mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising a stable aqueous dispersion of polymer particles comprising, based on the weight of the polymer particles, a) from 50 to 99.8 weight percent structural units of a nonionic monoethylenically unsaturated monomer; b) from 0.1 to 10 weight percent structural units of 2-(methacryloyloxy)ethyl phosphonic acid or a salt thereof, and c) from 0.1 to 10 weight percent structural units of a sulfur acid monomer or a carboxylic acid monomer or a combination thereof or a salt thereof. a) from 50 to 99.8 weight percent structural units of a nonionic monoethylenically unsaturated monomer; b) from 0.1 to 10 weight percent structural units of 2-(methacryloyloxy)ethyl phosphonic acid or a salt thereof, and c) from 0.1 to 10 weight percent structural units of a sulfur acid monomer or a carboxylic acid monomer or a combination thereof or a salt thereof.
A wastewater treatment process comprising: heating an alumina-supported catalyst comprising alumina in a form other than α-alumina and a catalyst deposited thereon at a temperature effective to transform at least a portion of the alumina to its α-alumina form and produce a stabilized α-alumina supported catalyst, wherein the stabilized α-alumina supported catalyst refers to an alumina supported catalyst produced by the heat treatment processes that has at least a majority of its alumina in the α-phase; and subjecting a wastewater stream comprising an amount of contaminants and having a pH of 9 or greater to a wet air oxidation or hydrolysis process in the presence of the stabilized α-alumina supported catalyst to reduce an amount of the contaminants in the wastewater stream. heating an alumina-supported catalyst comprising alumina in a form other than α-alumina and a catalyst deposited thereon at a temperature effective to transform at least a portion of the alumina to its α-alumina form and produce a stabilized α-alumina supported catalyst, wherein the stabilized α-alumina supported catalyst refers to an alumina supported catalyst produced by the heat treatment processes that has at least a majority of its alumina in the α-phase; and subjecting a wastewater stream comprising an amount of contaminants and having a pH of 9 or greater to a wet air oxidation or hydrolysis process in the presence of the stabilized α-alumina supported catalyst to reduce an amount of the contaminants in the wastewater stream.
A patient monitor comprising: a display component; a plurality of sensors (20, 22, 24) configured for reading vital signs of a human subject including at least one cardiovascular parameter and at least one respiratory parameter; and a microprocessor or microcontroller programmed to perform a cardiovascular early warning scoring (cEWS) method including the operations of: (i) classifying the human subject using a plurality of cardiovascular deterioration classifiers (52, 152, 54, 56, 58) each trained to classify the human subject respective to a different type of cardiovascular deterioration to generate cardiovascular early warning scores for the different types of cardiovascular deterioration, the plurality of cardiovascular deterioration classifiers operating on a set of inputs characterizing the human subject including the at least one cardiovascular parameter and the at least one respiratory parameter read by the plurality of sensors, and (ii) outputting the cardiovascular early warning scores for the different types of cardiovascular deterioration on the display component of the patient monitor. a display component; a plurality of sensors (20, 22, 24) configured for reading vital signs of a human subject including at least one cardiovascular parameter and at least one respiratory parameter; and a microprocessor or microcontroller programmed to perform a cardiovascular early warning scoring (cEWS) method including the operations of: (i) classifying the human subject using a plurality of cardiovascular deterioration classifiers (52, 152, 54, 56, 58) each trained to classify the human subject respective to a different type of cardiovascular deterioration to generate cardiovascular early warning scores for the different types of cardiovascular deterioration, the plurality of cardiovascular deterioration classifiers operating on a set of inputs characterizing the human subject including the at least one cardiovascular parameter and the at least one respiratory parameter read by the plurality of sensors, and (ii) outputting the cardiovascular early warning scores for the different types of cardiovascular deterioration on the display component of the patient monitor. (i) classifying the human subject using a plurality of cardiovascular deterioration classifiers (52, 152, 54, 56, 58) each trained to classify the human subject respective to a different type of cardiovascular deterioration to generate cardiovascular early warning scores for the different types of cardiovascular deterioration, the plurality of cardiovascular deterioration classifiers operating on a set of inputs characterizing the human subject including the at least one cardiovascular parameter and the at least one respiratory parameter read by the plurality of sensors, and (ii) outputting the cardiovascular early warning scores for the different types of cardiovascular deterioration on the display component of the patient monitor.
