mhurhangee/patent-ind-claim-en huggingface dataset:
A method of decoding a chipless RFID tag comprising: transmitting an interrogation signal from one or more test positions relative to the RFID tag; receiving one or more test response signals from the RFID tag, the one or more test response signals respectively responsive to the interrogation signal transmitted from the one or more test positions; characterized in that it also comprises the steps of : simulating a plurality of simulated response signals corresponding to a plurality of simulated positions of the interrogation signal; and training a decoding processor to decode an identification (ID) of the RFID tag using the test response signals and the simulated response signals. transmitting an interrogation signal from one or more test positions relative to the RFID tag; receiving one or more test response signals from the RFID tag, the one or more test response signals respectively responsive to the interrogation signal transmitted from the one or more test positions; characterized in that it also comprises the steps of : simulating a plurality of simulated response signals corresponding to a plurality of simulated positions of the interrogation signal; and training a decoding processor to decode an identification (ID) of the RFID tag using the test response signals and the simulated response signals.
Synthetic hoisting rope comprising a solid core surrounded by a first braided load-bearing layer of a first set of strands that is surrounded by a second braided load-bearing layer of a second set of strands , characterized in that the first set and/or second set of strands comprise high performance fibers having a tenacity of at least 15 g/den, and wherein the second braided load-bearing layer has a load-bearing capacity of at least 60% of the total load-bearing capacity of the rope, wherein the load-bearing capacity of each load-bearing layer is determined according ISO 2307, and wherein the cross-sectional area of the solid core is less than 3%.
A method for determining the volume or the mass of a filling material , comprising the steps of: assuming an empty profile detection mode in the absence of a filling material; emitting a transmission signal in various directions to the surface of the filling material; receiving the transmission signal reflected on at least the surface of the filling material; generating echo curves from the reflected and subsequently received transmission signal, and determining a corresponding direction from which the respective transmission signal was reflected; determining an interference point profile from these echo curves that corresponds to the location of interfering objects; identifying, on the basis of the interference point profile, angles of a main beam direction, at which the main beam direction intersects an interfering object; assuming a volume or mass detection mode in the presence of a filling material; generating further echo curves; determining the volume or the mass of the filling material from the further echo curves, based on the interference point profile. assuming an empty profile detection mode in the absence of a filling material; emitting a transmission signal in various directions to the surface of the filling material; receiving the transmission signal reflected on at least the surface of the filling material; generating echo curves from the reflected and subsequently received transmission signal, and determining a corresponding direction from which the respective transmission signal was reflected; determining an interference point profile from these echo curves that corresponds to the location of interfering objects; identifying, on the basis of the interference point profile, angles of a main beam direction, at which the main beam direction intersects an interfering object; assuming a volume or mass detection mode in the presence of a filling material; generating further echo curves; determining the volume or the mass of the filling material from the further echo curves, based on the interference point profile.
A gas sensor, comprising a thermal conductivity detector, wherein the gas sensor comprises a substrate and a support material , wherein said thermal conductivity detector comprises an elongate multi-layered sensing element which is supported by the support material and, thus, is suspended so as to be separate from the substrate , wherein the elongate multi-layered sensing element is electrically heated by passing an electrical current through it; and a change in the steady-state temperature of the elongate multi-layered sensing element results in a change in its resistance thus that, by sensing the resistance change, a change in gas composition is identified, wherein said elongate multi-layered sensing element comprises an outer layer and an inner layer , the outer layer having a higher resistivity than the inner layer and a higher temperature coefficient of resistance than the inner layer , and wherein said outer layer is metallic and the inner layer is metallic.
