mhurhangee/patent-ind-claim-en huggingface dataset:
A rotorcraft , comprising: a step disposed at an exterior of the rotorcraft , wherein the step has a recess , and the step is faired into a skin on the exterior of the rotorcraft ; and an emergency kit installed into the recess of the step , wherein the emergency kit comprises a container , and a life raft ; wherein the container comprises: a container body disposed in the recess of the step , wherein the container body is attached to the step , and the container body has a storage cavity ; a container panel disposed at a bottom of the storage cavity , wherein the life raft is disposed on the container panel, and within the storage cavity ; and a first attachment element releasably coupling a first edge of the container panel to the container body, and retaining the life raft in the container . a step disposed at an exterior of the rotorcraft , wherein the step has a recess , and the step is faired into a skin on the exterior of the rotorcraft ; and an emergency kit installed into the recess of the step , wherein the emergency kit comprises a container , and a life raft ; wherein the container comprises: a container body disposed in the recess of the step , wherein the container body is attached to the step , and the container body has a storage cavity ; a container panel disposed at a bottom of the storage cavity , wherein the life raft is disposed on the container panel, and within the storage cavity ; and a first attachment element releasably coupling a first edge of the container panel to the container body, and retaining the life raft in the container . a container body disposed in the recess of the step , wherein the container body is attached to the step , and the container body has a storage cavity ; a container panel disposed at a bottom of the storage cavity , wherein the life raft is disposed on the container panel, and within the storage cavity ; and a first attachment element releasably coupling a first edge of the container panel to the container body, and retaining the life raft in the container .
An in-ear acoustic authentication device comprising: a feature extraction means configured to input an inspection signal to an ear of a subject by using an audio device , and when receiving an echo signal from the subject, extract, from the echo signal, a first feature related to a system including the audio device and an ear of the subject; a correction means configured to correct the first feature to a second feature related to a system including a reference device and the ear of the subject using a parameter representing a relationship between the audio device and the reference device; and an authentication means configured to authenticate the subject by collating the second feature with a feature indicated in a pre-registered authentication information. a feature extraction means configured to input an inspection signal to an ear of a subject by using an audio device , and when receiving an echo signal from the subject, extract, from the echo signal, a first feature related to a system including the audio device and an ear of the subject; a correction means configured to correct the first feature to a second feature related to a system including a reference device and the ear of the subject using a parameter representing a relationship between the audio device and the reference device; and an authentication means configured to authenticate the subject by collating the second feature with a feature indicated in a pre-registered authentication information.
A method for preparing a metal powder, comprising: preparing a mixture by mixing a fluoride of a group 1 element, a fluoride of a group 2 element or a transition metal fluoride, with neodymium oxide, boron, iron, and a reducing agent; heating the mixture to a temperature of 800 °C to 1100 °C; and forming the metal powder, wherein the heating of the mixture to a temperature of 800 °C to 1100 °C is performed under an inert gas atmosphere for 30 minutes to 6 hours; the metal powder is Nd 2 Fe 14 B; a total content of the fluoride of the group 1 element, the fluoride of the group 2 element or the transition metal fluoride is 1 wt.-% to 10 wt.-% of the metal powder; and a molar ratio of neodymium oxide, iron, and boron in the mixture is between 1:14:1 and 1.5:14:1. preparing a mixture by mixing a fluoride of a group 1 element, a fluoride of a group 2 element or a transition metal fluoride, with neodymium oxide, boron, iron, and a reducing agent; heating the mixture to a temperature of 800 °C to 1100 °C; and forming the metal powder, wherein the heating of the mixture to a temperature of 800 °C to 1100 °C is performed under an inert gas atmosphere for 30 minutes to 6 hours; the metal powder is Nd 2 Fe 14 B; a total content of the fluoride of the group 1 element, the fluoride of the group 2 element or the transition metal fluoride is 1 wt.-% to 10 wt.-% of the metal powder; and a molar ratio of neodymium oxide, iron, and boron in the mixture is between 1:14:1 and 1.5:14:1.
