mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for producing hot briquetted iron, HBI, the apparatus comprising: a feeder unit configured to cool and transport direct reduced iron, referred as DRI; a quantitative dispenser unit configured to pulverize the DRI and discharge a predetermined fixed amount of the pulverized DRI at a time; a hot briquette forming unit configured to hot-press the fixed amount of the DRI to form hot iron briquettes; and a cooler unit configured to cool the hot iron briquettes, wherein the cooler unit comprises a cylindrical body with an inlet provided on a first side thereof and an outlet provided on a second side thereof, a cooling water spray nozzle provided inside the cylindrical body, and a transport screw or blade configured to transport the hot iron briquettes from the inlet to the outlet and provided in the cylindrical body, wherein the hot iron briquettes are introduced into the cooler unit through the inlet and are discharged from the cooler unit through the outlet, the cooler unit is obliquely installed such that the outlet of the cooler unit is positioned higher than the inlet, and cooling water retained in the body of the cooler unit is configured to cool the hot iron briquettes introduced through the inlet and is discharged outside through the inlet. a feeder unit configured to cool and transport direct reduced iron, referred as DRI; a quantitative dispenser unit configured to pulverize the DRI and discharge a predetermined fixed amount of the pulverized DRI at a time; a hot briquette forming unit configured to hot-press the fixed amount of the DRI to form hot iron briquettes; and a cooler unit configured to cool the hot iron briquettes, wherein the cooler unit comprises a cylindrical body with an inlet provided on a first side thereof and an outlet provided on a second side thereof, a cooling water spray nozzle provided inside the cylindrical body, and a transport screw or blade configured to transport the hot iron briquettes from the inlet to the outlet and provided in the cylindrical body, wherein the hot iron briquettes are introduced into the cooler unit through the inlet and are discharged from the cooler unit through the outlet, the cooler unit is obliquely installed such that the outlet of the cooler unit is positioned higher than the inlet, and cooling water retained in the body of the cooler unit is configured to cool the hot iron briquettes introduced through the inlet and is discharged outside through the inlet.
A method of making an immunogenic glycoconjugate comprising a) substituting at least one N-acetyl group on an antigenic oligosaccharide or polysaccharide comprising one or more N-acetyl substituted amino-sugars with an N-acyl moiety comprising an unsaturated alkyl moiety of greater than 5 carbons, wherein at least one double bond is located between two carbons other than between carbons 1 and 2 or between carbons 2 and 3 of the unsaturated alkyl moiety; b) contacting the substituted oligosaccharide or polysaccharide with an oxidizing agent to generate at least one active aldehyde group at a site of unsaturation of said alkyl moiety; and c) conjugating the oligosaccharide or polysaccharide via the at least one active aldehyde group with a carrier protein, thereby generating an immunogenic glycoconjugate. a) substituting at least one N-acetyl group on an antigenic oligosaccharide or polysaccharide comprising one or more N-acetyl substituted amino-sugars with an N-acyl moiety comprising an unsaturated alkyl moiety of greater than 5 carbons, wherein at least one double bond is located between two carbons other than between carbons 1 and 2 or between carbons 2 and 3 of the unsaturated alkyl moiety; b) contacting the substituted oligosaccharide or polysaccharide with an oxidizing agent to generate at least one active aldehyde group at a site of unsaturation of said alkyl moiety; and c) conjugating the oligosaccharide or polysaccharide via the at least one active aldehyde group with a carrier protein,
Clutch actuator comprising: a housing; a driving motor coupled to one side of the housing; a hydraulic pressure generator coupled to the other side of the housing; a ball screw connected to the driving motor so as to be rotated by the driving motor; a nut slider engaged with the ball screw and which moves along a longitudinal direction of the ball screw by means of the rotation of the ball screw, characterized in that, a cam slider moving linearly along an operating direction of the hydraulic pressure generator by means of the movement of the nut slider; a roller unit provided at the nut slider so as to come into rolling contact with the cam slider; and a push rod provided at the cam slider to press a piston of the hydraulic pressure generator, wherein the housing comprises a first guide portion for guiding the movement of the cam slider, and the first guide portion is disposed between the driving motor and the hydraulic pressure generator. a housing; a driving motor coupled to one side of the housing; a hydraulic pressure generator coupled to the other side of the housing; a ball screw connected to the driving motor so as to be rotated by the driving motor; a nut slider engaged with the ball screw and which moves along a longitudinal direction of the ball screw by means of the rotation of the ball screw, characterized in that, a cam slider moving linearly along an operating direction of the hydraulic pressure generator by means of the movement of the nut slider; a roller unit provided at the nut slider so as to come into rolling contact with the cam slider; and a push rod provided at the cam slider to press a piston of the hydraulic pressure generator, wherein the housing comprises a first guide portion for guiding the movement of the cam slider, and the first guide portion is disposed between the driving motor and the hydraulic pressure generator.