A method for identifying a plurality of immunoglobulin (Ig) heavy and Ig light chain pairs in a sample comprising antibody secreting cells (ASCs), comprising, subjecting the sample to conditions suitable for expansion of one or more of the ASCs to form an expanded sample; partitioning the expanded sample into a plurality of individual vessels to provide a plurality of sample subpopulations; subjecting one or more of the sample subpopulations to conditions suitable for expansion of one or more of the ASCs in the one or more of the sample subpopulations; to form one or more expanded sample subpopulations; sequencing the Ig heavy and Ig light chain nucleic acid in each sample subpopulation to determine the identity of the Ig heavy and light Ig chains in each sample subpopulation; determining the observed distribution of each of the Ig heavy and Ig light chains across the sample subpopulations and calculating statistical probabilities that the observed distributions of Ig heavy and Ig light chain pairs in the sample subpopulations are independent from one another; and identifying the plurality of Ig heavy and Ig light chain pairs based on the calculated statistical probabilities.
A method performed by a terminal (135, 301, 701) for cell selection in a wireless communication system, the method comprising: receiving, from a base station (105, 110, 115, 120, 302, 702), first maximum power information and at least one second maximum power information; obtaining a first maximum transmission power level for a cell of the base station based on the first maximum power information and a second maximum transmission power level for the cell of the base station based on one from the at least one second maximum power information; calculating a compensation parameter for determining a cell selection reception level value based on the first maximum transmission power level, the second maximum transmission power level and a maximum output power of the terminal (135, 301, 701); calculating a cell selection reception level value of the cell based on a measured cell reception level value, a minimum required reception level, an offset to the minimum required reception level, and the compensation parameter; and performing a periodic search for a higher priority public land mobile network, PLMN, based on a result of the cell selection reception level value of the cell. receiving, from a base station (105, 110, 115, 120, 302, 702), first maximum power information and at least one second maximum power information; obtaining a first maximum transmission power level for a cell of the base station based on the first maximum power information and a second maximum transmission power level for the cell of the base station based on one from the at least one second maximum power information; calculating a compensation parameter for determining a cell selection reception level value based on the first maximum transmission power level, the second maximum transmission power level and a maximum output power of the terminal (135, 301, 701); calculating a cell selection reception level value of the cell based on a measured cell reception level value, a minimum required reception level, an offset to the minimum required reception level, and the compensation parameter; and performing a periodic search for a higher priority public land mobile network, PLMN, based on a result of the cell selection reception level value of the cell.
A cutting insert comprising: a first surface and a second surface each of which is polygonal and that face away from each other; a side surface that is continuous with the first surface and a side surface that is continuous with the second surface; a cutting edge formed along each of a ridge where the first surface and the side surface intersect and a ridge where the second surface and the side surface intersect; a bearing surface formed in each of a part the first surface and a part of the second surface adjacent to an insert center, the bearing surfaces disposed parallel to each other; and a recessed portion that separates the side surface that is continuous with the first surface from the side surface that is continuous with the second surface, wherein the cutting edge includes three corner edges, a first cutting edge, and a second cutting edge, the first and second cutting edges being continuous with each other and located between each pair of the corner edges, wherein a length of the first cutting edge is greater than that of the second cutting edge, an end portion of the first cutting edge adjacent to one of the corner edges is at a position higher than the bearing surface, wherein each of the first surface, the second surface, and a cross section of the recessed portion has such a shape that outlines of the shape before and after rotation of the insert by 120° around the insert center are coincident with each other, wherein the first surface and the second surface have the same shape, and wherein the second cutting edge of the second surface is located at a corner at which the first cutting edge of the first surface is located, characterised in that an end portion of the first cutting edge opposite to the end portion adjacent to the corner edge is at a position lower than the bearing surface, in that in the first cutting edge, an angle between the bearing surface and a part of the side surface adjacent to the corner edge is 90°, and in that an angle between the bearing surface and a part of the side surface away from the corner edge is 90° or less.
Induction heating unit having at least one induction heating circuit which is at least wound into a coil and which comprises at least one inner coil section and at least one outer coil section, wherein the inner coil section is wound with gaps and the outer coil section is wound tightly, and wherein successive windings of the tightly-wound coil section adjoin each other, characterised in that the inner coil section and the outer coil section are separated from each other by a transitional area having a width of at least 0.5 cm.
