mhurhangee/ep-ind-claims huggingface dataset:
An electronic article surveillance system, comprising: an antenna system (600, 1000) comprised of a plurality of resonant circuits (601a, 601b, 1004, 1006), each resonant circuit (601a, 601b) including an exciter coil (608a, 608b) having at least one wire turn a transmitter coupled to the antenna system and arranged to generate an antenna system composite exciter signal comprised of a plurality of co-exciter signals, each having a predetermined frequency which is capable of exciting an EAS security tag when applied to the antenna system; wherein the transmitter has a plurality of transmitter output ports (605a, 605b), each independently coupled to one of the plurality of resonant circuits (601a, 601b), whereby each of the plurality of co-exciter signals is exclusively provided from one of the transmitter output ports (605a, 605b) to one of the plurality of resonant circuits (601a, 601b); wherein the transmitter is arranged to provide each one of the plurality of co-exciter signals with a signal phase in a predetermined phase relationship with a remainder of the plurality of co-exciter signals; characterised in that the at least one wire turn of the exciter coil of each resonant circuit are aligned on a common coil axis; and each of the co-exciter signals applied to the resonant circuits (601a, 601b) has the same phase. an antenna system (600, 1000) comprised of a plurality of resonant circuits (601a, 601b, 1004, 1006), each resonant circuit (601a, 601b) including an exciter coil (608a, 608b) having at least one wire turn a transmitter coupled to the antenna system and arranged to generate an antenna system composite exciter signal comprised of a plurality of co-exciter signals, each having a predetermined frequency which is capable of exciting an EAS security tag when applied to the antenna system; wherein the transmitter has a plurality of transmitter output ports (605a, 605b), each independently coupled to one of the plurality of resonant circuits (601a, 601b), whereby each of the plurality of co-exciter signals is exclusively provided from one of the transmitter output ports (605a, 605b) to one of the plurality of resonant circuits (601a, 601b); wherein the transmitter is arranged to provide each one of the plurality of co-exciter signals with a signal phase in a predetermined phase relationship with a remainder of the plurality of co-exciter signals; characterised in that the at least one wire turn of the exciter coil of each resonant circuit are aligned on a common coil axis; and each of the co-exciter signals applied to the resonant circuits (601a, 601b) has the same phase.
A method for gain control in a communications device, the method comprising: - detecting a change in an amplification gain that is applied to an analog signal in a receiver unit in the communications device; and - compensating for the change in the amplification gain by manipulating an amplitude of a digital signal that is converted from the analog signal; characterized in that compensating for the change in the amplification gain by manipulating the amplitude of the digital signal that is converted from the analog signal comprises: freezing the amplitude of the digital signal during a time window in which the change in the amplification gain affects the amplitude of the digital signal; measuring a gap in the amplitude of the digital signal during the time window that is caused by the change in the amplification gain; and removing the gap in the amplitude of the digital signal during the time window. - detecting a change in an amplification gain that is applied to an analog signal in a receiver unit in the communications device; and - compensating for the change in the amplification gain by manipulating an amplitude of a digital signal that is converted from the analog signal; characterized in that compensating for the change in the amplification gain by manipulating the amplitude of the digital signal that is converted from the analog signal comprises: freezing the amplitude of the digital signal during a time window in which the change in the amplification gain affects the amplitude of the digital signal; measuring a gap in the amplitude of the digital signal during the time window that is caused by the change in the amplification gain; and removing the gap in the amplitude of the digital signal during the time window. freezing the amplitude of the digital signal during a time window in which the change in the amplification gain affects the amplitude of the digital signal; measuring a gap in the amplitude of the digital signal during the time window that is caused by the change in the amplification gain; and removing the gap in the amplitude of the digital signal during the time window.
Method for three-dimensionally optically measuring objects with a topometric measurement method by way of projection of at least one pattern onto an object using a pattern generator and recording at least one image of the object with the projected-on pattern using at least one image recording unit for the topometric measurement of the object, characterized by: a) ascertaining partial surfaces in a plurality of images per involved image recording unit of the object, which contain a signal, scattered back by the object, of a projection pattern segment of the pattern generator which has in each case been projected onto the object, b) creating at least one projection mask (M i; i ∈ N\), which comprises in each case a plurality of projection pattern segments, wherein the projection pattern segments of a projection mask (M i) are selected such that the ascertained partial surfaces of the projection pattern segments do not overlap one another in the images per involved image recording unit, and c) performing the topometric measurement of the object in each case by way of projection of at least one pattern using the at least one created projection mask (M i; i ∈ N\). a) ascertaining partial surfaces in a plurality of images per involved image recording unit of the object, which contain a signal, scattered back by the object, of a projection pattern segment of the pattern generator which has in each case been projected onto the object, b) creating at least one projection mask (M i; i ∈ N\), which comprises in each case a plurality of projection pattern segments, wherein the projection pattern segments of a projection mask (M i) are selected such that the ascertained partial surfaces of the projection pattern segments do not overlap one another in the images per involved image recording unit, and c) performing the topometric measurement of the object in each case by way of projection of at least one pattern using the at least one created projection mask (M i; i ∈ N\).
