mhurhangee/patent-ind-claim-en huggingface dataset:
A plant for producing a structured cross-channel packing element for a column for mass transfer and/or heat exchange between a heavy and a light fluid phase, wherein the structured cross-channel packing element comprises at least two adjacent layers made of expanded metal sheets each comprising openings , which are surrounded and separated from each other by separating elements , and comprising periodic deformations , wherein at least two of the at least two layers are arranged in the longitudinal direction (V) of the packing element parallel and in touching contact with each other so that an open space extending from one end to the opposite end of the at least two layers is provided between them so that at least one of the heavy and the light fluid phase may flow through it, wherein the plant comprises: a) a stretching machine for cutting and stretching a metal sheet to an expanded metal sheet, b) optionally, a calibration machine for rolling the expanded metal sheet produced in the stretching machine to a desired thickness, c) a sheet storage unit , d) a forming machine for forming the expanded metal sheet produced in the stretching machine and optionally rolled in the optional calibration machine to an expanded metal sheet comprising periodic deformations and e) a stacking machine for stacking expanded metal sheets () comprising periodic deformations to a structured cross-channel packing element , wherein the sheet storage unit is embodied so that it directly receives the expanded metal sheet produced in the stretching machine and optionally rolled in the optional calibration machine and releases the expanded metal sheet directly to the forming machine . a) a stretching machine for cutting and stretching a metal sheet to an expanded metal sheet, b) optionally, a calibration machine for rolling the expanded metal sheet produced in the stretching machine to a desired thickness, c) a sheet storage unit , d) a forming machine for forming the expanded metal sheet produced in the stretching machine and optionally rolled in the optional calibration machine to an expanded metal sheet comprising periodic deformations and e) a stacking machine for stacking expanded metal sheets () comprising periodic deformations to a structured cross-channel packing element ,
An apparatus for manufacturing a display apparatus, the apparatus comprising: a chamber ; a plurality of source units outside the chamber, wherein the plurality of source units are configured to accommodate a deposition material and to transform the deposition material into gas; a nozzle in the chamber and connected to the plurality of source units, wherein the nozzle is configured to inject, into the chamber, the deposition material supplied from at least one of the plurality of source units; and a regulator between each of the plurality of source units and the nozzle, wherein the regulator is configured to control the deposition material supplied from each of the plurality of source units to the nozzle and to selectively connect the plurality of source units with the nozzle; and, a sensor in each of the plurality of source units, the sensor being configured to measure an inner temperature of each of the plurality of source units, wherein the regulator is configured to disconnect, from the nozzle, a source unit from among the plurality of source units, of which the inner temperature is greater than a pre-set temperature, and to connect, to the nozzle, a source unit from among the plurality of source units, of which the inner temperature is equal to or less than the pre-set temperature. a chamber ; a plurality of source units outside the chamber, wherein the plurality of source units are configured to accommodate a deposition material and to transform the deposition material into gas; a nozzle in the chamber and connected to the plurality of source units, wherein the nozzle is configured to inject, into the chamber, the deposition material supplied from at least one of the plurality of source units; and a regulator between each of the plurality of source units and the nozzle, wherein the regulator is configured to control the deposition material supplied from each of the plurality of source units to the nozzle and to selectively connect the plurality of source units with the nozzle; and, a sensor in each of the plurality of source units, the sensor being configured to measure an inner temperature of each of the plurality of source units, wherein the regulator is configured to disconnect, from the nozzle, a source unit from among the plurality of source units, of which the inner temperature is greater than a pre-set temperature, and to connect, to the nozzle, a source unit from among the plurality of source units, of which the inner temperature is equal to or less than the pre-set temperature.
