number of assemblies , wherein said status indicates one of: work that is to be performed; work that has been completed; and work that is in progress; and toggling, responsive to user input, between: displaying the assembly of parts within the volume in context with the number of assemblies of other parts within the volume ; and displaying the assembly of parts alone without the context with the other parts within the volume . identifying a shop order instance for the assembly of parts for the object ; identifying a volume for the shop order instance ; displaying the assembly of parts within the volume in context with a number of assemblies of other parts within the volume ,wherein installation of one of the number of assemblies of other parts within the volume blocks installation of the assembly of parts ; displaying a set of graphical indicators (231, 1312-1318) in association with at least one of the assembly of parts and the number of assemblies , wherein the set of graphical indicators indicates a status of shop order instances for the assembly and the number of assemblies , wherein said status indicates one of: work that is to be performed; work that has been completed; and work that is in progress; and toggling, responsive to user input, between: displaying the assembly of parts within the volume in context with the number of assemblies of other parts within the volume ; and displaying the assembly of parts alone without the context with the other parts within the volume . displaying the assembly of parts within the volume in context with the number of assemblies of other parts within the volume ; and displaying the assembly of parts alone without the context with the other parts within the volume .
Circuit board having at least one insulating substrate level (SL1, SL2, SL3, S14, SL5) and a multiplicity of electrically conductive copper layers (C1, C2, C3) arranged on the at least one insulating substrate level (SL1, SL2, SL3, S14, SL5), wherein at least one of the electrically conductive copper layers (C1, C2, C3) is coated at least on both sides with a layer (HS1, HS2, HS3) of a material for inhibiting electromigration, a further metal layer (M1, M2, M3, M3') being provided on a layer (HS1, HS2) of a material for inhibiting electromigration, which further metal layer is in turn coated with a further layer (HS3, HS3') of a material for inhibiting electromigration.
A method of characterising performance of a compressor and/or turbine flow machine having a rotor interacting with a flow field, the method comprising the steps of: receiving performance data for the compressor and/or turbine flow machine comprising data values of a pressure change across the rotor and inlet mass flow for the compressor and/or turbine flow machine at one or more defined rotor condition, the defined rotor condition comprising a fixed rotor speed, the performance data defining a two-dimensional array of data in which points for a common rotor condition are identifiable; the method being characterised in that it further comprises the steps of: calculating the exit mass flow values for the flow downstream of the rotor; and identifying one or more point in the received performance data and interpolating from said one or more point to a corresponding one or more point at a different rotor condition based on a correlation of the exit mass flow values for said points. receiving performance data for the compressor and/or turbine flow machine comprising data values of a pressure change across the rotor and inlet mass flow for the compressor and/or turbine flow machine at one or more defined rotor condition, the defined rotor condition comprising a fixed rotor speed, the performance data defining a two-dimensional array of data in which points for a common rotor condition are identifiable; the method being characterised in that it further comprises the steps of: calculating the exit mass flow values for the flow downstream of the rotor; and identifying one or more point in the received performance data and interpolating from said one or more point to a corresponding one or more point at a different rotor condition based on a correlation of the exit mass flow values for said points. calculating the exit mass flow values for the flow downstream of the rotor; and identifying one or more point in the received performance data and interpolating from said one or more point to a corresponding one or more point at a different rotor condition based on a correlation of the exit mass flow values for said points.
A resin bead comprising functional groups of structure(S1) wherein -X- is a bivalent linking group, wherein -Y is a monovalent group having structure (S2) wherein the circular structure in structure (S2) has four or more atoms, wherein the mole ratio of multivalent atomic cations to -X- groups is either 0:1 or is 0.01:1 or lower.
A sensorized roller of a bearing, the sensorized roller comprising a hollow bore extending in an axial direction of the roller whereby a sensor module comprising one or more deformation sensors for detecting deformation of the roller bore due to a radial load acting on the roller is arranged within the roller bore, characterized in that: the sensor module comprises a rigid housing that is shaped to fit inside the roller bore and is mounted thereto with a small radial clearance between an outer cylindrical surface of the housing an inner cylindrical surface of the roller bore, wherein each of the one or more deformation sensors is formed as a proximity sensor that is accommodated at the outer cylindrical surface of the housing such that a sensing element of the proximity sensor faces a radially inner surface of the roller bore and measures a radial gap therebetween.
