mhurhangee/ep-ind-claims huggingface dataset:
Clamping jaw for a clamping unit for processing a workpiece by means of a working fluid while directing a barrier fluid flow to a contact region between the clamping jaw and the workpiece, which contact region is to be kept free of working fluid, the clamping unit being adapted to clamp the workpiece for machining with a plurality of clamping jaws movable relative to one another, the clamping jaw having a barrier fluid inlet for introducing barrier fluid, and a contact surface for contacting the workpiece during clamping, wherein a fluid passage region of the clamping jaw forming the contact surface and/or a contact surface proximal region adjacent to the contact surface comprises a layer or body of an open-pored material having a fluid-permeable open-pored structure, wherein the clamping jaw is adapted to direct the barrier fluid introduced through the barrier fluid inlet through the open-porous material toward the contact region to be kept free of working fluid, wherein the average pore size of the open-pored material is smaller than 0.5 mm.
A lithographic printing plate comprising a coating produced using a coating composition comprising a gallotannic compound, said gallotannic compound comprising gallotannin: wherein at least one hydroxyl group is replaced by a substituent comprising: a) a molecule, oligomer or polymer used in lithographic printing plate coatings that is: - a crosslinker comprising a functional group capable of undergoing a crosslinking reaction via radical polymerization, - an initiator, - an adhesion promoter comprising a cyano, ureido, or phosphoric acid functional group, or - a NIR- or UV-sensitive chromophore, or b) another gallotannic compound comprising gallotannin wherein at least one hydroxyl group in said gallotannin is replaced by a substituent comprising a molecule, oligomer or polymer as defined in a), wherein the coating is an imaging coating. a) a molecule, oligomer or polymer used in lithographic printing plate coatings that is: - a crosslinker comprising a functional group capable of undergoing a crosslinking reaction via radical polymerization, - an initiator, - an adhesion promoter comprising a cyano, ureido, or phosphoric acid functional group, or - a NIR- or UV-sensitive chromophore, or - a crosslinker comprising a functional group capable of undergoing a crosslinking reaction via radical polymerization, - an initiator, - an adhesion promoter comprising a cyano, ureido, or phosphoric acid functional group, or - a NIR- or UV-sensitive chromophore, or b) another gallotannic compound comprising gallotannin wherein at least one hydroxyl group in said gallotannin is replaced by a substituent comprising a molecule, oligomer or polymer as defined in a),
A method for producing an inkjet recording material, the method comprising the steps of mixing an aqueous solution of a saponified vinyl acetate-diacetone acrylamide copolymer with a crosslinking agent to give a liquid mixture (a); adding a water-soluble basic compound to the liquid mixture (a) after a lapse of at least 30 minutes to give another liquid mixture (b); and mixing the obtained liquid mixture (b) with porous inorganic fine particles to give an ink receiving layer coating liquid and applying the coating liquid to a support, the inkjet recording material being characterized in that the ink receiving layer comprises the porous inorganic fine particles, the saponified vinyl acetate-diacetone acrylamide copolymer, and the crosslinking agent.
A method of detecting at least one feature present in a spoken utterance directed to an automated assistant, the method comprising: receiving a group of audio data frames (112 1-N) that are based on output from one or more microphones of a client device; processing each of the audio data frames of the group using a trained machine learning model to generate respective output indicating one or more corresponding probabilities of the presence of the at least one feature; in response to at least one of the corresponding probabilities satisfying a first threshold, but failing to satisfy a second threshold: generating filtered data frames (113 1-N) based on processing of the audio data frames of the group using a noise reduction filter; and determining whether the filtered data frames indicate presence of the at least one feature based on processing (266; 560) the filtered data frames using the trained machine learning model, or an additional trained machine learning model; and in response to determining that the filtered data frames indicate presence of the at least one feature: adapting (274; 564) processing performed by the automated assistant. receiving a group of audio data frames (112 1-N) that are based on output from one or more microphones of a client device; processing each of the audio data frames of the group using a trained machine learning model to generate respective output indicating one or more corresponding probabilities of the presence of the at least one feature; in response to at least one of the corresponding probabilities satisfying a first threshold, but failing to satisfy a second threshold: generating filtered data frames (113 1-N) based on processing of the audio data frames of the group using a noise reduction filter; and determining whether the filtered data frames indicate presence of the at least one feature based on processing (266; 560) the filtered data frames using the trained machine learning model, or an additional trained machine learning model; and generating filtered data frames (113 1-N) based on processing of the audio data frames of the group using a noise reduction filter; and determining whether the filtered data frames indicate presence of the at least one feature based on processing (266; 560) the filtered data frames using the trained machine learning model, or an additional trained machine learning model; and in response to determining that the filtered data frames indicate presence of the at least one feature: adapting (274; 564) processing performed by the automated assistant.
