mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining at least one application property of an auxiliary material applied to a fiber material of a fiber composite material, the fiber composite material comprising the fiber material and a matrix material embedding the fiber material for producing a fiber composite component, the method comprising the following steps: - Recording the fiber material applied with the auxiliary material by means of at least one electromagnetic radiation sensor of a recording sensor system and determining at least one electromagnetic back radiation property of the fiber material applied with the auxiliary material based on the electromagnetic radiation recorded by the recording sensor system; and - Determining the at least one application property of the auxiliary material applied to the fiber material based on the at least one determined electromagnetic back radiation property by means of an evaluation unit , characterized in that a bidirectional reflectance distribution function (BRDF) and/or a bidirectional scattering distribution function (BSDF) of the electromagnetic radiation, which is reflected by the fiber material applied with the auxiliary material in the direction of the at least one electromagnetic radiation sensor and is recorded by the electromagnetic radiation sensor, is determined as the electromagnetic back radiation property . - Recording the fiber material applied with the auxiliary material by means of at least one electromagnetic radiation sensor of a recording sensor system and determining at least one electromagnetic back radiation property of the fiber material applied with the auxiliary material based on the electromagnetic radiation recorded by the recording sensor system; and - Determining the at least one application property of the auxiliary material applied to the fiber material based on the at least one determined electromagnetic back radiation property by means of an evaluation unit ,
A panel system comprising a number of fixed panels and a number of openable panels , each fixed panel and each openable panel comprising a frame structure composed of a set of profile elements encasing a panelling element (5; 15; 15'), said frame structure including one top profile element configured to be connected to a supporting structure by means of a mounting and hinge assembly of said panel system, wherein the mounting and hinge assembly comprises an installation profile (9; 9') with a main body having a first, interior end and a second, exterior end, and that at least one border section is provided in connection with at least one of the first, interior end and the second, exterior end of the main body , wherein the installation profile (9; 9') comprises an extruded profile of a metallic material, and characterised in that the border section in connection with the second, exterior, upper end of the main body is formed by an exchangeable, separate extension element of a thermal insulation material, which is connected to the main body . wherein the mounting and hinge assembly comprises an installation profile (9; 9') with a main body having a first, interior end and a second, exterior end, and that at least one border section is provided in connection with at least one of the first, interior end and the second, exterior end of the main body , wherein the installation profile (9; 9') comprises an extruded profile of a metallic material, and characterised in that the border section in connection with the second, exterior, upper end of the main body is formed by an exchangeable, separate extension element of a thermal insulation material, which is connected to the main body .
Method for controlling the movements of a handling device in an automated manner, wherein the movements are subdivided into predefined object-based interactive movements and location-based transfer movements , wherein an object position and/or an object orientation is/are captured, wherein the handling device is actuated in order to perform an interactive movement relative to the captured object position and/or object orientation, wherein a position and/or an orientation of the handling device is/are captured, wherein a trajectory for a transfer movement between a starting position and a target position is determined, and wherein the handling device is actuated in order to perform the transfer movement along the determined trajectory, wherein a processing station (10-16) stored in the form of data is allocated to an or each predefined interactive movement , and wherein the or each interactive movement is dynamically parameterized at runtime using the data on the basis of the captured object position and/or object orientation, characterized in that the or each transfer movement is dynamically calculated at runtime, and the or each transfer movement is obtained in this case from the sequence of adjacent processing stations (10-16) by taking into account the stored data relating to the or each processing station (10-16).
