mhurhangee/ep-ind-claims huggingface dataset:
A tire mold segment (110, 210, 410...) for a tire mold comprising a negative tread pattern on a surface of the tire mold segment; at least an air compression cavity (140, 240, 440...) disposed inside the mold segment and spaced apart from the surface; multiple surface connection slots (120, 220, 420,...) connecting the cavity with the surface, wherein the connection slots (120, 220, 420,...) being dimensioned between 10 and 300 μm and such that with the tire mold interior completely filled with rubber material for vulcanization all the air of the air layer in the tire mold between the rubber material and the surface of the tire mold segments (110, 210, 410,...) is able to pass through into the cavity (140, 240, 440,...), but rubber material is prevented from passing through; wherein the air compression cavity (140, 240, 440,...) is isolated from outside ambient during a tire making process, wherein multiple tire mold segments (110, 210, 410,...) are configured to be adjacently closed to form a circumferential mold for vulcanizing vehicle tires. a negative tread pattern on a surface of the tire mold segment; at least an air compression cavity (140, 240, 440...) disposed inside the mold segment and spaced apart from the surface; multiple surface connection slots (120, 220, 420,...) connecting the cavity with the surface, wherein the connection slots (120, 220, 420,...) being dimensioned between 10 and 300 μm and such that with the tire mold interior completely filled with rubber material for vulcanization all the air of the air layer in the tire mold between the rubber material and the surface of the tire mold segments (110, 210, 410,...) is able to pass through into the cavity (140, 240, 440,...), but rubber material is prevented from passing through; wherein the air compression cavity (140, 240, 440,...) is isolated from outside ambient during a tire making process, wherein multiple tire mold segments (110, 210, 410,...) are configured to be adjacently closed to form a circumferential mold for vulcanizing vehicle tires.
An antenna comprising a plurality of tiles (61, 62, 63, 64) forming an antenna plane, each of said tiles comprising a plurality of radiating elements, each radiating element comprising a metallic upper patch disposed above a metallic lower patch, the two patches being separated by a layer insulating them electrically, the lower patch being fed with electric current, the antenna being characterized in that each radiating element comprises a conducting frame disposed parallel to the antenna plane and framing the two patches (11, 12) of said element, the two said patches being coupled electromagnetically through the aperture of said frame whose body comprises a rear face of small cross section S1 disposed on the side of the lower patch and a front face of larger cross section S2, S2 being greater than S1, said front face being disposed on the side of the upper patch, so as to widen the angular scan field of a beam in a plane orthogonal to the antenna plane.
A vacuum insulation container in which an inner container and an outer container form a container body and an internal space provided between the inner container and the outer container is vacuumized, wherein the inner container is composed of a bottom plate and a separate side wall that is separate from the bottom plate, characterized in that a welded portion (W1; W4) between the bottom plate of the inner container and the separate side wall, required to make the internal space airtight is provided at a part exposed to a side opposite to the internal space of the container body, and a bent portion is formed at a lower end portion of the separate side wall so as to be bent inwardly. the inner container is composed of a bottom plate and a separate side wall that is separate from the bottom plate, characterized in that a welded portion (W1; W4) between the bottom plate of the inner container and the separate side wall, required to make the internal space airtight is provided at a part exposed to a side opposite to the internal space of the container body, and a bent portion is formed at a lower end portion of the separate side wall so as to be bent inwardly.
A method at an access node for a wireless telecommunications system, the method comprising: receiving, from an user agent, UA, within a bitmap, power headroom-related information for a number of aggregated carriers that is less than or equal to a total number of aggregated carriers, wherein each bit in the bitmap corresponds to one of the aggregated carriers, one value in the bitmap indicating that the power headroom-related information for a corresponding carrier is being transmitted, and another value in the bitmap indicating that the power headroom-related information for a corresponding carrier is not being transmitted, wherein the bitmap has a length equal to a number of reporting carriers among the number of aggregated carriers, and wherein the power headroom-related information comprises one of power headroom and path loss information, for at least one of the aggregated carriers; specifying a set of carriers from the total number of aggregated carriers for which the power headroom-related information is to be reported; and informing the UA of the set of carriers for which the power headroom-related information is to be reported. receiving, from an user agent, UA, within a bitmap, power headroom-related information for a number of aggregated carriers that is less than or equal to a total number of aggregated carriers, wherein each bit in the bitmap corresponds to one of the aggregated carriers, one value in the bitmap indicating that the power headroom-related information for a corresponding carrier is being transmitted, and another value in the bitmap indicating that the power headroom-related information for a corresponding carrier is not being transmitted, wherein the bitmap has a length equal to a number of reporting carriers among the number of aggregated carriers, and wherein the power headroom-related information comprises one of power headroom and path loss information, for at least one of the aggregated carriers; specifying a set of carriers from the total number of aggregated carriers for which the power headroom-related information is to be reported; and informing the UA of the set of carriers for which the power headroom-related information is to be reported.