Method for adapting a view on a display unit of a user interface, comprising the steps of: - calling a configuration mode for a split view with a first section (A) and a second section (B) on the display unit , - displaying a multiplicity of operating areas representing a respective range of functions as a demarcation region between the first section (A) and the second section (B), - selecting an operating area from the multiplicity of operating areas for displaying a corresponding range of functions in the first section (A) of the split view , and - confirming the selected operating area , wherein - selecting the operating area comprises moving the operating area , and - confirming the selected operating area comprises dropping the operating area in the first section (A), characterized by the steps of: - calling the configuration mode for the split view again, - determining a period without user interaction with the display unit in the configuration mode, and, in response thereto, - returning to a penultimate view . - calling a configuration mode for a split view with a first section (A) and a second section (B) on the display unit , - displaying a multiplicity of operating areas representing a respective range of functions as a demarcation region between the first section (A) and the second section (B), - selecting an operating area from the multiplicity of operating areas for displaying a corresponding range of functions in the first section (A) of the split view , and - confirming the selected operating area , wherein - selecting the operating area comprises moving the operating area , and - confirming the selected operating area comprises dropping the operating area in the first section (A), characterized by the steps of: - calling the configuration mode for the split view again, - determining a period without user interaction with the display unit in the configuration mode, and, in response thereto, - returning to a penultimate view .
A method for the accurate measurement of objects, wherein a camera is arranged on a manually operated portable jointed arm mounted on a support that is immobile during the measurement, in order to take two-dimensional images of the object that is to be measured and where the measurements are carried out based on the two-dimensional images taken with the camera and based on displacements that are carried out by the jointed arm during the measurements and recorded characterised in that the jointed arm comprises within its joints integral sensors arranged to record not only changes in angle, but also rotation of the joints of the arm, and that the camera is provided with a laser measuring means for measuring the distance between the object and the camera, and that the dimensions of the object is calculated based on the recorded displacements of the jointed arm together with the distance between the object and the camera in order to create a three-dimensional image of the object with the aid of photogrammetry and images taken from different views of the same object.
A method of communicating with downhole equipment in a borehole, comprising: (a) communicating wireless signals to exchange messages between a surface control system and downhole equipment to control performance of a downhole operation, wherein the messages are exchanged along a wireless communications path using a plurality of active wireless devices (402-414) provided along a tubing in the borehole ; (b) monitoring, by each wireless device (402-414) an indicator of quality of the wireless signals on the wireless communications path and storing a record of the monitored quality indicator at the wireless device; (c) receiving a message at a first wireless device of the plurality of wireless devices (402-414), wherein the message is addressed to one or more wireless devices of the plurality of wireless devices (402-414); (d) determining, at the first wireless device , whether the message is addressed to one or more other wireless devices (404-414) of the plurality of wireless devices (402-414), and if so, adaptively selecting, based on the stored monitored quality indicator at the first wireless device , an optimal second wireless device of the plurality of wireless devices (402-414) for receipt of the message; (e) forwarding the message to the second wireless device ; and (f) repeating steps (c) (d) and (e) at the second , and if necessary, one or more other wireless devices (404, 408-414) of the plurality of wireless devices (402-414) until the message has reached its ultimate destination or all destinations. (a) communicating wireless signals to exchange messages between a surface control system and downhole equipment to control performance of a downhole operation, wherein the messages are exchanged along a wireless communications path using a plurality of active wireless devices (402-414) provided along a tubing in the borehole ; (b) monitoring, by each wireless device (402-414) an indicator of quality of the wireless signals on the wireless communications path and storing a record of the monitored quality indicator at the wireless device; (c) receiving a message at a first wireless device of the plurality of wireless devices (402-414), wherein the message is addressed to one or more wireless devices of the plurality of wireless devices (402-414); (d) determining, at the first wireless device , whether the message is addressed to one or more other wireless devices (404-414) of the plurality of wireless devices (402-414), and if so, adaptively selecting, based on the stored monitored quality indicator at the first wireless device , an optimal second wireless device of the plurality of wireless devices (402-414) for receipt of the message; (e) forwarding the message to the second wireless device ; and (f) repeating steps (c) (d) and (e) at the second , and if necessary, one or more other wireless devices (404, 408-414) of the plurality of wireless devices (402-414) until the message has reached its ultimate destination or all destinations.
A curable composition comprising: an inorganic nitride; a compound which has a monovalent substituent selected from the group consisting of a boronic acid group, a boronic acid ester group, an aldehyde group, and a pyridinium group and has a molecular weight equal to or greater than 1,000; and a polymerizable monomer, wherein in a case where the compound has a molecular weight distribution, the molecular weight of the compound means a weight-average molecular weight which is measured by a Gel Permeation Chromatography method. an inorganic nitride; a compound which has a monovalent substituent selected from the group consisting of a boronic acid group, a boronic acid ester group, an aldehyde group, and a pyridinium group and has a molecular weight equal to or greater than 1,000; and a polymerizable monomer, wherein in a case where the compound has a molecular weight distribution, the molecular weight of the compound means a weight-average molecular weight which is measured by a Gel Permeation Chromatography method.