A compound of Formula I: wherein (i) R 1 is H or C 1-4 alkyl (e.g., methyl or ethyl); (ii) R 2 and R 3 are independently H or C 1-6 alkyl (e.g., methyl or ethyl); (iii) R 4 is H or C 1-4 alkyl (e.g., methyl or ethyl); (iv) R 5 is aryl (e.g., phenyl) substituted with one or more groups independently selected from -C(=O)-C 1-6 alkyl (e.g.,-C(=O)-CH 3 ) and C 1-6 -hydroxyalkyl (e.g., 1-hydroxyethyl); (v) R 6 and R 7 are independently H or aryl (e.g., phenyl) optionally substituted with one or more groups independently selected from C 1-6 alkyl (e.g., methyl or ethyl) and halogen (e.g., F or Cl), for example unsubstituted phenyl or phenyl substituted with one or more halogen (e.g., F) or phenyl substituted with one or more C 1-6 alkyl and one or more halogen or phenyl substituted with one C 1-6 alkyl and one halogen, for example 4-fluorophenyl or 3,4-difluorophenyl or 4-fluoro-3-methylphenyl; and (vi) n is 1, 2, 3, or 4, in free or salt form. (i) R 1 is H or C 1-4 alkyl (e.g., methyl or ethyl); (ii) R 2 and R 3 are independently H or C 1-6 alkyl (e.g., methyl or ethyl); (iii) R 4 is H or C 1-4 alkyl (e.g., methyl or ethyl); (iv) R 5 is aryl (e.g., phenyl) substituted with one or more groups independently selected from -C(=O)-C 1-6 alkyl (e.g.,-C(=O)-CH 3 ) and C 1-6 -hydroxyalkyl (e.g., 1-hydroxyethyl); (v) R 6 and R 7 are independently H or aryl (e.g., phenyl) optionally substituted with one or more groups independently selected from C 1-6 alkyl (e.g., methyl or ethyl) and halogen (e.g., F or Cl), for example unsubstituted phenyl or phenyl substituted with one or more halogen (e.g., F) or phenyl substituted with one or more C 1-6 alkyl and one or more halogen or phenyl substituted with one C 1-6 alkyl and one halogen, for example 4-fluorophenyl or 3,4-difluorophenyl or 4-fluoro-3-methylphenyl; and (vi) n is 1, 2, 3, or 4,
A sealant for sealing a puncture through tissue, comprising: an elongate first section including a proximal end , a distal end , and a cross-section sized for delivery into a puncture through tissue, wherein the first section is formed from a rolled freeze-dried hydrogel that expands when exposed to physiological fluid within the puncture; and a second section extending from the distal end of the first section , the second section comprising PEG-precursors comprising PEG-ester and PEG-amine precursors, at least some of the precursors remaining in an unreactive state until exposed to an aqueous physiological environment, whereupon the precursors undergo in-situ cross-linking with one another to provide adhesion to tissue adjacent the puncture, and characterized in that the second section is a solid mass of the precursors remaining in the unreactive state fused to and extending from an end face of the distal end of the rolled first section , wherein the solid mass comprises a uniform solid plug of precursors remaining in the unreactive state. an elongate first section including a proximal end , a distal end , and a cross-section sized for delivery into a puncture through tissue, wherein the first section is formed from a rolled freeze-dried hydrogel that expands when exposed to physiological fluid within the puncture; and a second section extending from the distal end of the first section , the second section comprising PEG-precursors comprising PEG-ester and PEG-amine precursors, at least some of the precursors remaining in an unreactive state until exposed to an aqueous physiological environment, whereupon the precursors undergo in-situ cross-linking with one another to provide adhesion to tissue adjacent the puncture, and characterized in that the second section is a solid mass of the precursors remaining in the unreactive state fused to and extending from an end face of the distal end of the rolled first section , wherein the solid mass comprises a uniform solid plug of precursors remaining in the unreactive state.