Method for operating a liquid ring vacuum pump having the following steps: a. recording of measured vibration values of the pump and comparing of the measured vibration values with a predefined cavitation threshold value; b. recording of a measured value which represents the liquid content in the gas to be delivered, and comparing of the measured value with a predefined limiting value; c. adapting of the rotational speed of the liquid ring vacuum pump, i. the rotational speed being reduced if the predefined cavitation threshold value has been exceeded and the liquid content lies below the predefined limiting value; ii. the rotational speed being increased if the predefined cavitation threshold value has been exceeded and the liquid content lies above the predefined limiting value. a. recording of measured vibration values of the pump and comparing of the measured vibration values with a predefined cavitation threshold value; b. recording of a measured value which represents the liquid content in the gas to be delivered, and comparing of the measured value with a predefined limiting value; c. adapting of the rotational speed of the liquid ring vacuum pump, i. the rotational speed being reduced if the predefined cavitation threshold value has been exceeded and the liquid content lies below the predefined limiting value; ii. the rotational speed being increased if the predefined cavitation threshold value has been exceeded and the liquid content lies above the predefined limiting value. i. the rotational speed being reduced if the predefined cavitation threshold value has been exceeded and the liquid content lies below the predefined limiting value; ii. the rotational speed being increased if the predefined cavitation threshold value has been exceeded and the liquid content lies above the predefined limiting value.
Crystalline 6-(6-aminopyrazin-2-yl)-N-(4-(4-(oxetan-3-yl)piperazin-1-yl)phenyl)imidazo[1,2-a]pyrazin-8-amine monomesylate form I, characterized by an X-ray powder diffractogram comprising peaks at about 19.7, about 17.3, about 17.9, about 21.6, and about 25.8 °2θ.
A genome editing system for site-directed modification of a target sequence in the genome of a cell, comprising at least one of the following i) to v): i) a Cpfl protein, and a guide RNA; ii) an expression construct comprising a nucleotide sequence encoding a Cpfl protein, and a guide RNA; iii) a Cpfl protein, and an expression construct comprising a nucleotide sequence encoding a guide RNA; iv) an expression construct comprising a nucleotide sequence encoding a Cpfl protein, and an expression construct comprising a nucleotide sequence encoding a guide RNA; v) an expression construct comprising a nucleotide sequence encoding a Cpfl protein and a nucleotide sequence encoding a guide RNA; wherein the Cpfl protein comprises an amino acid sequence of SEQ ID NO: 4, 9 or 10, the guide RNA capable of targeting the Cpfl protein to a target sequence in the genome of the cell. i) a Cpfl protein, and a guide RNA; ii) an expression construct comprising a nucleotide sequence encoding a Cpfl protein, and a guide RNA; iii) a Cpfl protein, and an expression construct comprising a nucleotide sequence encoding a guide RNA; iv) an expression construct comprising a nucleotide sequence encoding a Cpfl protein, and an expression construct comprising a nucleotide sequence encoding a guide RNA; v) an expression construct comprising a nucleotide sequence encoding a Cpfl protein and a nucleotide sequence encoding a guide RNA;
A method for selecting at least one first group of drops from among a plurality of drops present in a continuous phase, the two fluids respectively forming the continuous phase and the drops are immiscible, the method comprising the following steps: - bringing drops to be separated into contact with an interface suitable for allowing an osmotic equilibrium between the content of each drop to be separated; - the interface being formed by at least one other drop to be separated, advantageously by multiple drops to be separated placed in contact with each drop to be separated; - osmotic flow between the drops of a first group of drops and the interface in order to modify the volume of each drop of the first group of drops; the osmotic flow step causing a significant variation in the density of each drop of the first group of drops; - separating the drops (20A, 20B) according to the density thereof or according to a combination of the density and the volume to isolate the drops of the first group of drops from the drops of a second group of drops. - bringing drops to be separated into contact with an interface suitable for allowing an osmotic equilibrium between the content of each drop to be separated; - the interface being formed by at least one other drop to be separated, advantageously by multiple drops to be separated placed in contact with each drop to be separated; - osmotic flow between the drops of a first group of drops and the interface in order to modify the volume of each drop of the first group of drops; the osmotic flow step causing a significant variation in the density of each drop of the first group of drops; - separating the drops (20A, 20B) according to the density thereof or according to a combination of the density and the volume to isolate the drops of the first group of drops from the drops of a second group of drops.