A null data packet announcement, NDPA, frame transmission method performed by a communication apparatus, comprising: generating an NDPA frame, wherein the NDPA frame comprises a station information field, and the station information field comprises an association identifier, AID, subfield indicating an AID of a station; the station information field further comprises a partial bandwidth information subfield; the partial bandwidth information subfield comprises a resource unit, RU, indication index, wherein the RU indication index indicates an RU in a bandwidth corresponding to the NDPA frame and for which the station needs to feed back channel state information; and a granularity of the RU indicated by the RU indication index comprises at least one of 242-tone RU, 484-tone RU or 996-tone RU; and transmitting the NDPA frame. generating an NDPA frame, wherein the NDPA frame comprises a station information field, and the station information field comprises an association identifier, AID, subfield indicating an AID of a station; the station information field further comprises a partial bandwidth information subfield; the partial bandwidth information subfield comprises a resource unit, RU, indication index, wherein the RU indication index indicates an RU in a bandwidth corresponding to the NDPA frame and for which the station needs to feed back channel state information; and a granularity of the RU indicated by the RU indication index comprises at least one of 242-tone RU, 484-tone RU or 996-tone RU; and transmitting the NDPA frame.
A method for shared key generation with authentication comprising: generating, with a processor in a gateway node communicatively connected to a first node and a second node through a shared communication medium, a first set of pseudo-random data corresponding to expected transmissions from the first node based on a predetermined one-way function applied to a first shared key between the first node and the gateway node; simultaneously transmitting with the first node and the second node a plurality of signals through the shared communication medium, identifying, with the processor in the gateway node, a plurality of bits transmitted from the second node based on a plurality of signals received by a transceiver in the gateway node communicatively connected to the shared communication medium, the plurality of signals corresponding to a plurality of simultaneous transmissions from the first node and the second node; identifying, with the processor in the gateway node, a plurality of expected bit values for at least a portion of the second plurality of bits transmitted from the second node based at least in part on applying the predetermined one-way function to a combination of shared secret data between the gateway node and the second node stored in a memory of the gateway node with another set of random data generated by the second node; and authenticating, with the processor in the gateway node, the second node in response to the plurality of bits transmitted from the second node matching the plurality of expected bit values.
A robot cleaner comprising: a cleaner body including a controller, the cleaner body having a dust container accommodation part formed as being dented toward a front side from a rear side of the cleaner body to be opened rearward; a wheel unit mounted in the cleaner body, wherein the controller is configured to control driving of the wheel unit; a suction unit mounted in the cleaner body configured to suck air containing dust; a dust container detachably coupled to the dust container accommodation part, the dust container configured to filter and collect dust from sucked air; and a dust container cover including a hinge part rotatably coupled to the cleaner body (1 10a), the dust container cover covers or opens at least a portion of the dust container accommodation part by detachably coupling to the top surface of the dust container. a cleaner body including a controller, the cleaner body having a dust container accommodation part formed as being dented toward a front side from a rear side of the cleaner body to be opened rearward; a wheel unit mounted in the cleaner body, wherein the controller is configured to control driving of the wheel unit; a suction unit mounted in the cleaner body configured to suck air containing dust; a dust container detachably coupled to the dust container accommodation part, the dust container configured to filter and collect dust from sucked air; and a dust container cover including a hinge part rotatably coupled to the cleaner body (1 10a), the dust container cover covers or opens at least a portion of the dust container accommodation part by detachably coupling to the top surface of the dust container.
Circuit assembly for exchanging electric charge between the cells of a battery block, the battery block being interconnected via its external connecting terminals (5, 6) with a plurality of battery blocks (1a, 1b, 1c, 1c, 1e) in a battery block assembly, the circuit assembly comprising an energy transmitter located in a first battery block, wherein electric energy can be supplied via the energy transmitter of any cell of the first battery block, for which purpose a cell of the battery block is connected to the energy transmitter via a switching element of the circuit assembly, and the circuit assembly further comprising an input circuit, via which electric energy is transmitted into the energy transmitter, wherein the input circuit is connected to the energy transmitter via a switching element, characterised in that the electric energy supplied via the input circuit from at least one cell of the second battery block of the battery block assembly is supplied via an equalising line, and in that the voltage applied to the input circuit is less than or equal to the voltage (U A) of the second battery block.