A method of wireless communication configured to operate in an LTE-A system, comprising: determining a capacity of a physical uplink control channel, PUCCH, format 3 based at least in part on determining whether multiplexing of acknowledgement/negative acknowledgement, ACK/NAK, bits for a plurality of component carriers with periodic channel state information, CSI, is allowed, wherein the determining whether multiplexing ACK/NAK bits for the plurality of component carriers with the periodic CSI is allowed is based at least in part on a semi-static configuration; determining a threshold for a number of ACK/NAK bits based at least in part on a payload size of the periodic CSI and the determined capacity; bundling ACK/NAK bits when the number of ACK/NAK bits is greater than the determined threshold; and transmitting the ACK/NAK bits and the periodic CSI using the PUCCH format 3; wherein the determining the capacity comprises: determining a first capacity of the PUCCH format 3 when multiplexing ACK/NAK bits for the plurality of component carries with the periodic CSI is allowed; and determining a second capacity of the PUCCH format 3 when multiplexing ACK/NAK bits for the plurality of component carriers with the periodic CSI is not allowed, wherein the first capacity is larger than the second capacity. determining a capacity of a physical uplink control channel, PUCCH, format 3 based at least in part on determining whether multiplexing of acknowledgement/negative acknowledgement, ACK/NAK, bits for a plurality of component carriers with periodic channel state information, CSI, is allowed, wherein the determining whether multiplexing ACK/NAK bits for the plurality of component carriers with the periodic CSI is allowed is based at least in part on a semi-static configuration; determining a threshold for a number of ACK/NAK bits based at least in part on a payload size of the periodic CSI and the determined capacity; bundling ACK/NAK bits when the number of ACK/NAK bits is greater than the determined threshold; and transmitting the ACK/NAK bits and the periodic CSI using the PUCCH format 3; wherein the determining the capacity comprises: determining a first capacity of the PUCCH format 3 when multiplexing ACK/NAK bits for the plurality of component carries with the periodic CSI is allowed; and determining a second capacity of the PUCCH format 3 when multiplexing ACK/NAK bits for the plurality of component carriers with the periodic CSI is not allowed, wherein the first capacity is larger than the second capacity. determining a first capacity of the PUCCH format 3 when multiplexing ACK/NAK bits for the plurality of component carries with the periodic CSI is allowed; and determining a second capacity of the PUCCH format 3 when multiplexing ACK/NAK bits for the plurality of component carriers with the periodic CSI is not allowed, wherein the first capacity is larger than the second capacity.
A light emitting diode package for vehicles comprising: a substrate; eight light emitting diode devices disposed on the substrate, each of the light emitting diode devices (301 to 308) comprising a light emitting structure including a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer, each of the light emitting diode devices (301 to 308) being divided into a first light emitting diode cell (301a to 308a) and a second light emitting diode cell (301b to 308b); a first electrode and a second electrode connected to each of the light emitting cells (301a to 308a, 301b to 308b); and fluorescent substances disposed respectively on the light emitting diode cells (301a to 308a, 301b to 308b) such that the first light emitting diode cells (301a to 308a) emit red light and the second light emitting diode cells (301b to 308b) emit yellow light, wherein the first light emitting diode cells (301a to 308a) and the second light emitting diode cells (301b to 308b) are driven independently of each other, the first light emitting diode cells (301a to 308a) being connected to one line (a) and the second light emitting diode cells (301b to 308b) being connected to another line (b), and wherein in each of the light emitting diode devices (301 to 308), the first light emitting diode cell (301a to 308a) is spaced apart from the second light emitting diode cell (301b to 308b) by a distance (d 1) of 10 μ m to 50 μ m. a substrate; eight light emitting diode devices disposed on the substrate, each of the light emitting diode devices (301 to 308) comprising a light emitting structure including a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer, each of the light emitting diode devices (301 to 308) being divided into a first light emitting diode cell (301a to 308a) and a second light emitting diode cell (301b to 308b); a first electrode and a second electrode connected to each of the light emitting cells (301a to 308a, 301b to 308b); and fluorescent substances disposed respectively on the light emitting diode cells (301a to 308a, 301b to 308b) such that the first light emitting diode cells (301a to 308a) emit red light and the second light emitting diode cells (301b to 308b) emit yellow light, wherein the first light emitting diode cells (301a to 308a) and the second light emitting diode cells (301b to 308b) are driven independently of each other, the first light emitting diode cells (301a to 308a) being connected to one line (a) and the second light emitting diode cells (301b to 308b) being connected to another line (b), and wherein in each of the light emitting diode devices (301 to 308), the first light emitting diode cell (301a to 308a) is spaced apart from the second light emitting diode cell (301b to 308b) by a distance (d 1) of 10 μ m to 50 μ m.
