mhurhangee/ep-ind-claims huggingface dataset:
An air jigging machine for the dry processing of raw materials, particularly coal, comprising - at least one material feeding device, - at least one jigging material carrier that is provided with openings, - an air funnel that is arranged underneath the jigging material carrier and by means of which an air flow can be fed to the jigging material carrier as working air, which is composed of a constant partial flow and a superimposed pulsating partial flow, such that the working air can flow through the material fed onto the jigging material carrier and said material can be stratified into a heavy material layer acting as a jig bed and a light material layer lying thereon, as well as - a discharge device for the heavy material and light material stratified on the jigging material carrier during the jigging process, characterized in that a pressure measuring device for determining the pressure differential between the pressure in the air funnel and the surroundings is arranged upstream to the jigging material carrier, and in that a control unit for adjusting the material throughput is provided, wherein the measured pressure differential is used for adjusting the material throughput. - at least one material feeding device, - at least one jigging material carrier that is provided with openings, - an air funnel that is arranged underneath the jigging material carrier and by means of which an air flow can be fed to the jigging material carrier as working air, which is composed of a constant partial flow and a superimposed pulsating partial flow, such that the working air can flow through the material fed onto the jigging material carrier and said material can be stratified into a heavy material layer acting as a jig bed and a light material layer lying thereon, as well as - a discharge device for the heavy material and light material stratified on the jigging material carrier during the jigging process,
A secretory immunoglobulin A (sIgA)-binding nucleic acid molecule that binds to sIgA with a dissociation constant of 37.7 nM or less, wherein the sIgA-binding nucleic acid molecule comprises the following polynucleotide (a): (a) a polynucleotide consisting of SEQ ID No. 11 or 21; in the polynucleotides shown in the following Table: SEQ ID No. Modified base Base sequence 11 KS9 21 KS9 the underlined thymines in the polynucleotides consisting of the respective base sequences of SEQ ID Nos. 11 and 21 are nucleotide residues represented by the following chemical formula: (a) a polynucleotide consisting of SEQ ID No. 11 or 21; in the polynucleotides shown in the following Table: SEQ ID No. Modified base Base sequence 11 KS9 21 KS9 the underlined thymines in the polynucleotides consisting of the respective base sequences of SEQ ID Nos. 11 and 21 are nucleotide residues represented by the following chemical formula:
A method for producing a composition containing fucoxanthin, comprising: a first step of adding a water-soluble solvent containing 0 to 80% by weight of water to seaweed to obtain a seaweed component extract, and then adding water and/or a water-soluble solvent into the seaweed component extract in such a manner that a concentration of the water-soluble solvent is 20 to 45% by weight and also adding a diluent thereinto to obtain a diluent-containing extract; and a second step of stirring the diluent-containing extract, and then collecting a substance aggregating in the diluent-containing extract as a composition containing fucoxanthin by separation, and wherein the diluent is selected from the group consisting of flour, soybean flour, microcrystalline cellulose, diatomite, kaolin and silica dioxide. a first step of adding a water-soluble solvent containing 0 to 80% by weight of water to seaweed to obtain a seaweed component extract, and then adding water and/or a water-soluble solvent into the seaweed component extract in such a manner that a concentration of the water-soluble solvent is 20 to 45% by weight and also adding a diluent thereinto to obtain a diluent-containing extract; and a second step of stirring the diluent-containing extract, and then collecting a substance aggregating in the diluent-containing extract as a composition containing fucoxanthin by separation, and wherein the diluent is selected from the group consisting of flour, soybean flour, microcrystalline cellulose, diatomite, kaolin and silica dioxide.
A method for determining material properties in an active acoustic spectroscopy system, the method comprising: acquiring a multi dimensional acoustic spectrum from a material in a container using acoustic spectroscopy, the multi dimensional acoustic spectrum comprising a plurality of frequency bins, where each frequency bin can be considered to represent one dimension; reducing the dimensionality of the acoustic spectrum using a mathematical dimensionality reduction method, thereby forming a reduced acoustic spectrum describing a material state; determining if the material state belongs to a predetermined material state cluster (302a-c), wherein a material state cluster describes a plurality of material states which are close to each other in the representation determined by a selected reduced dimensionality; and determining an optimal path (400a-c) between two different and separate predetermined material state clusters, wherein an optimal path is determined based on an estimated time and/or an estimated energy required to transition from a first material state cluster to a second material state cluster. acquiring a multi dimensional acoustic spectrum from a material in a container using acoustic spectroscopy, the multi dimensional acoustic spectrum comprising a plurality of frequency bins, where each frequency bin can be considered to represent one dimension; reducing the dimensionality of the acoustic spectrum using a mathematical dimensionality reduction method, thereby forming a reduced acoustic spectrum describing a material state; determining if the material state belongs to a predetermined material state cluster (302a-c), wherein a material state cluster describes a plurality of material states which are close to each other in the representation determined by a selected reduced dimensionality; and determining an optimal path (400a-c) between two different and separate predetermined material state clusters, wherein an optimal path is determined based on an estimated time and/or an estimated energy required to transition from a first material state cluster to a second material state cluster.