A pharmaceutical composition comprising: (a) a chimeric antigen receptor (CAR), a nucleic acid comprising a nucleotide sequence encoding the CAR, a recombinant expression vector comprising the nucleic acid, a host cell comprising the recombinant expression vector, or a population of cells comprising at least one of the host cell, wherein the CAR comprises an antigen binding domain against Epidermal Growth Factor Receptor Variant III, an extracellular hinge domain, a transmembrane domain, and an intracellular T cell signaling domain, wherein the antigen binding domain comprises a light chain variable region comprising SEQ ID NO: 1 and a heavy chain variable region comprising SEQ ID NO: 2; and (b) a pharmaceutically acceptable carrier, wherein the pharmaceutical composition is (i) an injectable formulation or (ii) a parenteral formulation. (a) a chimeric antigen receptor (CAR), a nucleic acid comprising a nucleotide sequence encoding the CAR, a recombinant expression vector comprising the nucleic acid, a host cell comprising the recombinant expression vector, or a population of cells comprising at least one of the host cell, wherein the CAR comprises an antigen binding domain against Epidermal Growth Factor Receptor Variant III, an extracellular hinge domain, a transmembrane domain, and an intracellular T cell signaling domain, wherein the antigen binding domain comprises a light chain variable region comprising SEQ ID NO: 1 and a heavy chain variable region comprising SEQ ID NO: 2; and (b) a pharmaceutically acceptable carrier,
A method of producing a support cushion , comprising the steps of: providing a base layer having a lower surface and an upper surface ; applying a plurality of surface coatings to the upper surface of the base layer , the plurality of surface coatings configured to allow an amount of air to flow through the base layer and the plurality of surface coatings and further configured to provide a cooling effect, applying a liquid precursor to the upper surface of the base layer ; and curing the liquid precursor to form one of the plurality of surface coatings on the upper surface of the base layer , characterized in that the liquid precursor that forms at least one of the surface coatings includes two or more components that, when combined, react to polymerize and cure the liquid precursor to form the final surface coating . providing a base layer having a lower surface and an upper surface ; applying a plurality of surface coatings to the upper surface of the base layer , the plurality of surface coatings configured to allow an amount of air to flow through the base layer and the plurality of surface coatings and further configured to provide a cooling effect, applying a liquid precursor to the upper surface of the base layer ; and curing the liquid precursor to form one of the plurality of surface coatings on the upper surface of the base layer , characterized in that the liquid precursor that forms at least one of the surface coatings includes two or more components that, when combined, react to polymerize and cure the liquid precursor to form the final surface coating .
An exchangeable nozzle for a nozzle changer system for billet casting, said exchangeable nozzle comprising the following: 1.1 A tubular member ; 1.1.1 said tubular member extending along a longitudinal axis (L) from a first end of said tubular member to a second end of said tubular member ; said tubular member further comprising: 1.1.2 an inner passageway , extending through said tubular member along said longitudinal axis (L) from said first end of said tubular member to said second end of said tubular member ; 1.1.3 an inlet , opening into said inner passageway at said first end of said tubular member ; and 1.1.4 an outlet , opening into said inner passageway at said second end of said tubular member ; 1.2 said tubular member consisting of partially stabilized sintered zirconia; 1.2.1 said partially stabilized sintered zirconia being partially stabilized by MgO; and 1.2.2 said partially stabilized sintered zirconia having a degree of stabilization not above 26 % by mass; 1.3 said tubular member comprising free carbon; 1.3.1 wherein the free carbon is present over the volume of the tubular member . 1.1 A tubular member ; 1.1.1 said tubular member extending along a longitudinal axis (L) from a first end of said tubular member to a second end of said tubular member ; said tubular member further comprising: 1.1.2 an inner passageway , extending through said tubular member along said longitudinal axis (L) from said first end of said tubular member to said second end of said tubular member ; 1.1.3 an inlet , opening into said inner passageway at said first end of said tubular member ; and 1.1.4 an outlet , opening into said inner passageway at said second end of said tubular member ; 1.1.1 said tubular member extending along a longitudinal axis (L) from a first end of said tubular member to a second end of said tubular member ; said tubular member further comprising: 1.1.2 an inner passageway , extending through said tubular member along said longitudinal axis (L) from said first end of said tubular member to said second end of said tubular member ; 1.1.3 an inlet , opening into said inner passageway at said first end of said tubular member ; and 1.1.4 an outlet , opening into said inner passageway at said second end of said tubular member ; 1.2 said tubular member consisting of partially stabilized sintered zirconia; 1.2.1 said partially stabilized sintered zirconia being partially stabilized by MgO; and 1.2.2 said partially stabilized sintered zirconia having a degree of stabilization not above 26 % by mass; 1.2.1 said partially stabilized sintered zirconia being partially stabilized by MgO; and 1.2.2 said partially stabilized sintered zirconia having a degree of stabilization not above 26 % by mass; 1.3 said tubular member comprising free carbon; 1.3.1 wherein the free carbon is present over the volume of the tubular member .