A method of controlling a process including a plurality of manipulated variables and a plurality of control variables controlled by the manipulated variables, control amounts of the control variables being determined by mutual interference of operation amounts of the manipulated variables, the method comprising: a free response calculating step of calculating free responses that are responses of the control variables during a predetermined period from a current time in a case where the operation amounts of manipulated variables are constant for the predetermined period; a first response calculating step of calculating first responses that are responses of the control variables during the predetermined period, in a case where an operation amount of a first manipulated variable among the manipulated variables is changed in step during the predetermined period and the operation amounts of the other manipulated variables among the manipulated variables are constant for the predetermined period; a second response calculating step of calculating second responses that are responses of the control variables during the predetermined period, in a case where an operation amount of a second manipulated variable other than the first manipulated variable among the manipulated variables is changed in step simultaneously with the operation amount of the first manipulated variable during the predetermined period; and an operation amount determining step of determining the operation amounts of the manipulated variables such that the control amounts of the control variables become predetermined target values based on the free responses, the first responses, and the second responses. a free response calculating step of calculating free responses that are responses of the control variables during a predetermined period from a current time in a case where the operation amounts of manipulated variables are constant for the predetermined period; a first response calculating step of calculating first responses that are responses of the control variables during the predetermined period, in a case where an operation amount of a first manipulated variable among the manipulated variables is changed in step during the predetermined period and the operation amounts of the other manipulated variables among the manipulated variables are constant for the predetermined period; a second response calculating step of calculating second responses that are responses of the control variables during the predetermined period, in a case where an operation amount of a second manipulated variable other than the first manipulated variable among the manipulated variables is changed in step simultaneously with the operation amount of the first manipulated variable during the predetermined period; and an operation amount determining step of determining the operation amounts of the manipulated variables such that the control amounts of the control variables become predetermined target values based on the free responses, the first responses, and the second responses.
An in vitro method for identifying the presence or absence of a target nucleic acid from a pathogenic microorganism in a biological sample obtained from a human, said method comprising: (a) contacting the sample with a reaction mixture containing a DNA polymerase and a buffer to form a sample mixture under conditions suitable for amplification of the target nucleic acid from the sample without extracting the target nucleic acid from the sample; (b) thermocycling the sample mixture from step (a) such that the target nucleic acid, if present, is amplified; and (c) detecting the amplified target nucleic acid, if present, produced from step (b), wherein the nucleic acid in the sample is not extracted from the sample prior to amplification; wherein the biological sample is selected from the group consisting of whole blood, plasma, serum cerebrospinal fluid; wherein the biological sample is not diluted prior to contacting the biological sample with the reaction mixture; wherein 20-30% of the total volume of the sample mixture following step (a) is the biological sample; and wherein the reaction mixture contains a cationic surfactant. (a) contacting the sample with a reaction mixture containing a DNA polymerase and a buffer to form a sample mixture under conditions suitable for amplification of the target nucleic acid from the sample without extracting the target nucleic acid from the sample; (b) thermocycling the sample mixture from step (a) such that the target nucleic acid, if present, is amplified; and (c) detecting the amplified target nucleic acid, if present, produced from step (b),
A method for controlling a screen of a mobile terminal, comprising: detecting a moving direction of the mobile terminal; detecting an orientation of the mobile terminal screen; and receiving posture recognition information sent by a smart wearable device, the posture recognition information including a palmward orientation of a user using the smart wearable device; wherein the method comprises: sending a screen recognition instruction to a smart glasses when all of the moving direction, the orientation of the screen and a palm orientation in the posture recognition information are in a first direction, and powering on the mobile terminal screen when screen recognition success information sent by the smart glasses is received by the mobile terminal; and powering off the mobile terminal screen when all of the moving direction, the orientation of the screen and the palm orientation in the posture recognition information are in a second direction, wherein the first direction is an upward direction and the second direction is a downward direction. detecting a moving direction of the mobile terminal; detecting an orientation of the mobile terminal screen; and receiving posture recognition information sent by a smart wearable device, the posture recognition information including a palmward orientation of a user using the smart wearable device; wherein the method comprises: sending a screen recognition instruction to a smart glasses when all of the moving direction, the orientation of the screen and a palm orientation in the posture recognition information are in a first direction, and powering on the mobile terminal screen when screen recognition success information sent by the smart glasses is received by the mobile terminal; and powering off the mobile terminal screen when all of the moving direction, the orientation of the screen and the palm orientation in the posture recognition information are in a second direction, wherein the first direction is an upward direction and the second direction is a downward direction. sending a screen recognition instruction to a smart glasses when all of the moving direction, the orientation of the screen and a palm orientation in the posture recognition information are in a first direction, and powering on the mobile terminal screen when screen recognition success information sent by the smart glasses is received by the mobile terminal; and powering off the mobile terminal screen when all of the moving direction, the orientation of the screen and the palm orientation in the posture recognition information are in a second direction, wherein the first direction is an upward direction and the second direction is a downward direction.