A method of preparing a cutting path for machine cutting of a plurality of parts from a sheet material using beam cutting technology, wherein each one of the plurality of parts is formed by one of a plurality of two dimensional free form shapes, comprising at least a first shape, and wherein a cutting beam of the machine has an influential zone that extends on both sides of the cutting beam during cutting, the method characterized by: - identifying that at least one segment of the at least one first shape risks to generate interference of the influential zone of the cutting path that produces a negative effect on the cut parts, when positioned and cut so close to another shape in the plurality of shapes so that only one cut of the cutting beam is found between the parts, wherein the identifying of at least one segment involves identifying interference of the influential zone of the cutting path, - modifying the segment of the at least one first shape to provide a modified first shape, comprising a modified segment, configured such that the modified segment allows a part of the modified first shape to be positioned and cut so close to another shape in the plurality of shapes so that only one cut of the cutting beam is found between the parts whenever the shape of the parts allows it, wherein the modifying of the segment of the at least one first shape to provide a modified first shape involves modifying the segment such that interference of the influential zone is decreased. - identifying that at least one segment of the at least one first shape risks to generate interference of the influential zone of the cutting path that produces a negative effect on the cut parts, when positioned and cut so close to another shape in the plurality of shapes so that only one cut of the cutting beam is found between the parts, wherein the identifying of at least one segment involves identifying interference of the influential zone of the cutting path, - modifying the segment of the at least one first shape to provide a modified first shape, comprising a modified segment, configured such that the modified segment allows a part of the modified first shape to be positioned and cut so close to another shape in the plurality of shapes so that only one cut of the cutting beam is found between the parts whenever the shape of the parts allows it, wherein the modifying of the segment of the at least one first shape to provide a modified first shape involves modifying the segment such that interference of the influential zone is decreased.
A sole structure comprising: a first spring plate having an upwardly extending first medial outer edge and an upwardly extending first lateral outer edge; a second spring plate having an upwardly extending second medial outer edge and an upwardly extending second lateral outer edge; and a damping material layer having portions located between the first and second medial outer edges and between the first and second lateral outer edges, wherein the first spring plate, second spring plate and damping material layer are provided in alternating layers and wherein the second spring plate includes an attachment portion located in a longitudinally extending central region of the second spring plate, the second spring plate attachment portion being fixed relative to a corresponding portion of the first spring plate. a first spring plate having an upwardly extending first medial outer edge and an upwardly extending first lateral outer edge; a second spring plate having an upwardly extending second medial outer edge and an upwardly extending second lateral outer edge; and a damping material layer having portions located between the first and second medial outer edges and between the first and second lateral outer edges, wherein the first spring plate, second spring plate and damping material layer are provided in alternating layers and wherein the second spring plate includes an attachment portion located in a longitudinally extending central region of the second spring plate, the second spring plate attachment portion being fixed relative to a corresponding portion of the first spring plate.
A fluid flow device comprising a plurality of fluid flow functional modules (10A, 10B, 10C) each fastened on a respective individual base (20A, 20B, 20C) comprising: · two parallel lateral faces (20.1, 20.2) via which the bases are adapted to be placed against one another in such a manner that when the bases are placed against one another, two of the bases each have one lateral face that is free; · a primary fluid transport channel passing through the base to open out in its two lateral faces in identical relative positions; · a front face (20.3) along which the module extends so as to couple an inlet channel of said module with a secondary channel extending inside the base from the front face and opening out in the primary channel; · a check valve having both an open state and also a closed state in which the check valve closes the secondary channel when the base is not provided with a module; and · a top face (20.4) in which there extends a tertiary channel opening out in the primary channel; the device including a fastener means (31, 32, 33) for fastening the bases to one another, leaktight coupling means (40, 41) for coupling primary channels with one another, leaktight coupling means (40, 50) for coupling an end of the primary channel opening out in one of the free lateral faces to a source of fluid under pressure in order to feed the modules, and leaktight coupling means for coupling the end of the tertiary channel opening out in the top face of the base to a source of fluid under pressure in order to feed the module. · two parallel lateral faces (20.1, 20.2) via which the bases are adapted to be placed against one another in such a manner that when the bases are placed against one another, two of the bases each have one lateral face that is free; · a primary fluid transport channel passing through the base to open out in its two lateral faces in identical relative positions; · a front face (20.3) along which the module extends so as to couple an inlet channel of said module with a secondary channel extending inside the base from the front face and opening out in the primary channel; · a check valve having both an open state and also a closed state in which the check valve closes the secondary channel when the base is not provided with a module; and · a top face (20.4) in which there extends a tertiary channel opening out in the primary channel;