An aqueous composition for keratin fibres especially for human hair characterised in that it comprises at least one oil and/or wax at a concentration 10 to 40% by weight calculated to total composition, at least one natural starch at a concentration 1 to 25% by weight calculated to total composition, at least one emulsifier at a concentration of 0.05 to 10% by weight calculated to total composition and at least one film forming polymer selected from anionic, cationic and amphoteric polymers.
A material comprising one or more transparent substrates, each substrate comprising two main faces, characterized in that: - one of the faces of one of the substrates is coated with a functional coating which can have an effect on solar radiation and/or infrared radiation comprising at least one silver-based metallic functional layer, each positioned between two dielectric coatings, and - a face not coated with the functional coating of one of the substrates comprises an absorbent color-adjustment coating comprising, starting from the substrate: - an absorbent layer which absorbs solar radiation in the visible part of the spectrum, - an upper dielectric coating. - one of the faces of one of the substrates is coated with a functional coating which can have an effect on solar radiation and/or infrared radiation comprising at least one silver-based metallic functional layer, each positioned between two dielectric coatings, and - a face not coated with the functional coating of one of the substrates comprises an absorbent color-adjustment coating comprising, starting from the substrate: - an absorbent layer which absorbs solar radiation in the visible part of the spectrum, - an upper dielectric coating.
A system for generating a lead parameter, comprising: a pulse generator configured to generate an electrical signal; an implanted lead in communication with the pulse generator and configured to transmit the electrical signal to an anatomical element; a processor; and a memory storing data for processing by the processor, the data, when processed, causes the processor to: receive a first image of an anatomical region, wherein the first image depicts the anatomical element and at least a portion of an initial lead; receive an initial lead parameter associated with the initial lead; receive a second image of the anatomical region, wherein the second image depicts at least a portion of the anatomical element and at least a portion of the implanted lead, the second image being received at a different time than the first image; and generate an implanted lead parameter for the implanted lead based on a combination of the initial lead parameter and a correlation of the first image with the second image. a pulse generator configured to generate an electrical signal; an implanted lead in communication with the pulse generator and configured to transmit the electrical signal to an anatomical element; a processor; and a memory storing data for processing by the processor, the data, when processed, causes the processor to: receive a first image of an anatomical region, wherein the first image depicts the anatomical element and at least a portion of an initial lead; receive an initial lead parameter associated with the initial lead; receive a second image of the anatomical region, wherein the second image depicts at least a portion of the anatomical element and at least a portion of the implanted lead, the second image being received at a different time than the first image; and generate an implanted lead parameter for the implanted lead based on a combination of the initial lead parameter and a correlation of the first image with the second image. receive a first image of an anatomical region, wherein the first image depicts the anatomical element and at least a portion of an initial lead; receive an initial lead parameter associated with the initial lead; receive a second image of the anatomical region, wherein the second image depicts at least a portion of the anatomical element and at least a portion of the implanted lead, the second image being received at a different time than the first image; and generate an implanted lead parameter for the implanted lead based on a combination of the initial lead parameter and a correlation of the first image with the second image.
A portable device for moistening one side of a pre-glued wall covering strip, comprising - a housing, - a tank capable of holding water, - a presenting cylinder of the pre-glued wall covering strip, attached at both ends to the housing so that it can rotate freely around its axis of revolution, - a projection device capable of projecting water, present in the tank, along the entire length of the presenting cylinder, the projection device being at a distance from the presenting cylinder so that said projection device is not in direct contact with the presenting cylinder, - a means of connection capable of connecting the presenting cylinder to the projection device in motion, so that the rotation of the presenting cylinder triggers the projection of water by the projection device and stopping the rotation of the presenting cylinder interrupts the projection of water by the projection device. - a housing, - a tank capable of holding water, - a presenting cylinder of the pre-glued wall covering strip, attached at both ends to the housing so that it can rotate freely around its axis of revolution, - a projection device capable of projecting water, present in the tank, along the entire length of the presenting cylinder, the projection device being at a distance from the presenting cylinder so that said projection device is not in direct contact with the presenting cylinder, - a means of connection capable of connecting the presenting cylinder to the projection device in motion, so that the rotation of the presenting cylinder triggers the projection of water by the projection device and stopping the rotation of the presenting cylinder interrupts the projection of water by the projection device.
