mhurhangee/patent-ind-claim-en huggingface dataset:
A photopolymerization 3D printing system comprising: a processing device configured to determine one or more printing layers of an object ; a micro light emitting diode array, microLED array, configured to generate light for each of the one or more printing layers , wherein the microLED array is arranged on one or more microLED sub-panels included in a microLED panel , and the one or more microLED sub-panels are rotatable along an axis perpendicular to the microLED panel and in case of more than one microLED sub-panel, they are rotatable with respect to each other, wherein to generate the light for each of the one or more printing layers , the processing device is configured to: dynamically determine one or more microLED regions in the microLED array, each of the one or more microLED regions including one or more individually addressable microLED emitters , determine one or more region printing parameters for each of the one or more microLED regions ; and determine one or more control signals for the one or more individually addressable microLED emitters included in each of the one or more microLED regions based on the one or more region printing parameters; and a printing component configured to print the one or more printing layers . a processing device configured to determine one or more printing layers of an object ; a micro light emitting diode array, microLED array, configured to generate light for each of the one or more printing layers , wherein the microLED array is arranged on one or more microLED sub-panels included in a microLED panel , and the one or more microLED sub-panels are rotatable along an axis perpendicular to the microLED panel and in case of more than one microLED sub-panel, they are rotatable with respect to each other, wherein to generate the light for each of the one or more printing layers , the processing device is configured to: dynamically determine one or more microLED regions in the microLED array, each of the one or more microLED regions including one or more individually addressable microLED emitters , determine one or more region printing parameters for each of the one or more microLED regions ; and determine one or more control signals for the one or more individually addressable microLED emitters included in each of the one or more microLED regions based on the one or more region printing parameters; and dynamically determine one or more microLED regions in the microLED array, each of the one or more microLED regions including one or more individually addressable microLED emitters , determine one or more region printing parameters for each of the one or more microLED regions ; and determine one or more control signals for the one or more individually addressable microLED emitters included in each of the one or more microLED regions based on the one or more region printing parameters; and a printing component configured to print the one or more printing layers .
An extrusion system comprising a cooled extruder, fixable to a printing carriage of a machine for quick prototyping with thread of filler material , characterized in that it comprises, in combination: - means for the controlled and localized heating of the thread of filler material , - means for blowing compressed air onto a zone of the extruder to be cooled, placed immediately upstream of the melting zone, with a predetermined flow rate determinable on the basis of experimental tests, - a channel, or conduit, for supplying the thread of filler material , conveniently configured to improve the flowability of the thread of filler material therein; wherein said extruder includes a nozzle , the body of which is provided with a melting zone in which the melting of the thread of filler material takes place, and with an outlet end for conveying the material on a printing plane; said nozzle being integral with a heating block ; wherein said nozzle is made of a material having high wear resistance, corrosion resistance and good workability; and wherein, at least at the melting zone of said nozzle , the conduit inside which the thread of filler material slides, is processed internally with a surface finishing having a roughness from 0.2 to 2.5 μm or less, which ensures a good flowability of the material, reducing or preventing surface adhesion and risks of vulcanization of the material; wherein the localized flow of cooling air allows the extruder to work at high temperatures, higher that 400°C, ensuring the extrusion of the material, preventing blocking of the supply channel; wherein the pressure of the compressed air is from 2 to 10 bar, with a flow rate from 5 at 40 l/min. - means for the controlled and localized heating of the thread of filler material , - means for blowing compressed air onto a zone of the extruder to be cooled, placed immediately upstream of the melting zone, with a predetermined flow rate determinable on the basis of experimental tests, - a channel, or conduit, for supplying the thread of filler material , conveniently configured to improve the flowability of the thread of filler material therein; wherein said extruder includes a nozzle , the body of which is provided with a melting zone in which the melting of the thread of filler material takes place, and with an outlet end for conveying the material on a printing plane; said nozzle being integral with a heating block ; wherein said nozzle is made of a material having high wear resistance, corrosion resistance and good workability; and wherein, at least at the melting zone of said nozzle , the conduit inside which the thread of filler material slides, is processed internally with a surface finishing having a roughness from 0.2 to 2.5 μm or less, which ensures a good flowability of the material, reducing or preventing surface adhesion and risks of vulcanization of the material; wherein the localized flow of cooling air allows the extruder to work at high temperatures, higher that 400°C, ensuring the extrusion of the material, preventing blocking of the supply channel; wherein the pressure of the compressed air is from 2 to 10 bar, with a flow rate from 5 at 40 l/min.