A device for collecting blood comprising a reservoir and affinity molecules, wherein said device is configured such that said affinity molecules are exposed to said blood during the time of collecting said blood; wherein said affinity molecules are coated on the interior surface of said reservoir and are selected from the group consisting of antibodies, antibody fragments, enzymes, fragments of enzymes, enzyme substrates, fragments of enzyme substrates, nucleotides, oligonucleotides, polynucleotides, receptors, aptamers, nanobodies, fragments of receptors, ligands, fragments of enzymes, other proteins, amino acids, peptides, polypeptides, oligopeptides, saccharides, disaccharides, polysaccharides, glycoproteins, proteoglycans, and natural and synthetic polymers; said affinity molecules are covalently attached to said interior surface of the reservoir of the blood collecting device; and characterized in that a mechanical density separator is disposed within said reservoir. wherein said affinity molecules are coated on the interior surface of said reservoir and are selected from the group consisting of antibodies, antibody fragments, enzymes, fragments of enzymes, enzyme substrates, fragments of enzyme substrates, nucleotides, oligonucleotides, polynucleotides, receptors, aptamers, nanobodies, fragments of receptors, ligands, fragments of enzymes, other proteins, amino acids, peptides, polypeptides, oligopeptides, saccharides, disaccharides, polysaccharides, glycoproteins, proteoglycans, and natural and synthetic polymers; said affinity molecules are covalently attached to said interior surface of the reservoir of the blood collecting device; and characterized in that a mechanical density separator is disposed within said reservoir.
A method performed by a base station in a wireless communication system, the method comprising: transmitting , to a terminal, channel state information, CSI, feedback configuration information instructing the terminal to transmit a feedback of a first precoding matrix indicator, PMI, for a first dimension and a channel quality indicator, CQI; transmitting , to the terminal, a reference signal; and receiving , from the terminal, feedback information including the first PMI for the first dimension and the CQI, wherein the first PMI indicating a precoding for the first dimension is based on the reference signal, wherein the CQI is determined based on the precoding for the first dimension and an assumption that precoding negotiated between the terminal and the base station for a second dimension is applied, and wherein the precoding for the second dimension is that each precoding for the second dimension, among a set of precoding candidates for the second dimension, is applied to each of a plurality of sub-bands of an entire band. transmitting , to a terminal, channel state information, CSI, feedback configuration information instructing the terminal to transmit a feedback of a first precoding matrix indicator, PMI, for a first dimension and a channel quality indicator, CQI; transmitting , to the terminal, a reference signal; and receiving , from the terminal, feedback information including the first PMI for the first dimension and the CQI, wherein the first PMI indicating a precoding for the first dimension is based on the reference signal, wherein the CQI is determined based on the precoding for the first dimension and an assumption that precoding negotiated between the terminal and the base station for a second dimension is applied, and wherein the precoding for the second dimension is that each precoding for the second dimension, among a set of precoding candidates for the second dimension, is applied to each of a plurality of sub-bands of an entire band.
A personal care cleaning device comprising: a body portion ; a nozzle member mounted on the body portion and comprising at an end remote from the body portion a nozzle head , wherein the nozzle member is configured to allow passage of liquid from a reservoir in the body portion to the nozzle head; and an orifice in the nozzle head configured to allow the liquid to exit the nozzle head, wherein the orifice is configured to shape the exiting liquid into at least one liquid sheet having a length greater than a width at a target cleaning distance. a body portion ; a nozzle member mounted on the body portion and comprising at an end remote from the body portion a nozzle head , wherein the nozzle member is configured to allow passage of liquid from a reservoir in the body portion to the nozzle head; and an orifice in the nozzle head configured to allow the liquid to exit the nozzle head, wherein the orifice is configured to shape the exiting liquid into at least one liquid sheet having a length greater than a width at a target cleaning distance.
A cartridge, comprising: a housing that encloses a reservoir for storing a liquid to be vaporized; a vaporizer unit configured to vaporize the liquid from the reservoir ; a mouthpiece ; and an airflow channel (C) configured to guide the vapour to the mouthpiece for inhalation by a user, wherein the airflow channel (C) extends centrally through the housing to the mouthpiece at a top of the cartridge ; wherein the housing has a flat base and generally vertically extending sides (7") that transition at curved upper shoulder regions to form or terminate at the mouthpiece at the top of the cartridge . a housing that encloses a reservoir for storing a liquid to be vaporized; a vaporizer unit configured to vaporize the liquid from the reservoir ; a mouthpiece ; and an airflow channel (C) configured to guide the vapour to the mouthpiece for inhalation by a user, wherein the airflow channel (C) extends centrally through the housing to the mouthpiece at a top of the cartridge ; wherein the housing has a flat base and generally vertically extending sides (7") that transition at curved upper shoulder regions to form or terminate at the mouthpiece at the top of the cartridge .