A method of feeding electric power into an electric network wherein the feed is effected by means of at least one wind power installation with a first feed-in arrangement at a feed-in point into the electric network, characterized in that the feed is effected in dependence on electric parameters in the network and measurement values of the electric parameters or measurement values for determining the electric parameters are detected at measurement times at predetermined time intervals and wherein the measurement times are synchronised to an external time signal available outside the first feed-in arrangement.
An apparatus comprising: logic, coupled to a processor, to communicate information to a module, wherein the information is to comprise a duration counter value corresponding to a duration in which an operating characteristic of the processor is limited; and wherein the information further comprises a magnitude counter value corresponding to a difference between a magnitude of a requested feature by the module and a magnitude of the requested feature to be provided by the processor. logic, coupled to a processor, to communicate information to a module, wherein the information is to comprise a duration counter value corresponding to a duration in which an operating characteristic of the processor is limited; and wherein the information further comprises a magnitude counter value corresponding to a difference between a magnitude of a requested feature by the module and a magnitude of the requested feature to be provided by the processor.
A modular electrically variable transmission, comprising: two sun-shared modules (60A,60B) assembled to form a two-module electrically variable transmission, the two sun-shared modules (60A,60B) operably coupled together such that one of the two sun-shared modules forms a shiftable motor speed reducer subassembly and the other of the two sun-shared modules forms an electrically variable transmission subassembly; each sun-shared module (60A,60B) including a motor-generator (54,44), an input member, a primary planetary gear set and a secondary planetary gear set each having respective primary and secondary ring gear members (96A, 110A; 96B,110B), primary and secondary carrier members (88A, 102A; 88B, 102B) and associated primary and secondary pinion gear members (92A, 106A; 92B, 106B), the primary and secondary pinion gear members (92A, 106A; 92B, 106B) in meshing engagement with a single shared sun gear member (84A, 84B) that is non-rotatably coupled to the motor-generator (54, 44), the input member non-rotatably coupled to the primary carrier member (88A, 88B). two sun-shared modules (60A,60B) assembled to form a two-module electrically variable transmission, the two sun-shared modules (60A,60B) operably coupled together such that one of the two sun-shared modules forms a shiftable motor speed reducer subassembly and the other of the two sun-shared modules forms an electrically variable transmission subassembly; each sun-shared module (60A,60B) including a motor-generator (54,44), an input member, a primary planetary gear set and a secondary planetary gear set each having respective primary and secondary ring gear members (96A, 110A; 96B,110B), primary and secondary carrier members (88A, 102A; 88B, 102B) and associated primary and secondary pinion gear members (92A, 106A; 92B, 106B), the primary and secondary pinion gear members (92A, 106A; 92B, 106B) in meshing engagement with a single shared sun gear member (84A, 84B) that is non-rotatably coupled to the motor-generator (54, 44), the input member non-rotatably coupled to the primary carrier member (88A, 88B).
A method, implemented by a computer, for extracting visual features from images using two convolutional neural networks, and for transferring training from the first convolutional neural network to the second convolutional neural network, comprising the following steps of: a) training the first convolutional neural network from a database of images labelled according to a plurality of categories of the most specific level of the database, each image being able to be represented by a feature vector; b) constructing at least one sub-category for each of the categories of the most specific level; c) relabelling the database of images with all the sub-categories in order to form a relabelled database of images; d) training the second convolutional neural network from the relabelled database of images; with step b) of constructing at least one sub-category comprising the sub-steps of: b1) partitioning, for each of the categories of the most specific level, the images of the category (I.C) into a plurality of sub-groups (C.W.M.C); b2) determining, for each sub-group (C.W.M.C), the number of images (I.R) and, if the number of images (I.R) is below a threshold, attaching each image (I.R) of the sub-group (C.W.M.C) to a sub-group (C.W.M.C), called large sub-group, whose number of images is greater than the threshold, each image (I.R) being attached to the closest large sub-group (C.W.M.C), by determining a feature vector of a large sub-group (C.W.M.C) closest to the feature vector representing the image; b3) determining a matrix (Ms) of similarity measurements between each of the large sub-groups (C.W.M.C); b4) merging the large sub-groups as a function of the matrix of similarity measurements in order to form the sub-categories (M.S.C). a) training the first convolutional neural network from a database of images labelled according to a plurality of categories of the most specific level of the database, each image being able to be represented by a feature vector; b) constructing at least one sub-category for each of the categories of the most specific level; c) relabelling the database of images with all the sub-categories in order to form a relabelled database of images; d) training the second convolutional neural network from the relabelled database of images; b1) partitioning, for each of the categories of the most specific level, the images of the category (I.C) into a plurality of sub-groups (C.W.M.C); b2) determining, for each sub-group (C.W.M.C), the number of images (I.R) and, if the number of images (I.R) is below a threshold, attaching each image (I.R) of the sub-group (C.W.M.C) to a sub-group (C.W.M.C), called large sub-group, whose number of images is greater than the threshold, each image (I.R) being attached to the closest large sub-group (C.W.M.C), by determining a feature vector of a large sub-group (C.W.M.C) closest to the feature vector representing the image; b3) determining a matrix (Ms) of similarity measurements between each of the large sub-groups (C.W.M.C); b4) merging the large sub-groups as a function of the matrix of similarity measurements in order to form the sub-categories (M.S.C).