A nitrile copolymer rubber composition comprising a nitrile copolymer rubber containing 22 to 45 wt% of α,β-ethylenically unsaturated nitrile monomer units and having a Mooney viscosity, measured based on JIS K6300, of 3 to 250, a vinyl chloride resin having an average polymerization degree of 1200 to 2200, and a liquid nitrile rubber having a Mooney viscosity, measured based on JIS K6300, of 1 or less or which cannot be measured, wherein a ratio of content of the vinyl chloride resin with respect to 100 parts by weight of the nitrile copolymer rubber is 70 to 140 parts by weight, and a ratio of content of the liquid nitrile rubber with respect to 100 parts by weight of the nitrile copolymer rubber is 5 to 50 parts by weight.
A method for applying print to at least one chewing gum surface, the method comprising: forming a chewing gum composition into at least one chewing gum sheet having at least one printable surface, said chewing gum sheet having a desirable thickness; providing a print roller; transporting said at least one chewing gum sheet towards said print roller via a transporting surface; providing a gap between said print roller and said transporting surface, said thickness of said at least one chewing gum sheet being greater than a height of said gap; moving said at least one chewing gum sheet through said gap; printing indicia on said chewing gum sheet via said print roller during said moving of said at least one chewing gum sheet through said gap; and compressing said at least one chewing gum sheet during said moving of said at least one chewing gum sheet through said gap, said compressing occurring simultaneously with said printing. forming a chewing gum composition into at least one chewing gum sheet having at least one printable surface, said chewing gum sheet having a desirable thickness; providing a print roller; transporting said at least one chewing gum sheet towards said print roller via a transporting surface; providing a gap between said print roller and said transporting surface, said thickness of said at least one chewing gum sheet being greater than a height of said gap; moving said at least one chewing gum sheet through said gap; printing indicia on said chewing gum sheet via said print roller during said moving of said at least one chewing gum sheet through said gap; and compressing said at least one chewing gum sheet during said moving of said at least one chewing gum sheet through said gap, said compressing occurring simultaneously with said printing.
A humidifier comprising: a body; a water tub provided inside of the body to store water; a humidifying element rotatably provided inside of the body and configured to perform humidification by absorbing water from the water tub, wherein the humidifying element is disposed such that an outer circumference thereof is adjacent to a bottom of the water tub to absorb water in the bottom of the water tub; and a first cover and a second cover provided in a front side and a rear side of the humidifying element, respectively, to support the humidifying element, characterised in that: the first cover and the second cover are formed in a disk shape having a radius less than a radius of the humidifying element, and the humidifying element is disposed such that an outer circumference thereof is in contact with the bottom of the water tub. a body; a water tub provided inside of the body to store water; a humidifying element rotatably provided inside of the body and configured to perform humidification by absorbing water from the water tub, wherein the humidifying element is disposed such that an outer circumference thereof is adjacent to a bottom of the water tub to absorb water in the bottom of the water tub; and a first cover and a second cover provided in a front side and a rear side of the humidifying element, respectively, to support the humidifying element, characterised in that: the first cover and the second cover are formed in a disk shape having a radius less than a radius of the humidifying element, and the humidifying element is disposed such that an outer circumference thereof is in contact with the bottom of the water tub. the first cover and the second cover are formed in a disk shape having a radius less than a radius of the humidifying element, and the humidifying element is disposed such that an outer circumference thereof is in contact with the bottom of the water tub.