A plasma etching apparatus comprising: a process container configured to be vacuum-exhausted; a first electrode disposed inside the process container; a second electrode disposed opposite to the first electrode and configured to support a target object thereon; a first RF power supply unit (46, 48; 48', 89) configured to apply a first RF power for plasma generation to the first electrode or the second electrode; a second RF power supply unit (88, 90) configured to apply a second RF power for ion attraction to the second electrode; a process gas supply unit configured to supply a process gas into the process container; and a controller configured to control the second RF power supply unit, wherein the apparatus is configured to process as the target object a target substrate having a structure including an etching target film formed on an underlying film to perform etching of the etching target film and then perform over etching, characterized in that the controller is preset to control the second RF power supply unit to operate in a continuous mode that executes continuous supply of an RF power at a constant power level for the etching, and then, before the over etching starts, to switch into a power modulation mode that executes power modulation in predetermined cycles between a first power set to deposit polymers on the etching target film on the target substrate and a second power set to promote etching of the etching target film on the target substrate. a process container configured to be vacuum-exhausted; a first electrode disposed inside the process container; a second electrode disposed opposite to the first electrode and configured to support a target object thereon; a first RF power supply unit (46, 48; 48', 89) configured to apply a first RF power for plasma generation to the first electrode or the second electrode; a second RF power supply unit (88, 90) configured to apply a second RF power for ion attraction to the second electrode; a process gas supply unit configured to supply a process gas into the process container; and a controller configured to control the second RF power supply unit, wherein the apparatus is configured to process as the target object a target substrate having a structure including an etching target film formed on an underlying film to perform etching of the etching target film and then perform over etching, characterized in that the controller is preset to control the second RF power supply unit to operate in a continuous mode that executes continuous supply of an RF power at a constant power level for the etching, and then, before the over etching starts, to switch into a power modulation mode that executes power modulation in predetermined cycles between a first power set to deposit polymers on the etching target film on the target substrate and a second power set to promote etching of the etching target film on the target substrate.
Method for detecting the viscosity of a fuel in a fuel supply system of an internal combustion engine, wherein an expeller body is moved into a cavity, filled without bubbles with the fuel in the fuel supply system of the internal combustion engine, from a first predetermined position to a second predetermined position, wherein a viscosity of the fuel which is present in the fuel supply system of the internal combustion engine is determined from the movement time necessary for the movement and/or from the movement force which is necessary for the movement with a predetermined speed, characterized in that the fuel is supplied to the cavity integrated into the fuel supply system parallel to a fuel line, by means of an inflow and via a 2/2-way valve from the fuel line and is fed back to the fuel line by means of an outflow and via a non-return valve.
An optoelectronic sensor, in particular a laser scanner, for detecting objects in a monitoring area having more than one scanning plane, the sensor comprising a light transmitter for transmitting a light beam, a drive for generating a rotational movement, a deflection unit rotatable by the drive about an axis of rotation for periodically deflecting the light beam, a tilt unit (42b, 44) coupled to the drive for tilting the deflection unit with the rotational movement, a light receiver for generating a reception signal from the light beam remitted or reflected in the monitoring area as well as an evaluation which is configured to detect the objects based on the reception signal, wherein the tilt unit (42b, 44) comprises a profile wheel whose profile is engaged with a guiding member of the deflection unit and thus generates the tilt movement, and wherein the profile wheel is coupled to the drive with a gear mechanism in order to share the rotational movement of the drive with a gear reduction, characterized in that the profile wheel is configured as a cam disc having several segments of constant, but between segments different radius with intermediate adjustment regions, or as a height profile wheel which is segmented into regions each of a same height, with the height varying from segment to segment.
A rotor blade of a wind energy installation, wherein the rotor blade extends from a blade root to a blade tip and comprises a cavity in which a web is arranged in the direction of the longitudinal extent of the rotor blade, wherein the web separates a first region of the rotor blade comprising a rotor blade nose from a second region of the rotor blade comprising a rotor blade trailing edge, characterised in that a thermally insulated channel is arranged in the first region of the rotor blade on the web in order to guide warm air in an air flow (24, 24') in the direction of the blade tip, wherein openings are provided in the channel, which are constructed in such a way that they guide the warm air to the rotor blade nose, wherein a return of the warm air to the blade root in the first region of the rotor blade takes place, wherein the openings in the channel are constructed as nozzles, and wherein the thermally insulated channel has an opening at its end towards the blade tip, which opening points towards the blade tip and is constructed as a nozzle.