A dishwasher comprising - a washing tub which has a rectangular parallelepiped shape, - a cutlery tray for horizontal reception of the cutlery, wherein the cutlery tray is disposed within the washing tub and - a rotating spray arm for spraying wash fluid onto the cutlery tray, wherein - the rotating spray arm has plurality of nozzles configured to extensively spray wash fluid onto an entire circular area within the washing tub at the level of the cutlery tray, characterized in that - the cutlery tray has a regular octagonal shape and - the size and shape of the cutlery tray is configured such that the outermost edge of the cutlery tray is completely covered by said circular area. - a washing tub which has a rectangular parallelepiped shape, - a cutlery tray for horizontal reception of the cutlery, wherein the cutlery tray is disposed within the washing tub and - a rotating spray arm for spraying wash fluid onto the cutlery tray, wherein - the rotating spray arm has plurality of nozzles configured to extensively spray wash fluid onto an entire circular area within the washing tub at the level of the cutlery tray, characterized in that - the cutlery tray has a regular octagonal shape and - the size and shape of the cutlery tray is configured such that the outermost edge of the cutlery tray is completely covered by said circular area.
An additive manufacturing system for producing a component, the additive manufacturing system comprising: a substrate; a nozzle mounted relative to the substrate for depositing a material onto the substrate; a curing system for curing the material on the substrate, wherein the cured material builds up on the substrate to form the component using successive layers atop each other; and, a moveable molding assembly arranged on an exterior surface of the successive layers, the moveable molding assembly configured to move with the nozzle so as to mold the material before the material has cured, wherein the moveable molding assembly comprises a first mold and a second mold, the first and second molds (82, 84) arranged on opposing sides of the component so as to laterally limit the melted material. a substrate; a nozzle mounted relative to the substrate for depositing a material onto the substrate; a curing system for curing the material on the substrate, wherein the cured material builds up on the substrate to form the component using successive layers atop each other; and, a moveable molding assembly arranged on an exterior surface of the successive layers, the moveable molding assembly configured to move with the nozzle so as to mold the material before the material has cured, wherein the moveable molding assembly comprises a first mold and a second mold, the first and second molds (82, 84) arranged on opposing sides of the component so as to laterally limit the melted material.
A method for enabling reading of an optical device being configured to provide a synthetic image, comprising the step of: arranging said optical device, having an array of focusing elements provided at a first side of a polymer foil and an array of icons provided in said polymer foil, said icons constituting an interface between portions having differing optical properties, said array of icons being provided at a distance from said first side of said polymer foil that is close to a focal length (f) of said focussing elements, to obtain a first predetermined shape, characterised by the further steps of: controlling an image plane selector to select an image plane at a first position relative a surface of said optical device, thereby providing an observable two-dimensional section of said synthetic image taken at said selected image plane; said image plane selector is a diffusing screen; and wherein said step of controlling comprises a step of moving said diffusing screen to said image plane at said first position above said surface of said optical device. controlling an image plane selector to select an image plane at a first position relative a surface of said optical device, thereby providing an observable two-dimensional section of said synthetic image taken at said selected image plane; said image plane selector is a diffusing screen; and wherein said step of controlling comprises a step of moving said diffusing screen to said image plane at said first position above said surface of said optical device.