A method for realising a thermal/photovoltaic solar panel comprising the steps of: - realising a stratified assembly comprising: a heat exchanger for heating a heat transfer fluid, a layer of photovoltaic cells and at least a first layer of adhesive interposed between the exchanger and the layer of photovoltaic cells; the exchanger comprising two opposite surfaces (211, 212) and also a lateral side that extends in thickness and connects the two opposite surfaces (211, 212); - hot compressing said assembly; the step of hot compressing the assembly compresses layers of said stratified assembly against one another; the step of realising said stratified assembly occurs before the assembly is hot compressed; the step of hot compressing said assembly comprises/determines the step of making the first layer of adhesive melt which is distributed into gaps placed between the heat exchanger and the layer of photovoltaic cells; the heat exchanger during hot compression is devoid of a connector for the fluid inlet pipe after the step of hot compressing the assembly, the method comprises the step of applying to said exchanger a connector for a fluid inlet pipe; characterised in that the connector is applied to one of the two surfaces (211, 212) after the step of hot compressing the assembly, but before the step of applying the connector for the inlet pipe, the method comprises the step of making a hole on the exchanger, said connector for the inlet pipe being connected to the hole. Mule, - realising a stratified assembly comprising: a heat exchanger for heating a heat transfer fluid, a layer of photovoltaic cells and at least a first layer of adhesive interposed between the exchanger and the layer of photovoltaic cells; the exchanger comprising two opposite surfaces (211, 212) and also a lateral side that extends in thickness and connects the two opposite surfaces (211, 212); - hot compressing said assembly; the step of hot compressing the assembly compresses layers of said stratified assembly against one another; the step of realising said stratified assembly occurs before the assembly is hot compressed; the step of hot compressing said assembly comprises/determines the step of making the first layer of adhesive melt which is distributed into gaps placed between the heat exchanger and the layer of photovoltaic cells; the heat exchanger during hot compression is devoid of a connector for the fluid inlet pipe after the step of hot compressing the assembly, the method comprises the step of applying to said exchanger a connector for a fluid inlet pipe;
A method for determining position data used to determine the location of a user device, the method comprising: determining a first set of estimated distances between terrestrial transmitters and the user device using signals transmitted by the terrestrial transmitters and received by the user device; determining an estimated location of the user device based on the first set of estimated distances; determining a second set of estimated distances between satellites and the estimated location of the user device based on the estimated location of the user device and constellation information associated with the satellites; and transmitting position data that specifies the second set of estimated distances to a network. determining a first set of estimated distances between terrestrial transmitters and the user device using signals transmitted by the terrestrial transmitters and received by the user device; determining an estimated location of the user device based on the first set of estimated distances; determining a second set of estimated distances between satellites and the estimated location of the user device based on the estimated location of the user device and constellation information associated with the satellites; and transmitting position data that specifies the second set of estimated distances to a network.
An apparatus comprising: a decoder circuitry (205; 303; 606; 640) to decode an instance of a single instruction, the single instruction to include a field for an opcode (201; 301; 903), the opcode to indicate an execution circuitry (103; 209; 307; 616; 662) is to copy from a first register a saturation flag value, an overflow value, and a carry value to a second register, wherein the second register is a flags register (105; 840) and wherein, if there is not a saturation flag in the flags register, the saturation flag value is to be copied into a parity flag; the overflow value is to be copied into an overflow flag, and the carry value is to be copied into a carry flag; and execution circuitry (103; 209; 307; 616; 662) to execute the decoded instruction according to the opcode (201; 301; 903) of the instance of the single instruction. a decoder circuitry (205; 303; 606; 640) to decode an instance of a single instruction, the single instruction to include a field for an opcode (201; 301; 903), the opcode to indicate an execution circuitry (103; 209; 307; 616; 662) is to copy from a first register a saturation flag value, an overflow value, and a carry value to a second register, wherein the second register is a flags register (105; 840) and wherein, if there is not a saturation flag in the flags register, the saturation flag value is to be copied into a parity flag; the overflow value is to be copied into an overflow flag, and the carry value is to be copied into a carry flag; and execution circuitry (103; 209; 307; 616; 662) to execute the decoded instruction according to the opcode (201; 301; 903) of the instance of the single instruction.