A method for manufacturing a sintered component comprising: a step of making a green compact having a relative density of at least 88% by compression-molding a base powder containing a metal powder into a metallic die; a step of machining a groove part having a groove width of 1.0 mm or less and a depth of 2 mm or greater in the green compact by processing groove with a cutting tool ; and a step of sintering the green compact in which the groove part is formed; wherein the sintered component is a rotor for a vane pump and the groove part is for inserting a vane therein; and wherein the composition of the sintered component consists of not less than 88 mass% Fe and at least one alloying element from Cu, Ni, Sn, Cr, Mo, and C, wherein the content of Cu, Ni, Sn, Cr, and Mo is 0.5 mass% or greater and 6.0 mass% or less by mass in total, wherein the content of C is 0.2% to 2.0% by mass, together with any unavoidable impurities. a step of making a green compact having a relative density of at least 88% by compression-molding a base powder containing a metal powder into a metallic die; a step of machining a groove part having a groove width of 1.0 mm or less and a depth of 2 mm or greater in the green compact by processing groove with a cutting tool ; and a step of sintering the green compact in which the groove part is formed;
A device for temporally configurable automatic milking of a group of animals providing liquid from udders, in particular cows, of a herd comprising several groups of such animals, provided with - a plurality of milking robots arranged on a ground for automatic milking of animals, - wherein each milking robot comprises an entry and an exit and milking equipment being automatically attachable to the udder of an animal, - a closed waiting area for the animals of a herd to be milked located before one of the entries of the milking robots , - wherein the waiting area comprises an entrance for bringing a group of animals to be milked from a common area to the waiting area , and - an animal guiding unit for automatically guiding the animals in the waiting area to the entries of respective milking robots getting available, - wherein the milking robots are arranged next to each other along a curved line, in particular an at least partial circle line, - wherein the entries of the milking robots are directed towards the waiting area which is at least partially surrounded by the milking robots , and - wherein the animal guiding unit comprises a fixed guiding element protruding into the waiting area and particularly protruding from the entrance of the waiting area into the waiting area , and a circularly movable guiding element penetrating the guiding element . - a plurality of milking robots arranged on a ground for automatic milking of animals, - wherein each milking robot comprises an entry and an exit and milking equipment being automatically attachable to the udder of an animal, - a closed waiting area for the animals of a herd to be milked located before one of the entries of the milking robots , - wherein the waiting area comprises an entrance for bringing a group of animals to be milked from a common area to the waiting area , and - an animal guiding unit for automatically guiding the animals in the waiting area to the entries of respective milking robots getting available, - wherein the milking robots are arranged next to each other along a curved line, in particular an at least partial circle line, - wherein the entries of the milking robots are directed towards the waiting area which is at least partially surrounded by the milking robots , and - wherein the animal guiding unit comprises a fixed guiding element protruding into the waiting area and particularly protruding from the entrance of the waiting area into the waiting area , and a circularly movable guiding element penetrating the guiding element .
A control device of an internal combustion engine, the control device comprising: a parameter acquisition unit configured to acquire a plurality of input parameters; a calculation unit configured to calculate at least one output parameter based on the input parameters acquired by the parameter acquisition unit using a neural network model; and a controller configured to control the internal combustion engine based on the at least one output parameter calculated by the calculation unit , wherein: the neural network model includes a plurality of neural network units and an output layer that outputs the at least one output parameter based on outputs of the neural network units; each of the neural network units includes one input layer and at least one intermediate layer; and the neural network model is configured to input different combinations of input parameters selected from the input parameters acquired by the parameter acquisition unit to each of the input layers of the neural network units such that a total number of input parameters of the different combinations of input parameters to be input to the neural network units is larger than the number of the input parameters acquired by the parameter acquisition unit . a parameter acquisition unit configured to acquire a plurality of input parameters; a calculation unit configured to calculate at least one output parameter based on the input parameters acquired by the parameter acquisition unit using a neural network model; and a controller configured to control the internal combustion engine based on the at least one output parameter calculated by the calculation unit , wherein: the neural network model includes a plurality of neural network units and an output layer that outputs the at least one output parameter based on outputs of the neural network units; each of the neural network units includes one input layer and at least one intermediate layer; and the neural network model is configured to input different combinations of input parameters selected from the input parameters acquired by the parameter acquisition unit to each of the input layers of the neural network units such that a total number of input parameters of the different combinations of input parameters to be input to the neural network units is larger than the number of the input parameters acquired by the parameter acquisition unit . the neural network model includes a plurality of neural network units and an output layer that outputs the at least one output parameter based on outputs of the neural network units; each of the neural network units includes one input layer and at least one intermediate layer; and the neural network model is configured to input different combinations of input parameters selected from the input parameters acquired by the parameter acquisition unit to each of the input layers of the neural network units such that a total number of input parameters of the different combinations of input parameters to be input to the neural network units is larger than the number of the input parameters acquired by the parameter acquisition unit .