A method of determining a negative pressure generated by a suction pump of a topical negative pressure system, the method comprising the steps of: disconnecting a drive voltage from a pump of a TNP system; determining an electromotive force generated by a free-wheeling element of the pump; selecting a new drive voltage for the pump; and reconnecting the new drive voltage to the pump. disconnecting a drive voltage from a pump of a TNP system; determining an electromotive force generated by a free-wheeling element of the pump; selecting a new drive voltage for the pump; and reconnecting the new drive voltage to the pump.
A composite heat source for a smoking article comprising: a non-combustible porous ceramic matrix; and a particulate combustible fuel embedded within the non-combustible porous ceramic matrix, wherein the non-combustible porous ceramic matrix is formed from one or more particulate materials having a median D50 particle size at least five times less than the median D50 particle size of the particulate combustible fuel and wherein the volume fraction of the combustible fuel embedded in the non-combustible porous ceramic matrix is less than or equal to about 50% of the composite heat source. a non-combustible porous ceramic matrix; and a particulate combustible fuel embedded within the non-combustible porous ceramic matrix, wherein the non-combustible porous ceramic matrix is formed from one or more particulate materials having a median D50 particle size at least five times less than the median D50 particle size of the particulate combustible fuel and wherein the volume fraction of the combustible fuel embedded in the non-combustible porous ceramic matrix is less than or equal to about 50% of the composite heat source.
A thermal flow sensor, comprising: an air flow rate detection element with a diaphragm having a thin-film portion in a semiconductor substrate; at least one heat generating resistor on the diaphragm; at least one temperature measuring resistor that detects temperature on each of an upstream side and a downstream side of the heat generating resistor; and a correction circuit portion that processes an output signal of the air flow rate detection element on the basis of temperature difference information of at least the two temperature measuring resistors on the upstream side and the downstream side, wherein a waveform of the output signal processed by the correction circuit portion is a waveform obtained by cutting a part of an upper part or a lower part constituting a peak value by outputting of a predetermined value when the peak value of the waveform exceeds the predetermined value, characterized in that, the predetermined value is determined from two parameters of an amplitude value and an average flow rate obtained from signals based on the output signal of the air flow rate detection element. an air flow rate detection element with a diaphragm having a thin-film portion in a semiconductor substrate; at least one heat generating resistor on the diaphragm; at least one temperature measuring resistor that detects temperature on each of an upstream side and a downstream side of the heat generating resistor; and a correction circuit portion that processes an output signal of the air flow rate detection element on the basis of temperature difference information of at least the two temperature measuring resistors on the upstream side and the downstream side, wherein a waveform of the output signal processed by the correction circuit portion is a waveform obtained by cutting a part of an upper part or a lower part constituting a peak value by outputting of a predetermined value when the peak value of the waveform exceeds the predetermined value, characterized in that, the predetermined value is determined from two parameters of an amplitude value and an average flow rate obtained from signals based on the output signal of the air flow rate detection element.
Stripping device for a roll stand, the stripping device comprising a stripper carrier and a stripper arranged on the stripper carrier, the stripper comprising - a main body having a main body bottom side, which rests against the stripper carrier, and - a felt layer, which is arranged on a main body top side of the main body situated opposite the main body bottom side, characterized in that - the main body is manufactured from a fiber-reinforced plastic - and a stripper rear side of the stripper situated opposite the main body front side has stripper recesses, which each extend from the main body bottom side to a stripper top side of the stripper situated opposite the main body bottom side, and in that the stripper carrier is connected to the stripper by connecting elements, which are each guided by a stripper recess and are connected to the stripper carrier. - a main body having a main body bottom side, which rests against the stripper carrier, and - a felt layer, which is arranged on a main body top side of the main body situated opposite the main body bottom side, - the main body is manufactured from a fiber-reinforced plastic - and a stripper rear side of the stripper situated opposite the main body front side has stripper recesses, which each extend from the main body bottom side to a stripper top side of the stripper situated opposite the main body bottom side, and in that the stripper carrier is connected to the stripper by connecting elements, which are each guided by a stripper recess and are connected to the stripper carrier.