Steel composition essentially being constituted by: Carbon: 0.28-0.35; Manganese: 0.10-0.30, preferably 0.10-0.20; Silicon: 0.10-0.20; Chromium: 2.80-3.40; Molybdenum: 0.70-1.60, preferably 0.70-1.30; Vanadium: 0.20-0.50, preferably 0.20-0.40; Phosphorus: ≤ 0.005; Nickel: ≤ 0.10; Aluminium: ≤ 0.025, preferably 0.006-0.025; Copper: ≤ 0.10; Arsenic + Antimony + Tin: < 100 ppm; Sulfur: < 10 ppm; Iron: remainder; as weight percentages of the total composition, and also the inevitable impurities. Carbon: 0.28-0.35; Manganese: 0.10-0.30, preferably 0.10-0.20; Silicon: 0.10-0.20; Chromium: 2.80-3.40; Molybdenum: 0.70-1.60, preferably 0.70-1.30; Vanadium: 0.20-0.50, preferably 0.20-0.40; Phosphorus: ≤ 0.005; Nickel: ≤ 0.10; Aluminium: ≤ 0.025, preferably 0.006-0.025; Copper: ≤ 0.10; Arsenic + Antimony + Tin: < 100 ppm; Sulfur: < 10 ppm; Iron: remainder;
A spin current magnetization rotational element comprising a first ferromagnetic metal layer for a magnetization direction to be changed; and a spin-orbit torque wiring extending in a second direction intersecting a first direction which is an orthogonal direction to a surface of the first ferromagnetic metal layer and configured to be joined to the first ferromagnetic metal layer, wherein the spin-orbit torque wiring has a structure in which a spin conduction layer joined to the first ferromagnetic metal layer and a spin generation layer joined to the spin conduction layer on a surface on a side opposite to the first ferromagnetic metal layer are laminated, characterised in that the spin conduction layer has any one cubic crystal structure of NiAl, RuAl, RhAl, IrAl, and TiNi having symmetry of a space group Pm-3m, or any one cubic crystal structure of AlN, TaN, YBi, TiC, and TiN having symmetry of a space group Fm-3m. a first ferromagnetic metal layer for a magnetization direction to be changed; and a spin-orbit torque wiring extending in a second direction intersecting a first direction which is an orthogonal direction to a surface of the first ferromagnetic metal layer and configured to be joined to the first ferromagnetic metal layer, wherein the spin-orbit torque wiring has a structure in which a spin conduction layer joined to the first ferromagnetic metal layer and a spin generation layer joined to the spin conduction layer on a surface on a side opposite to the first ferromagnetic metal layer are laminated, characterised in that the spin conduction layer has any one cubic crystal structure of NiAl, RuAl, RhAl, IrAl, and TiNi having symmetry of a space group Pm-3m, or any one cubic crystal structure of AlN, TaN, YBi, TiC, and TiN having symmetry of a space group Fm-3m.
A method of protecting the execution of a software application , the method performed by a plurality of processes comprising a process for executing the software application and a plurality of protection processes (210-1, 210-2, 210-3, ... 210-p), wherein each protection process in the plurality of protection processes is configured to monitor (S420) a process state of at least one other process in the plurality of processes to determine whether said process state corresponds to a predetermined process state, and to perform a predetermined action in response to a determination that said process state corresponds to the predetermined process state, wherein the method comprises: generating (S410) and executing (S420) the plurality of protection processes before the software application is executed (S430) such that each protection process is being monitored by at least one other protection process in the plurality of protection processes prior to the software application being executed; and in response to at least one protection process determining that a respective monitored process state corresponds to the predetermined process state, performing (S440) the predetermined action; or else starting (S430) the software application under the monitoring of the protection processes such that a process state of the process for executing the software application is monitored by at least one protection process and a process state of each protection process is monitored by at least one other protection process in the plurality of protection processes. generating (S410) and executing (S420) the plurality of protection processes before the software application is executed (S430) such that each protection process is being monitored by at least one other protection process in the plurality of protection processes prior to the software application being executed; and in response to at least one protection process determining that a respective monitored process state corresponds to the predetermined process state, performing (S440) the predetermined action; or else starting (S430) the software application under the monitoring of the protection processes such that a process state of the process for executing the software application is monitored by at least one protection process and a process state of each protection process is monitored by at least one other protection process in the plurality of protection processes.