A thermally expandable composition comprising: a) A polymer component P comprising: a1) At least one epoxy-functional polymer EP, a2) Optionally at least one acid anhydride-functional polymer AP, and a3) Optionally at least one thermoplastic polymer TP, b) At least one chemical blowing agent BA, and c) At least one dihydrazide DH, wherein the at least one epoxy-functional polymer EP comprises at least one olefin glycidyl (meth)acrylate copolymer EP1 and/or at least one olefin alkyl acrylate glycidyl (meth)acrylate terpolymer EP2 and/or at least one glycidyl (meth)acrylate grafted (co)polymer EP3. a) A polymer component P comprising: a1) At least one epoxy-functional polymer EP, a2) Optionally at least one acid anhydride-functional polymer AP, and a3) Optionally at least one thermoplastic polymer TP, a1) At least one epoxy-functional polymer EP, a2) Optionally at least one acid anhydride-functional polymer AP, and a3) Optionally at least one thermoplastic polymer TP, b) At least one chemical blowing agent BA, and c) At least one dihydrazide DH, wherein the at least one epoxy-functional polymer EP comprises at least one olefin glycidyl (meth)acrylate copolymer EP1 and/or at least one olefin alkyl acrylate glycidyl (meth)acrylate terpolymer EP2 and/or at least one glycidyl (meth)acrylate grafted (co)polymer EP3.
A computer-implemented method comprising: obtaining a three-dimensional "3D" model of a subsurface region, based on data collected from current present-day subsurface structures, the three-dimensional model defined by an initial geological-time in the past when particles in the subsurface region are determined to have been originally deposited, the 3D model comprising one or more initial 2D reference horizon surfaces that are level-sets of the initial geological-time; performing a 3D interpolation to generate a refined geological-time in stages including: a two-dimensional "2D" interpolation of the geological-time along the one or more initial 2D reference horizon surfaces to generate one or more reshaped 2D reference horizon surfaces, and a one-dimensional "1D" interpolation of the geological-time from the one or more reshaped 2D reference horizon surfaces along one or more 1D interpolation lines to generate the refined geological-time, wherein each 1D interpolation line is approximately orthogonal to the initial 2D reference horizon surfaces; and displaying the 3D model according to the refined geological-time and the one or more reshaped 2D reference horizon surfaces . obtaining a three-dimensional "3D" model of a subsurface region, based on data collected from current present-day subsurface structures, the three-dimensional model defined by an initial geological-time in the past when particles in the subsurface region are determined to have been originally deposited, the 3D model comprising one or more initial 2D reference horizon surfaces that are level-sets of the initial geological-time; performing a 3D interpolation to generate a refined geological-time in stages including: a two-dimensional "2D" interpolation of the geological-time along the one or more initial 2D reference horizon surfaces to generate one or more reshaped 2D reference horizon surfaces, and a one-dimensional "1D" interpolation of the geological-time from the one or more reshaped 2D reference horizon surfaces along one or more 1D interpolation lines to generate the refined geological-time, wherein each 1D interpolation line is approximately orthogonal to the initial 2D reference horizon surfaces; and displaying the 3D model according to the refined geological-time and the one or more reshaped 2D reference horizon surfaces . a two-dimensional "2D" interpolation of the geological-time along the one or more initial 2D reference horizon surfaces to generate one or more reshaped 2D reference horizon surfaces, and a one-dimensional "1D" interpolation of the geological-time from the one or more reshaped 2D reference horizon surfaces along one or more 1D interpolation lines to generate the refined geological-time, wherein each 1D interpolation line is approximately orthogonal to the initial 2D reference horizon surfaces; and displaying the 3D model according to the refined geological-time and the one or more reshaped 2D reference horizon surfaces .