A wax burning system comprising: a) a melted wax reservoir ; b) a melting grate configured to receive a solid wax , the melting grate located above at least a portion of the melted wax reservoir so that wax melted on the melting grate can be received into the melted wax reservoir ; c) a wick comprising c1) a perimeter wall, c2) a hollow core and an upper exit opening in communication with the hollow core , the hollow core forming a burn chamber extending above the melting grate , wherein the hollow core is sized to stage vapor phase fuel below a flame adjacent the upper exit opening to create a partially oxygen deprived condition at the flame on the wick , characterized in that c3) the wick comprises a bridge made of a wick material, wherein the bridge has a first end and a second end, the first end joins with a first portion of the perimeter wall, the second end joins with a second portion of the perimeter wall, the bridge extends across the hollow core between the first and second portion of the perimeter wall. a) a melted wax reservoir ; b) a melting grate configured to receive a solid wax , the melting grate located above at least a portion of the melted wax reservoir so that wax melted on the melting grate can be received into the melted wax reservoir ; c) a wick comprising c1) a perimeter wall, c2) a hollow core and an upper exit opening in communication with the hollow core , the hollow core forming a burn chamber extending above the melting grate , wherein the hollow core is sized to stage vapor phase fuel below a flame adjacent the upper exit opening to create a partially oxygen deprived condition at the flame on the wick , characterized in that c3) the wick comprises a bridge made of a wick material, wherein the bridge has a first end and a second end, the first end joins with a first portion of the perimeter wall, the second end joins with a second portion of the perimeter wall, the bridge extends across the hollow core between the first and second portion of the perimeter wall. c1) a perimeter wall, c2) a hollow core and an upper exit opening in communication with the hollow core , the hollow core forming a burn chamber extending above the melting grate , wherein the hollow core is sized to stage vapor phase fuel below a flame adjacent the upper exit opening to create a partially oxygen deprived condition at the flame on the wick , characterized in that c3) the wick comprises a bridge made of a wick material, wherein the bridge has a first end and a second end, the first end joins with a first portion of the perimeter wall, the second end joins with a second portion of the perimeter wall, the bridge extends across the hollow core between the first and second portion of the perimeter wall.
A method of forming a viewing panel for a microwave oven comprising: placing a film including a conductive coating into a mold and molding a substrate to a surface of the film having the conductive coating to form the viewing panel; or injection molding a substrate and applying a conductive coating to a surface of the substrate after molding to form the viewing panel; wherein the substrate is selected from a transparent polymer or glass; the conductive coating has an EMI shielding effectiveness of greater than 25 dB from 30 MHz to 3.0 GHz as determined by ASTM D4935; and the viewing panel has a transmittance of greater than or equal to 50% of incident light having a frequency of 430 THz to 790 THz; wherein the conductive coating is adhered to a film and the film is coupled to the substrate. placing a film including a conductive coating into a mold and molding a substrate to a surface of the film having the conductive coating to form the viewing panel; or injection molding a substrate and applying a conductive coating to a surface of the substrate after molding to form the viewing panel; wherein the substrate is selected from a transparent polymer or glass; the conductive coating has an EMI shielding effectiveness of greater than 25 dB from 30 MHz to 3.0 GHz as determined by ASTM D4935; and the viewing panel has a transmittance of greater than or equal to 50% of incident light having a frequency of 430 THz to 790 THz; the substrate is selected from a transparent polymer or glass; the conductive coating has an EMI shielding effectiveness of greater than 25 dB from 30 MHz to 3.0 GHz as determined by ASTM D4935; and the viewing panel has a transmittance of greater than or equal to 50% of incident light having a frequency of 430 THz to 790 THz; wherein the conductive coating is adhered to a film and the film is coupled to the substrate.
A method for updating of board software installed in a wireless network card, wherein a wireless network card is connected to a personal computer loaded with a software updating tool by a USB interface, wherein the USB interface is mapped to an RNDIS interface by the wireless network card after being connected to the personal computer loaded with a software updating tool, and the method comprises: receiving, by the wireless network card, an interface switching request or a web page request sent through the RNDIS interface by the personal computer ; according to the interface switching request or the web page request, switching, by the wireless network card, the RNDIS interface into a personal computer user interface, PCUI, which is used to transmit data in the updating method; and when the personal computer determines that the RNDIS interface of the wireless network card is switched successfully, receiving, by the wireless network card, a software update package transmitted through the PCUI by the personal computer, and performing installation . receiving, by the wireless network card, an interface switching request or a web page request sent through the RNDIS interface by the personal computer ; according to the interface switching request or the web page request, switching, by the wireless network card, the RNDIS interface into a personal computer user interface, PCUI, which is used to transmit data in the updating method; and when the personal computer determines that the RNDIS interface of the wireless network card is switched successfully, receiving, by the wireless network card, a software update package transmitted through the PCUI by the personal computer, and performing installation .
A wet/dry vacuum cleaner comprising: - A dust collection tank having at least one suction inlet ; - a bypass suction unit having a separate fan for cooling air and a fan inside a fan housing generating the suction air stream located inside a housing arranged next to or inside the dust collection tank ; - at least one filter arranged to filter air sucked into the dust collection tank through the at least one suction inlet ; - at least one dust detection module , characterised in that only a part of the suction air stream is guided to the dust detection module and that the lowest part of the electronic components of the dust detection module is located in a larger distance (D 1 ) from ground (G) than the distance (D 2 ) from ground (G) to the upper suction air outlet on fan housing when the wet/dry vacuum cleaner is located in its intended working position. - A dust collection tank having at least one suction inlet ; - a bypass suction unit having a separate fan for cooling air and a fan inside a fan housing generating the suction air stream located inside a housing arranged next to or inside the dust collection tank ; - at least one filter arranged to filter air sucked into the dust collection tank through the at least one suction inlet ; - at least one dust detection module , characterised in that only a part of the suction air stream is guided to the dust detection module and that the lowest part of the electronic components of the dust detection module is located in a larger distance (D 1 ) from ground (G) than the distance (D 2 ) from ground (G) to the upper suction air outlet on fan housing when the wet/dry vacuum cleaner is located in its intended working position.