A system to detect and control noise in seismic surveys, comprising a data processing system comprising memory and one or more processors to receive , responsive to a seismic wave generated by a source , seismic data detected by a sensor component of a seismic data acquisition unit ; generate , for a plurality of windows of the seismic data, Hough tensors for a plurality of seismic data transforms in a plurality of dimensions; detect , based on a comparison of an eigenvector and eigenvalue of a canonical matrix of the Hough tensors with a historical eigenvector and eigenvalue of a historical canonical matrix of historical Hough tensors of historical seismic data, a first presence of noise in the seismic data corresponding to a noisy spectra pattern in at least one of the plurality of seismic data transforms of the plurality of windows of the seismic data; and provide , responsive to detection of the first presence of noise in the seismic data, a notification to adjust a characteristic of the seismic survey to cause subsequently detected seismic data to have a second presence of noise that is less than the first presence of noise. receive , responsive to a seismic wave generated by a source , seismic data detected by a sensor component of a seismic data acquisition unit ; generate , for a plurality of windows of the seismic data, Hough tensors for a plurality of seismic data transforms in a plurality of dimensions; detect , based on a comparison of an eigenvector and eigenvalue of a canonical matrix of the Hough tensors with a historical eigenvector and eigenvalue of a historical canonical matrix of historical Hough tensors of historical seismic data, a first presence of noise in the seismic data corresponding to a noisy spectra pattern in at least one of the plurality of seismic data transforms of the plurality of windows of the seismic data; and provide , responsive to detection of the first presence of noise in the seismic data, a notification to adjust a characteristic of the seismic survey to cause subsequently detected seismic data to have a second presence of noise that is less than the first presence of noise.
A method for transmitting downlink control information, comprising: mapping , by a base station, a physical downlink control channel, PDCCH, of a user equipment device, UE, sequentially to resource elements, which are used for transmitting the PDCCH, in each orthogonal frequency division multiplexing, OFDM, symbol according to an order of the OFDM symbols used by the PDCCH of the UE, and according to an order of subcarriers in each OFDM symbol, wherein the PDCCH carries the downlink control information for the UE; and sending , by the base station, the PDCCH to the UE by using the resource elements; wherein the order of the OFDM symbols is an ascending order of the indexes of the OFDM symbols; wherein the step of mapping the PDCCH sequentially to the resource elements which are used for transmitting the PDCCH, comprises: mapping modulation symbols of the PDCCH with index numbers of j 0 + [0,..., N - 1] sequentially to a set R of resource elements in each OFDM symbol of the OFDM symbols, wherein j 0 is a start position of the modulation symbols of the PDCCH mapped in the OFDM symbol; the set R is a set of resource elements used for transmitting the PDCCH and occupied by L control channel elements, CCEs, allocated to the PDCCH in the OFDM symbol; N is the quantity of the resource elements in the set R; and L, N and j 0 are integers. mapping , by a base station, a physical downlink control channel, PDCCH, of a user equipment device, UE, sequentially to resource elements, which are used for transmitting the PDCCH, in each orthogonal frequency division multiplexing, OFDM, symbol according to an order of the OFDM symbols used by the PDCCH of the UE, and according to an order of subcarriers in each OFDM symbol, wherein the PDCCH carries the downlink control information for the UE; and sending , by the base station, the PDCCH to the UE by using the resource elements; wherein the order of the OFDM symbols is an ascending order of the indexes of the OFDM symbols; wherein the step of mapping the PDCCH sequentially to the resource elements which are used for transmitting the PDCCH, comprises: mapping modulation symbols of the PDCCH with index numbers of j 0 + [0,..., N - 1] sequentially to a set R of resource elements in each OFDM symbol of the OFDM symbols, wherein j 0 is a start position of the modulation symbols of the PDCCH mapped in the OFDM symbol; the set R is a set of resource elements used for transmitting the PDCCH and occupied by L control channel elements, CCEs, allocated to the PDCCH in the OFDM symbol; N is the quantity of the resource elements in the set R; and L, N and j 0 are integers.