A method for applying a protective layer on at least part of an exposed surface of a substrate, the method comprising the steps of: (i) activating a gas in a plasma discharge chamber by means of an atmospheric pressure plasma discharge to obtain an activated gas, wherein the gas comprises nitrogen (N 2), and (ii) contacting the exposed surface with an afterglow of the activated gas egressing from the plasma discharge chamber to form the protective layer on at least part of the exposed surface, wherein the surface comprises a metallic element and/or an alloy of the metallic element, wherein the metallic element is an alkali metal or an alkaline earth metal, and wherein the protective layer comprises a nitride of the metallic element, characterised in that the surface and the plasma discharge chamber are moving relative to one another during contacting the exposed surface with the afterglow of the activated gas. (i) activating a gas in a plasma discharge chamber by means of an atmospheric pressure plasma discharge to obtain an activated gas, wherein the gas comprises nitrogen (N 2), and (ii) contacting the exposed surface with an afterglow of the activated gas egressing from the plasma discharge chamber to form the protective layer on at least part of the exposed surface, wherein the surface comprises a metallic element and/or an alloy of the metallic element, wherein the metallic element is an alkali metal or an alkaline earth metal, and wherein the protective layer comprises a nitride of the metallic element, characterised in that the surface and the plasma discharge chamber are moving relative to one another during contacting the exposed surface with the afterglow of the activated gas.
Device for emitting a light beam intended to form an image, said device comprising one or more sources (4, 5, 6), each emitting a beam (7, 8, 9) of the laser type, said device being configured to form said light beam from the or from the bringing together of said laser beams (7, 8, 9) by combination, said device comprising attenuation means, situated downstream of said source or sources (3, 4, 5), making it possible to vary the optical power of the light beam, wherein said attenuation means are configured to vary the optical power of the light beam as a function of an orientation of a polarization of the laser beam or beams (7, 8, 9), wherein said attenuation means comprise liquid crystal means of modification of the orientation of the polarization of said beam or beams and, downstream, a fixed analyser, transmitting only one component of the polarization of said beam or beams and in that the device further comprises means of control of the current supply of said sources (4, 5, 6), said control means being configured to provide additional adjustment of the optical power of said light beam.
A multi-connectivity data volume reporting method (600, 700), comprising: receiving (601, 701), by a first network device, a second data volume report from a second network device, wherein the second data volume report is used to indicate a volume of data that is of a terminal device and that passes through the second network device,; obtaining (602, 702), by the first network device, a first data volume report, based on the second data volume report received from the second network node, wherein information elements, IEs, included in the first data volume report are partially or totally the same as the IEs included in the second data volume report, and sending (603, 703), by the first network device, the first data volume report to a third network device; characterized in that the first network device comprises a central unit control plane, CU-CP, function, the second network device comprises a central unit user plane, CU-UP, function, and the third network device comprises an access and mobility management function, AMF; and each one of the first data volume report and the second data volume report comprises quality of service QoS flow identifiers, QFIs, of one or more quality of service QoS flows, identifiers of protocol data unit, PDU, sessions to which the one or more QoS flows belong, and data volumes of the one or more QoS flows. receiving (601, 701), by a first network device, a second data volume report from a second network device, wherein the second data volume report is used to indicate a volume of data that is of a terminal device and that passes through the second network device,; obtaining (602, 702), by the first network device, a first data volume report, based on the second data volume report received from the second network node, wherein information elements, IEs, included in the first data volume report are partially or totally the same as the IEs included in the second data volume report, and sending (603, 703), by the first network device, the first data volume report to a third network device; characterized in that the first network device comprises a central unit control plane, CU-CP, function, the second network device comprises a central unit user plane, CU-UP, function, and the third network device comprises an access and mobility management function, AMF; and each one of the first data volume report and the second data volume report comprises quality of service QoS flow identifiers, QFIs, of one or more quality of service QoS flows, identifiers of protocol data unit, PDU, sessions to which the one or more QoS flows belong, and data volumes of the one or more QoS flows.
A method for controlling an agricultural working machine during working of a territory to be worked, in which a driving route of the working machine is planned which comprises - predetermined working tracks (4, 4a, 4b), that are being trailed successively during the working of the territory, and - merging tracks along which the working machine is driven between two working tracks (4a, 4b), characterized in that, during trailing of the present working track more than one possible next working track (4, 4a, 4b), are preselected from the predetermined working tracks (4, 4a, 4b), which preselection is based on minimizing the length of the resulting merging track with respect to the present position and orientation of the working machine and whereby the preselected working tracks and the resulting merging tracks are being displayed via a man machine interface. - predetermined working tracks (4, 4a, 4b), that are being trailed successively during the working of the territory, and - merging tracks along which the working machine is driven between two working tracks (4a, 4b),