A multi-standard integrated antenna array, comprising: a reflection plate , three or more high-frequency arrays and one or more low-frequency arrays , wherein the high-frequency arrays and the low-frequency arrays are mounted on the reflection plate , each low-frequency array comprises one or more cross-shaped low-frequency radiation units , each high-frequency array comprises several high-frequency radiation units , each cross-shaped low-frequency radiation unit is embedded in horizontal and vertical central axes of the high-frequency radiation units and a projection of each cross-shaped low-frequency radiation unit on the reflection plate is located outside a projection of each high-frequency radiation unit on the reflection plate , characterized in that further low-frequency radiation unit is mounted at a head end and a tail end of each of the low-frequency arrays respectively, wherein a shape of the low-frequency radiation unit is a 2 by 2 square grid. wherein the high-frequency arrays and the low-frequency arrays are mounted on the reflection plate , each low-frequency array comprises one or more cross-shaped low-frequency radiation units , each high-frequency array comprises several high-frequency radiation units , each cross-shaped low-frequency radiation unit is embedded in horizontal and vertical central axes of the high-frequency radiation units and a projection of each cross-shaped low-frequency radiation unit on the reflection plate is located outside a projection of each high-frequency radiation unit on the reflection plate , characterized in that further low-frequency radiation unit is mounted at a head end and a tail end of each of the low-frequency arrays respectively, wherein a shape of the low-frequency radiation unit is a 2 by 2 square grid.
A bushing assembly comprising: an inner sleeve ; an outer sleeve ; an elastomer disposed between the inner sleeve and the outer sleeve; and a bar pin including a first end , a second end , and a central portion between the first end and the second end, the central portion extending along a longitudinal axis and having a cruciform cross-section perpendicular to the longitudinal axis, the bar pin further including a first intermediate portion between the central portion and the first end, the first intermediate portion having an uninterrupted circular cross-section perpendicular to the longitudinal axis, wherein the inner sleeve circumscribes the central portion of the bar pin. an inner sleeve ; an outer sleeve ; an elastomer disposed between the inner sleeve and the outer sleeve; and a bar pin including a first end , a second end , and a central portion between the first end and the second end, the central portion extending along a longitudinal axis and having a cruciform cross-section perpendicular to the longitudinal axis, the bar pin further including a first intermediate portion between the central portion and the first end, the first intermediate portion having an uninterrupted circular cross-section perpendicular to the longitudinal axis, wherein the inner sleeve circumscribes the central portion of the bar pin.