A catalyst particle-holding structure used for production of carbon nanotubes, comprising: catalyst particles containing Fe; and a catalyst particle forming layer made of an alloy containing Al and Si, the catalyst particles being held by the catalyst particle forming layer so that a portion of each of the catalyst particles is embedded in the catalyst particle forming layer while the other portion of each of the catalyst particles is exposed from the surface of the catalyst particle forming layer, wherein the catalyst particle forming layer contains the Al and the Si at an atomic ratio of 1 : 1 to 1 : 9.
Device for cutting through pile threads on a weaving machine, comprising - a cutting means , which is displaceable back and forth according to a substantially rectilinear motion path, - a transmission body which is flexible over at least a portion of its length, in connection with the cutting means , and - a rotatable drive means , which is drivable so as to rotate alternately in the one and the other rotational direction, wherein the drive means and the transmission body are provided to interact in order to convert the rotation motions of the drive means , via the transmission body , into a back-and-forth displacement of the cutting means , characterized in that the device is provided to exert by a rotary motion of the drive means , via the transmission body , a pushing force on the cutting means . - a cutting means , which is displaceable back and forth according to a substantially rectilinear motion path, - a transmission body which is flexible over at least a portion of its length, in connection with the cutting means , and - a rotatable drive means , which is drivable so as to rotate alternately in the one and the other rotational direction,
Method for identifying a distinct device within a given range distance of a head-mounted device , the head-mounted device comprises: - receiving means adapted to receive wireless signals, - a memory adapted to store data, - a function controller adapted to control at least one function of the head-mounted device, and - at least one controllable active optical lens, the method comprising: - a tag data receiving step during which tag data identifying at least one electronic wireless tag placed on the distinct device are received by the receiving means of the head-mounted device , - a storing step during which the received data comprising the tag data are stored in the memory of the head-mounted device , - an identification step during which the distinct device is identified based on the stored data, characterized in that the method further comprises: - a function modifying step during which said at least one function of the head-mounted device is modified based on the stored data, wherein the function of the head-mounted device modified during the function modifying step is an optical function of the active optical lens. - receiving means adapted to receive wireless signals, - a memory adapted to store data, - a function controller adapted to control at least one function of the head-mounted device, and - at least one controllable active optical lens, the method comprising: - a tag data receiving step during which tag data identifying at least one electronic wireless tag placed on the distinct device are received by the receiving means of the head-mounted device , - a storing step during which the received data comprising the tag data are stored in the memory of the head-mounted device , - an identification step during which the distinct device is identified based on the stored data, - a tag data receiving step during which tag data identifying at least one electronic wireless tag placed on the distinct device are received by the receiving means of the head-mounted device , - a storing step during which the received data comprising the tag data are stored in the memory of the head-mounted device , - an identification step during which the distinct device is identified based on the stored data, - a function modifying step during which said at least one function of the head-mounted device is modified based on the stored data,
A method for analysis of an electronic device and financial remuneration to a user for submission of the electronic device, the method comprising: positioning an electronic device in an inspection area of a kiosk , the inspection area having a camera ; imaging the electronic device to generate a silhouette image of the electronic device determining dimensions of the electronic device based on the silhouette image; narrowing down a plurality of electronic devices in a training database based on the determined dimensions; and identifying the electronic device; characterised in that the method further comprises generating at least one illuminated image of the electronic device to determine a texture of the electronic device, and mapping the texture across the silhouette image; and comparing the textured silhouette image to a plurality of trained images of the narrowed-down plurality of electronic devices in the training database to identify the electronic device. positioning an electronic device in an inspection area of a kiosk , the inspection area having a camera ; imaging the electronic device to generate a silhouette image of the electronic device determining dimensions of the electronic device based on the silhouette image; narrowing down a plurality of electronic devices in a training database based on the determined dimensions; and
An aqueous ink for ink jet comprising: a coloring material; and a resin particle, wherein a resin for forming the resin particle includes a unit having an aromatic group, a unit having a cyano group, a unit derived from a (meth)acrylic acid ester having a branched alkyl group and a unit represented by the following general formula : in the general formula , "n" represents the number of a repeating unit, R 1 represents an alkyl group and E represents the number of repeating units of an ethylene oxide group and satisfies E≥1. a coloring material; and a resin particle, wherein a resin for forming the resin particle includes a unit having an aromatic group, a unit having a cyano group, a unit derived from a (meth)acrylic acid ester having a branched alkyl group and a unit represented by the following general formula : in the general formula , "n" represents the number of a repeating unit, R 1 represents an alkyl group and E represents the number of repeating units of an ethylene oxide group and satisfies E≥1.