A stretching machine for extruded profiles comprising: - a stretching head capable of translating along a predetermined direction (X) on a basement , - actuation means for translationally actuating the stretching head with respect to the basement , said actuation means comprising a rack and pinion drive, characterised in that : - the pinion is integral with said stretching head and the rack , operatively connected to said pinion , is integral with said basement , and - an electric motor is operatively connected to the pinion , wherein the pinion forms a transmission element and the rack forms a driven element, wherein the electric motor is operatively connected to the pinion with the interposition of a reduction gear , and has a rotation axis perpendicular to a rotation axis of the pinion . - a stretching head capable of translating along a predetermined direction (X) on a basement , - actuation means for translationally actuating the stretching head with respect to the basement , said actuation means comprising a rack and pinion drive, characterised in that : - the pinion is integral with said stretching head and the rack , operatively connected to said pinion , is integral with said basement , and - an electric motor is operatively connected to the pinion , wherein the pinion forms a transmission element and the rack forms a driven element, wherein the electric motor is operatively connected to the pinion with the interposition of a reduction gear , and has a rotation axis perpendicular to a rotation axis of the pinion . - the pinion is integral with said stretching head and the rack , operatively connected to said pinion , is integral with said basement , and - an electric motor is operatively connected to the pinion , wherein the pinion forms a transmission element and the rack forms a driven element, wherein the electric motor is operatively connected to the pinion with the interposition of a reduction gear , and has a rotation axis perpendicular to a rotation axis of the pinion .
A skylight cover being in one piece and comprising: a periphery and an apex defined within the periphery , where the skylight cover projects upward from the periphery , a first surface and a second surface , the first surface being parallel to the second surface ; a third surface and a fourth surface , the third surface being parallel to the fourth surface ; a fifth surface and a sixth surface , the fifth surface being parallel to the sixth surface ; a seventh surface and an eighth surface , the seventh surface being parallel to the eighth surface ; in which none of the first, third, fifth, and seventh surfaces (21, 23, 25 and 27) are parallel, said skylight cover being characterised by further including a first corrugation and a second corrugation , the skylight cover defining a longitude with the first corrugation and the second corrugation oriented transverse to the longitude, the first corrugation and the second corrugation being integral with the skylight cover , the seventh surface being bisected by the first corrugation , the eighth surface being bisected by the second corrugation . a periphery and an apex defined within the periphery , where the skylight cover projects upward from the periphery , a first surface and a second surface , the first surface being parallel to the second surface ; a third surface and a fourth surface , the third surface being parallel to the fourth surface ; a fifth surface and a sixth surface , the fifth surface being parallel to the sixth surface ; a seventh surface and an eighth surface , the seventh surface being parallel to the eighth surface ; in which none of the first, third, fifth, and seventh surfaces (21, 23, 25 and 27) are parallel, said skylight cover being characterised by further including a first corrugation and a second corrugation , the skylight cover defining a longitude with the first corrugation and the second corrugation oriented transverse to the longitude, the first corrugation and the second corrugation being integral with the skylight cover , the seventh surface being bisected by the first corrugation , the eighth surface being bisected by the second corrugation .