A method of manufacturing a front or center foot reinforcement of a motor vehicle, intended to extend vertically on the motor vehicle, comprising the following steps: (a) provide a stamped sheet having a U-shaped cross-section with a core and two soles; (b) provide openings for fixing the door hinge of the vehicle to a lower area and an upper area of the stamped sheet metal ; (c) assembling, facing the fixing orifices in each of the lower and upper zones of the pressed sheet , on an inner face of the core of said sheet , a fixing plate of the corresponding hinge; characterized by step (b) further comprises forming a keying orifice on at least one of the lower and upper zones of the stamped sheet ; and first and second embodiments of the reinforcement are carried out according to steps (a) to (c) where steps (a) and (b) are identical for said embodiments and, in step (c), the or each of the fixing plates facing the at least one keying orifice, respectively, allows said orifice to pass in the first embodiment of the reinforcement and closes said orifice in the second embodiment of said reinforcement . (a) provide a stamped sheet having a U-shaped cross-section with a core and two soles; (b) provide openings for fixing the door hinge of the vehicle to a lower area and an upper area of the stamped sheet metal ; (c) assembling, facing the fixing orifices in each of the lower and upper zones of the pressed sheet , on an inner face of the core of said sheet , a fixing plate of the corresponding hinge;
A method to control a biogas collection plant comprising a collection manifold and a plurality of collection units , each of which is connected to a respective capturing well and comprises a respective feeding pipe connected to the collection manifold and a respective regulation valve to adjust the biogas flow rate in the feeding pipe itself; the method being characterised in that it comprises: - carrying out a first periodic cycle of measurements of parameters (Pa, P, Q, CH4, 02) of the biogas in the collection units by means of a group of sensors (39-41) shared by all collection units , the first periodic cycle of measurements being divided into a plurality of time intervals (ΔTi), the parameters (Pa, P, Q, CH4, 02) of a respective collection unit being measured in each one of them; - carrying out a second periodic cycle of measurements of a sub-set of the parameters (Q, P) of the biogas of the collection units by means of a sub-set of the group of sensors , the second cycle of measurements being simultaneous with and having a smaller periodicity than the first cycle of measurements; - in each time interval (ΔTi), adjusting the opening of the regulation valve of the relative collection unit as a function of the processing of the measured values of the parameters (Pa, P, Q, CH4, 02) obtained in the time interval (ΔTi); and - detecting possible faults in the collection units as a function of the processing of the relative measured values of the sub-set of parameters (Q, P) obtained in the second cycle of measurements. - carrying out a first periodic cycle of measurements of parameters (Pa, P, Q, CH4, 02) of the biogas in the collection units by means of a group of sensors (39-41) shared by all collection units , the first periodic cycle of measurements being divided into a plurality of time intervals (ΔTi), the parameters (Pa, P, Q, CH4, 02) of a respective collection unit being measured in each one of them; - carrying out a second periodic cycle of measurements of a sub-set of the parameters (Q, P) of the biogas of the collection units by means of a sub-set of the group of sensors , the second cycle of measurements being simultaneous with and having a smaller periodicity than the first cycle of measurements; - in each time interval (ΔTi), adjusting the opening of the regulation valve of the relative collection unit as a function of the processing of the measured values of the parameters (Pa, P, Q, CH4, 02) obtained in the time interval (ΔTi); and - detecting possible faults in the collection units as a function of the processing of the relative measured values of the sub-set of parameters (Q, P) obtained in the second cycle of measurements.
A method of manufacturing a film or membrane comprising: dissolving at least one polymer comprising one or more poly(aryl ketones) selected from polyetherketoneketones (PEKK), polyetheretherketones (PEEK), polyetherketones (PEK), polyetherketoneetherketoneketones (PEKEKK), or mixtures thereof in a mixture of dichloromethane and dichloroacetic acid to form a dope; depositing the dope on a substrate to form a coated substrate; and drying the coated substrate to form the film or membrane. dissolving at least one polymer comprising one or more poly(aryl ketones) selected from polyetherketoneketones (PEKK), polyetheretherketones (PEEK), polyetherketones (PEK), polyetherketoneetherketoneketones (PEKEKK), or mixtures thereof in a mixture of dichloromethane and dichloroacetic acid to form a dope; depositing the dope on a substrate to form a coated substrate; and drying the coated substrate to form the film or membrane.
A charging apparatus configured to charge a battery when a charging connector is connected to a charging inlet of a vehicle, wherein the battery is mounted in the vehicle and wherein the charging apparatus is configured to be connected to the vehicle via the charging connector, the charging apparatus comprising: an electronic control unit configured to cooperate with a charging control section mounted in the vehicle so as to control a charging process of charging the battery characterised in that the electronic control unit is configured to determine whether a cooling mechanism for the charging inlet is provided in the vehicle, wherein in a case where the cooling mechanism for the charging inlet is provided, the electronic control unit sets a charge current for the battery to a value larger than a value to which the charge current for the battery is set in a case where the cooling mechanism for the charging inlet is not provided.
An arc management system with a passive arc attenuator, comprising: a) electrical equipment having exposed electrical conductors ; b) a cabinet separating the electrical equipment from an outside environment; c) arc channels within the cabinet and respectively surrounding each of the electrical conductors upstream of the line side connections of a main circuit breaker of the cabinet , d) the arc channels of a shape and volume sufficient for the attenuation of an arc therein. a) electrical equipment having exposed electrical conductors ; b) a cabinet separating the electrical equipment from an outside environment; c) arc channels within the cabinet and respectively surrounding each of the electrical conductors upstream of the line side connections of a main circuit breaker of the cabinet , d) the arc channels of a shape and volume sufficient for the attenuation of an arc therein.