A computer processor implemented method for providing guidance to a user of a construction machine, said method being characterized in that it comprises: computing kinematic behavior of a construction machine based on data received from the construction machine while performing a construction task; selecting a general model for a type of the construction machine when a model specific to the construction machine is not available, the selected general model being associated with an objective for performing the construction task and defining parameters for operating the construction machine for performing the construction task; comparing the kinematic behavior with the selected general model; and sending feedback data to the construction machine based on the comparing to provide guidance to the user of the construction machine for performing the construction task. computing kinematic behavior of a construction machine based on data received from the construction machine while performing a construction task; selecting a general model for a type of the construction machine when a model specific to the construction machine is not available, the selected general model being associated with an objective for performing the construction task and defining parameters for operating the construction machine for performing the construction task; comparing the kinematic behavior with the selected general model; and sending feedback data to the construction machine based on the comparing to provide guidance to the user of the construction machine for performing the construction task.
An electronic apparatus comprising: a display ; a processor ; and a memory , wherein the memory stores instructions to enable the processor to: control the display to display at least one sentence: receive a user input regarding at least one character of the at least one sentence that is displayed; analyze, in response to the user input, the at least one sentence according to classification of sentence constituent elements of the at least one. sentence including the at least one character selected corresponding to the user input, in terms of grammatical characteristics of the sentence constituent elements; characterized in that the instructions further enable the processor to: obtain a plurality of character set candidates including the at least one character and at least one of neighboring characters; select a character set from among the plurality of character set candidates included in the at least one sentence according to the analysis of the at least one sentence; and display the selected character set to be distinguished from other characters included in the at least one sentence. a display ; a processor ; and a memory , wherein the memory stores instructions to enable the processor to: control the display to display at least one sentence: receive a user input regarding at least one character of the at least one sentence that is displayed; analyze, in response to the user input, the at least one sentence according to classification of sentence constituent elements of the at least one. sentence including the at least one character selected corresponding to the user input, in terms of grammatical characteristics of the sentence constituent elements; characterized in that the instructions further enable the processor to: obtain a plurality of character set candidates including the at least one character and at least one of neighboring characters; select a character set from among the plurality of character set candidates included in the at least one sentence according to the analysis of the at least one sentence; and display the selected character set to be distinguished from other characters included in the at least one sentence. receive a user input regarding at least one character of the at least one sentence that is displayed; analyze, in response to the user input, the at least one sentence according to classification of sentence constituent elements of the at least one. sentence including the at least one character selected corresponding to the user input, in terms of grammatical characteristics of the sentence constituent elements; characterized in that the instructions further enable the processor to: obtain a plurality of character set candidates including the at least one character and at least one of neighboring characters; select a character set from among the plurality of character set candidates included in the at least one sentence according to the analysis of the at least one sentence; and display the selected character set to be distinguished from other characters included in the at least one sentence.
A pharmaceutical composition comprising a therapeutically effective amount of a compound of formula (I), or a pharmaceutically acceptable salt thereof, for use in a method of treating or preventing multiple sclerosis relapses in a human subject in need thereof, the method comprising administering to said subject a therapeutically effective amount of said compound.
A storage element for gases, in which in a rigid internally hollow housing , which has at least one inlet, one outlet or one inlet and outlet for a gas, a sorbent for storing a respective gas is incorporated in at least one region, and at least one further region is present in the housing in which an elastically deformable body or an elastically deformable material is accommodated and no sorbent is present, wherein the body or the material is elastically deformable to such an extent and/or its volume is dimensioned such that a volume expansion of the sorbent during sorption of the respective gas can be compensated, characterized in that the elastically deformable body or the elastically deformable material is formed anisotropically with greater elasticity with respect to an axial direction adjacent to sorbents . a sorbent for storing a respective gas is incorporated in at least one region, and at least one further region is present in the housing in which an elastically deformable body or an elastically deformable material is accommodated and no sorbent is present, wherein the body or the material is elastically deformable to such an extent and/or its volume is dimensioned such that a volume expansion of the sorbent during sorption of the respective gas can be compensated, characterized in that the elastically deformable body or the elastically deformable material is formed anisotropically with greater elasticity with respect to an axial direction adjacent to sorbents .