A coating composition being substantially free, meaning that the composition contains less than 1000 parts per million (ppm), of bisphenol A and reaction products thereof comprising: (a) a resinous binder comprising: (i) a polymer containing reactive functional groups, (ii) an aminoplast curing agent containing functional groups that are reactive with the functional groups of (i), and (iii) a monomeric phenol of the structure: where R 1 is H, alkyl or alkoxy; R 2 is H or alkyl, and R 3 is alkyl; (b) a colorant, wherein the coating composition has a resin solids content of from 10 to 30 percent by weight based on total weight of the composition. (a) a resinous binder comprising: (i) a polymer containing reactive functional groups, (ii) an aminoplast curing agent containing functional groups that are reactive with the functional groups of (i), and (iii) a monomeric phenol of the structure: where R 1 is H, alkyl or alkoxy; R 2 is H or alkyl, and R 3 is alkyl; (i) a polymer containing reactive functional groups, (ii) an aminoplast curing agent containing functional groups that are reactive with the functional groups of (i), and (iii) a monomeric phenol of the structure: where R 1 is H, alkyl or alkoxy; R 2 is H or alkyl, and R 3 is alkyl; (b) a colorant,
A computer-implemented method, comprising: receiving, at a training broker, a request to train a machine-learning, ML, model; obtaining, by the training broker from each individual data source of a plurality of data sources, anonymized data for training the model, the anonymized data accessed through a data science schema (110, 210) being provided by anonymization of sensitive information of production data from each individual data source; creating the data science schema (110, 210) based on a production data schema of the production data, wherein the data science schema (110, 210) provides read-only access to the production data, and wherein the data science schema (110, 210) provides access limited to non-personalized data in the production data without replication of non-personalized data; using the data science schema (110, 210) to provide access to the production data; and providing, to a data vendor, access to the anonymized data for training the ML model using the anonymized data. receiving, at a training broker, a request to train a machine-learning, ML, model; obtaining, by the training broker from each individual data source of a plurality of data sources, anonymized data for training the model, the anonymized data accessed through a data science schema (110, 210) being provided by anonymization of sensitive information of production data from each individual data source; creating the data science schema (110, 210) based on a production data schema of the production data, wherein the data science schema (110, 210) provides read-only access to the production data, and wherein the data science schema (110, 210) provides access limited to non-personalized data in the production data without replication of non-personalized data; using the data science schema (110, 210) to provide access to the production data; and providing, to a data vendor, access to the anonymized data for training the ML model using the anonymized data.
A bonded body having two or more members unitarily bonded by means of a bonding material layer, wherein the relational expression of 0.5<Ez/Ex<1.5 is satisfied when a Young's modulus of the bonding material layer in a direction perpendicular to a bonded surface of the bonding material layer is Ez and a Young's modulus of the bonding material layer in a direction parallel to the bonded surface and parallel to a longer axial direction of the bonded surface is Ex, and wherein the bonding material layer has a porosity of 25 to 85%.
An ink for inkjet recording, comprising: water; a water-soluble organic solvent; a pigment; and resin particles, wherein 50% by mass or more of the water-soluble organic solvent is a water-soluble organic solvent having a boiling point of lower than 200°C, and the water-soluble organic solvent having a boiling point of lower than 200°C comprises 3-methoxy-3-methyl-1-butanol. water; a water-soluble organic solvent; a pigment; and resin particles, wherein 50% by mass or more of the water-soluble organic solvent is a water-soluble organic solvent having a boiling point of lower than 200°C, and the water-soluble organic solvent having a boiling point of lower than 200°C comprises 3-methoxy-3-methyl-1-butanol.
An induction heating method, comprising: selecting at least two induction coil circuits each including a susceptor having a Curie temperature; coupling the induction coil circuits in parallel with each other and in series with an AC power supply; tuning the resonant frequency of each of the induction coil circuits to match the frequency of the AC power supply, and shunting power away from one of the induction coil circuits to the other induction coil circuits when the susceptor of the one circuit substantially reaches its Curie temperature. selecting at least two induction coil circuits each including a susceptor having a Curie temperature; coupling the induction coil circuits in parallel with each other and in series with an AC power supply; tuning the resonant frequency of each of the induction coil circuits to match the frequency of the AC power supply, and shunting power away from one of the induction coil circuits to the other induction coil circuits when the susceptor of the one circuit substantially reaches its Curie temperature.