Prefabricated-part container at least partially consisting of precast-concrete wall elements standing vertically on a foundation plate that are formed between vertical joints , wherein each vertical precast-concrete wall element comprises at least two horizontally arranged cladding tubes , the ends of which are opposite the ends of the cladding tubes of the other precast-concrete wall elements, and wherein the cladding tubes accommodate tension strands via which the prefabricated-part container is prestressed, characterized in that a preferably even number of precast-concrete wall elements standing vertically on the foundation plate is provided, wherein half of the vertical precast-concrete wall elements are only half the height of the second half of the vertical precast-concrete wall elements, that, on each of the precast-concrete wall elements standing vertically on the foundation plate , at least one other precast-concrete wall element stands vertically at full height and/or at half height , that the precast-concrete wall elements at half height comprise at least two vertically spaced, horizontally arranged cladding tubes and the precast-concrete wall elements at full height comprise at least four vertically spaced, horizontally arranged cladding tubes , wherein the at least two or four cladding tubes of adjacent precast-concrete wall elements of a prefabricated-part container are arranged on the same respective planes and respectively enclose circumferential tension strands on each plane. characterized in that a preferably even number of precast-concrete wall elements standing vertically on the foundation plate is provided, wherein half of the vertical precast-concrete wall elements are only half the height of the second half of the vertical precast-concrete wall elements, that, on each of the precast-concrete wall elements standing vertically on the foundation plate , at least one other precast-concrete wall element stands vertically at full height and/or at half height , that the precast-concrete wall elements at half height comprise at least two vertically spaced, horizontally arranged cladding tubes and the precast-concrete wall elements at full height comprise at least four vertically spaced, horizontally arranged cladding tubes , wherein the at least two or four cladding tubes of adjacent precast-concrete wall elements of a prefabricated-part container are arranged on the same respective planes and respectively enclose circumferential tension strands on each plane.
A method for estimating a steering wheel torque for mechanical feedback at a steering wheel of a steering system of a motor vehicle , comprising: receiving and/or detecting at least one current measured value (5-x) of at least one state variable (51-x) of the motor vehicle via suitable input means , estimating the current steering wheel torque by means of a controller , and outputting the estimated steering wheel torque as a steering wheel torque signal , the estimating being carried out by means of a parameterizable steering system model , and, for this purpose, current measured values (5-x) of at least a subset of the at least one state variable (51-x) being supplied to the parameterizable steering system model as input data, and characterized in that nonlinearities of the steering system are estimated, starting from the current measured values (5-x) of at least the subset of the at least one state variable (51-x), by means of an artificial intelligence method . receiving and/or detecting at least one current measured value (5-x) of at least one state variable (51-x) of the motor vehicle via suitable input means , estimating the current steering wheel torque by means of a controller , and outputting the estimated steering wheel torque as a steering wheel torque signal , the estimating being carried out by means of a parameterizable steering system model , and, for this purpose, current measured values (5-x) of at least a subset of the at least one state variable (51-x) being supplied to the parameterizable steering system model as input data, and characterized in that nonlinearities of the steering system are estimated, starting from the current measured values (5-x) of at least the subset of the at least one state variable (51-x), by means of an artificial intelligence method .
Oil production device for the production of oils from seeds with a press spindle , which is arranged in a housing to be rotatable about a substantially horizontal axis of rotation and is drivable by a motor , and with a drivable feed spindle for the seeds, the feed spindle running about an axis orthogonal to the axis of rotation of the press spindle and being designed as a stuffing screw , which presses the seeds laterally into an inlet area of the press spindle and the axis of rotation of this stuffing screw likewise running substantially horizontally, characterised in that the device comprises a preheating screw , which supplies the seeds to the stuffing screw and which is drivable rotatably about a substantially horizontal axis of rotation .