A vacuum circuit breaker comprising a vacuum interrupter accommodated in a casing filled with insulating gas, the vacuum interrupter comprising: a vacuum container having an insulating tube and seal members for sealing both ends of the insulating tube ; and a pair of contacts arranged in the vacuum container so as to be contactable with or separable away from each other, and being fixed to conductive shaft members , wherein at least one of the contacts comprises an electrode material containing a Cu phase and a phase of solid solution particles uniformly dispersed in the Cu phase, the solid solution particles being formed of a solid solution of a heat resistant element selected from Mo, W, Ta, Nb, V and Zr and Cr; wherein the electrode material comprises 20 to 70% by weight of Cu, 1.5 to 64% by weight of Cr and 6 to 76% by weight of the heat resistant element, relative to a weight of the electrode material, with the balance being unavoidable impurities; and wherein the solid solution particles contained in the electrode material have an average particle size of 20 μm or smaller, and are uniformly dispersed in the Cu phase with a dispersion state index (CV) of 1.0 or lower, wherein a distance X between the mass centers of the MoCr particles is measured at one hundred different locations in the SEM image, and then an average ave.X and standard deviation σ of all of the measured center-to-center distance values X are calculated, and then the dispersion state index (CV) is determined by substituting the calculated values ave.X and σ into the following equation: CV = σ / ave.X. a vacuum container having an insulating tube and seal members for sealing both ends of the insulating tube ; and a pair of contacts arranged in the vacuum container so as to be contactable with or separable away from each other, and being fixed to conductive shaft members , wherein at least one of the contacts comprises an electrode material containing a Cu phase and a phase of solid solution particles uniformly dispersed in the Cu phase, the solid solution particles being formed of a solid solution of a heat resistant element selected from Mo, W, Ta, Nb, V and Zr and Cr; wherein the electrode material comprises 20 to 70% by weight of Cu, 1.5 to 64% by weight of Cr and 6 to 76% by weight of the heat resistant element, relative to a weight of the electrode material, with the balance being unavoidable impurities; and wherein the solid solution particles contained in the electrode material have an average particle size of 20 μm or smaller, and are uniformly dispersed in the Cu phase with a dispersion state index (CV) of 1.0 or lower, wherein a distance X between the mass centers of the MoCr particles is measured at one hundred different locations in the SEM image, and then an average ave.X and standard deviation σ of all of the measured center-to-center distance values X are calculated, and then the dispersion state index (CV) is determined by substituting the calculated values ave.X and σ into the following equation: CV = σ / ave.X.
A communication method, comprising: generating (S301), by an artificial intelligence, AI, protocol layer of a first access network device, an AI parameter, wherein the AI protocol layer of the first access network device is an upper layer of a radio resource control, RRC, protocol layer of the first access network device; sending (S302), by the first access network device, the AI parameter to a terminal device, wherein the AI parameter is used to indicate AI data that needs to be obtained and an AI data obtaining manner; and receiving (S304), by the first access network device, the AI data from the terminal device; wherein the AI parameter comprises a first AI parameter, and the first AI parameter is sent by using a broadcast AI system information block, AI SIB; wherein the AI parameter further comprises a second AI parameter, the second AI parameter is sent by using RRC dedicated signaling, and a priority of the second AI parameter is higher than a priority of the first AI parameter; and wherein the second AI parameter is determined by the first access network device based on AI capability information of the terminal device. generating (S301), by an artificial intelligence, AI, protocol layer of a first access network device, an AI parameter, wherein the AI protocol layer of the first access network device is an upper layer of a radio resource control, RRC, protocol layer of the first access network device; sending (S302), by the first access network device, the AI parameter to a terminal device, wherein the AI parameter is used to indicate AI data that needs to be obtained and an AI data obtaining manner; and receiving (S304), by the first access network device, the AI data from the terminal device; wherein the AI parameter comprises a first AI parameter, and the first AI parameter is sent by using a broadcast AI system information block, AI SIB; wherein the AI parameter further comprises a second AI parameter, the second AI parameter is sent by using RRC dedicated signaling, and a priority of the second AI parameter is higher than a priority of the first AI parameter; and wherein the second AI parameter is determined by the first access network device based on AI capability information of the terminal device.
Flexible PCM sheet material with high latent thermal energy storage density, characterized by a flexible 2-dimensional carrier structure having geometrically defined structures of a polymer-bound phase change material arranged separately at a spacing of at least 0.5 mm, applied on the surface thereof and connected firmly to the carrier structure, the phase change material being bound by at least two polymers, of which at least one polymer is selected from the group of styrene-containing block copolymers and at least one polymer is selected from the group of styrene-free ethylene/butylene copolymers, the sheet material being dimensionally stable even on phase change, having a latent thermal energy storage density of 100 to 250 J/g and/or 300 to 1000 kJ/m 2 , and being convertible in rolled, folded, wound, cut-to-size or multi-ply form.
Method for recovering energy from the exhaust gas of a burner for the heating of a steam boiler of a laundry machine, wherein the combustion air required by the burner is pre-warmed by the exhaust gas of said burner, wherein energy for pre-warming at least one liquid is additionally extracted from the exhaust gas of the burner after it exits an exhaust-gas side of the steam boiler , and wherein firstly the combustion air of the burner and subsequently the at least one liquid is pre-warmed by the exhaust gas of the burner , characterized in that the temperature of the hot exhaust gas of the burner is reduced to 90°C to 140°C during the warming of the combustion air of the burner , and the temperature of the exhaust gas of the burner is reduced yet further to 40°C to 60°C during the pre-warming of the at least one liquid.