A partial power converter (PPC) for an electric power system, comprising an input capacitor (Cpv), a transformer with a primary winding (Np) and two secondary windings (Ns1, Ns2), a transistor (M1), two diodes (D1, D2), and a capacitor output (Cdc), wherein the input capacitor (Cpv) is connectable in parallel to a power source (v pv ) and connected to the primary winding (Np) of the transformer, the primary winding (Np) is connected in series to the transistor (M1), which is of the Metal Oxide Semiconductor Field Effect Transistor type, characterized in that the two secondary windings (Ns1 Ns2) both with the same number of turns, are connected, each one, in series by means of a terminal, with one of the diodes (D1, D2), respectively, and said diodes (D1, D2) are connected to the respective ends of the capacitor output (C dc ); the other terminal of one secondary winding (Ns1) of the transformer is connected to one of the terminals of the primary winding, the other terminal of the other secondary winding (Ns2) is connected to one of the terminals of the transistor (M1), and the output capacitor (C dc ) serves as a link to connect to a next stage.
Method for measuring a driving event , wherein a stationary server device : - receives first event data from a first motor vehicle , which event data indicate the driving event recognised by means of a detection device of the first motor vehicle , wherein the driving event comprises an encounter with an object in a environment and/or a drive in a predetermined driving condition, - determines after receiving the first event data for a plurality of motor vehicles, in which of them the driving event takes place or in which of them the driving event is imminent, and selects at least one of the motor vehicles in which the driving event takes place or in which the driving event is imminent as a second motor vehicle , - generates configuration data for reconfiguring a detection device of a second motor vehicle different from the first motor vehicle as a function of the first event data ; wherein a data quantity of the second event data is set by means of the configuration data ; wherein the data quantity is larger than a data quantity of the first event data and wherein the second event data describe more details of the driving event than the first event data , - transmits the configuration data to the second motor vehicle for generating second event data describing the driving event according to the requirements of the server device , and - on the basis of the second event data enters a description of the driving event in a digital map of the surrounding area . - receives first event data from a first motor vehicle , which event data indicate the driving event recognised by means of a detection device of the first motor vehicle , wherein the driving event comprises an encounter with an object in a environment and/or a drive in a predetermined driving condition, - determines after receiving the first event data for a plurality of motor vehicles, in which of them the driving event takes place or in which of them the driving event is imminent, and selects at least one of the motor vehicles in which the driving event takes place or in which the driving event is imminent as a second motor vehicle , - generates configuration data for reconfiguring a detection device of a second motor vehicle different from the first motor vehicle as a function of the first event data ; wherein a data quantity of the second event data is set by means of the configuration data ; wherein the data quantity is larger than a data quantity of the first event data and wherein the second event data describe more details of the driving event than the first event data , - transmits the configuration data to the second motor vehicle for generating second event data describing the driving event according to the requirements of the server device , and - on the basis of the second event data enters a description of the driving event in a digital map of the surrounding area .
A device comprising a microstructured surface having at least two hierarchical levels, including a first level disposed about a second level, the first level having first microstructures with a first pitch between adjacent first microstructures and the second level having second microstructures with a second pitch between adjacent second microstructures that is different to the first pitch, wherein at least one of said first and second pitches has a periodicity capable of accommodating a wrinkle eigenmode of a deformable target surface such that the microstructured surface is capable, when in use placed in contact with a said deformable target surface having a fluid thereon, of generating a first state with the deformable target surface including the formation of wrinkle eigenmodes and wherein the at least two hierarchical levels are configured to produce Wenzel-Cassie fluid pinning states when placed in contact with said deformable target surface having a fluid thereon, wherein the at least two hierarchical levels produce split contact Wenzel-Cassie wetting states. the first level having first microstructures with a first pitch between adjacent first microstructures and the second level having second microstructures with a second pitch between adjacent second microstructures that is different to the first pitch, wherein at least one of said first and second pitches has a periodicity capable of accommodating a wrinkle eigenmode of a deformable target surface such that the microstructured surface is capable, when in use placed in contact with a said deformable target surface having a fluid thereon, of generating a first state with the deformable target surface including the formation of wrinkle eigenmodes and wherein the at least two hierarchical levels are configured to produce Wenzel-Cassie fluid pinning states when placed in contact with said deformable target surface having a fluid thereon, wherein the at least two hierarchical levels produce split contact Wenzel-Cassie wetting states.