A cross-correlation dynamic light scattering method for use with multiply-scattering samples comprising the steps of • providing two laser beams that are directed to a single scattering cell; • detecting scattered light from each laser beam passing through one scattering cell by photon detectors, wherein the geometry of each beam-detector pair defines an identical desired scattering vector; and • delivering the output of said photon detectors to subsequent photon counting hardware wherein the output is cross-correlated characterized in that • the two laser beams are alternately shuttered at a modulation frequency, and • said photon detectors are optically or electronically gated at the modulation frequency such that the beam-detector pairs defining the identical desired scattering vector are alternately activated. • providing two laser beams that are directed to a single scattering cell; • detecting scattered light from each laser beam passing through one scattering cell by photon detectors, wherein the geometry of each beam-detector pair defines an identical desired scattering vector; and • delivering the output of said photon detectors to subsequent photon counting hardware wherein the output is cross-correlated characterized in that • the two laser beams are alternately shuttered at a modulation frequency, and • said photon detectors are optically or electronically gated at the modulation frequency such that the beam-detector pairs defining the identical desired scattering vector are alternately activated.
Fluid distributor assembly, comprising a plurality of distributor modules, which can be lined up in a line-up direction and secured to one another in pairs by at least one screw connection each to form a module assembly, each of which has at least one fluid passage, and of which at least a first distributor module has a first mounting surface oriented in the line-up direction for contacting a facing first mounting surface of a second distributor module which is adjacent in the line-up direction, wherein, in order to form at least one screw connection securing the first and the second distributor module (2a, 2b) to one another, the first distributor module has at least one threaded hole terminating towards its first mounting surface and the second distributor module has at least one connecting hole which is continuous in the line-up direction for a connecting screw, wherein, in order to form the at least one screw connection of the first and the second distributor module (2a, 2b), an adapter element, which can be fitted to the first mounting surface of the first distributor module and secured thereto by means of a fastening screw, which can be screwed into the at least one threaded hole, independently of the second distributor module, is provided, wherein the second distributor module has at its first mounting surface a recess, into which the adapter element dips if the first distributor module is fitted to the second distributor module, and wherein the at least one connecting hole of the second distributor module terminates into the recess in such a way that it is in alignment with a threaded hole of the adapter element dipping into the recess and a connecting screw inserted into the connecting hole can be screwed into the threaded hole of the adapter element, characterised in that the at least one threaded hole of the first distributor module, which is used for securing the adapter element, is inclined relative to the first mounting surface of the first distributor module.
A system for fitting a visual prosthesis comprising a visual prosthesis including a plurality of electrodes suitable to stimulate visual neurons; a first memory storing a set of stimulation patterns; communication means for presenting the set of stimulation patterns to the visual prosthesis; a patient drawing input device for recording patient input, in response to the set of stimulation patterns; a second memory for storing patient input; and computational means coupled to the first and second memory for comparing the set of stimulation patterns and the patient input and developing a stimulation map based on the comparison, characterized in that the patient drawing input device is a touch sensitive surface for recording patient input in the form of two dimensional drawings.
A hot-working steel excellent in machinability and impact value comprising, in mass%, C: 0.06 to 0.85%, Si: 0.01 to 1.5%, Mn: 0.05 to 2.0%, P: 0.005 to 0.2%, S: 0.001 to 0.35%, Al: greater than 0.1% and 1.0% or less, and N: 0.016% or less, in contents, and optionally further comprising, in mass%, one or more elements selected from the group consisting of Ca: 0.0003 to 0.0015%, Ti: 0.001 to 0.1%, Nb: 0.005 to 0.2%, W: 0.01 to 1.0%, V: 0.01 to 1.0%, Cr: 0.01 to 2.0%, Mo: 0.01 to 1.0%, Ni: 0.05 to 2.0%, Cu: 0.01 to 2.0%, Mg: 0.0001 to 0.0040%, and REMs: 0.0001 to 0.015%, and one or more elements selected from the group consisting of Sb: 0.0005% to less than 0.0150%, Sn: 0.005 to 2.0%, Zn: 0.0005 to 0.5%, B:0.0005 to 0.015%, Te: 0.0003 to 0.2%, Bi: 0.005 to 0.5%, and Pb: 0.005 to 0.5%, satisfying Al x N x 10 5 ≤ 96, and a balance of Fe and unavoidable impurities, total volume of AlN precipitates of a circle-equivalent diameter exceeding 200 nm accounting for 20% or less of total volume of all AlN precipitates.
The use of the serum level of C3a, a component of the complement cascade as well as the serum level of sphingosine-1-phosphate, as a marker of an initial psychotic episode.