A braze tape comprising: a first layer comprising a nickel or cobalt based superalloy; a second layer comprising braze material, wherein the braze material is boron and silicon free and the chemical composition of the braze material is selected from the group consisting of Ni-Cr-Ti, Ni-Zr-Ti, and Ni-Cr-Zr-Ti; and a third layer comprising flux material comprising fluoride. a first layer comprising a nickel or cobalt based superalloy; a second layer comprising braze material, wherein the braze material is boron and silicon free and the chemical composition of the braze material is selected from the group consisting of Ni-Cr-Ti, Ni-Zr-Ti, and Ni-Cr-Zr-Ti; and a third layer comprising flux material comprising fluoride.
A method for connecting to external devices (10, 20) by using a near-field communication module (220, 230, 240) in an electronic device, the method comprising: obtaining external device information for connecting to the external devices (10, 20) using a type of near-field communication, wherein the near-field communication type comprises at least one of Bluetooth, Wi-Fi, and Near-Field Communication, NFC, classifying the external devices (10, 20) into a plurality of groups (A, B, C) according to a predetermined criterion, generating threads for connecting to the external devices (10, 20) included in a group of the predetermined groups (A, B, C) by using the obtained external device information, wherein generating the threads comprises: individually generating control nodes (331, 332, 333) respectively in charge of the groups (A, B, C), wherein the control nodes (331, 332, 333) respectively control the connection and communication with the groups (A, B,C), finding external devices (10, 20) included in a group (A, B, C) in charge by performing a scanning operation by the control nodes (331, 332, 333), and generating threads for the external devices found by the control nodes (331, 332, 333); connecting to the external devices (10, 20) using a type of near-field communication by simultaneously performing the threads, and controlling the connected external devices (10, 20). obtaining external device information for connecting to the external devices (10, 20) using a type of near-field communication, wherein the near-field communication type comprises at least one of Bluetooth, Wi-Fi, and Near-Field Communication, NFC, classifying the external devices (10, 20) into a plurality of groups (A, B, C) according to a predetermined criterion, generating threads for connecting to the external devices (10, 20) included in a group of the predetermined groups (A, B, C) by using the obtained external device information, wherein generating the threads comprises: individually generating control nodes (331, 332, 333) respectively in charge of the groups (A, B, C), wherein the control nodes (331, 332, 333) respectively control the connection and communication with the groups (A, B,C), finding external devices (10, 20) included in a group (A, B, C) in charge by performing a scanning operation by the control nodes (331, 332, 333), and generating threads for the external devices found by the control nodes (331, 332, 333); individually generating control nodes (331, 332, 333) respectively in charge of the groups (A, B, C), wherein the control nodes (331, 332, 333) respectively control the connection and communication with the groups (A, B,C), finding external devices (10, 20) included in a group (A, B, C) in charge by performing a scanning operation by the control nodes (331, 332, 333), and generating threads for the external devices found by the control nodes (331, 332, 333); connecting to the external devices (10, 20) using a type of near-field communication by simultaneously performing the threads, and controlling the connected external devices (10, 20).
A method for forming a semiconductor-on-insulator substrate, comprising: forming a substrate structure comprising at least a base semiconductor substrate layer and a semiconductor device layer with a sacrificial layer located therebetween; patterning the substrate structure to form one or more device regions (2, 4, 6) defined by one or more isolation trenches, wherein each device region (2, 4, 6) comprises a base semiconductor substrate layer and a semiconductor device layer with a sacrificial layer located therebetween; forming one or more insulator strips each having at least a vertical portion over a sidewall of one of the isolation trenches and a horizontal portion over an upper surface of one of the device regions (2, 4, 6); selectively removing the sacrificial layer from each device region to form an air gap between the base semiconductor substrate layer and the semiconductor device layer, wherein the vertical portions of the one or more insulator strips form vertical insulator pillars to support the semiconductor device layer; and filling the air gap within each device region with an insulator material to form a buried insulator layer between the base semiconductor substrate layer and the semiconductor device layer. forming a substrate structure comprising at least a base semiconductor substrate layer and a semiconductor device layer with a sacrificial layer located therebetween; patterning the substrate structure to form one or more device regions (2, 4, 6) defined by one or more isolation trenches, wherein each device region (2, 4, 6) comprises a base semiconductor substrate layer and a semiconductor device layer with a sacrificial layer located therebetween; forming one or more insulator strips each having at least a vertical portion over a sidewall of one of the isolation trenches and a horizontal portion over an upper surface of one of the device regions (2, 4, 6); selectively removing the sacrificial layer from each device region to form an air gap between the base semiconductor substrate layer and the semiconductor device layer, wherein the vertical portions of the one or more insulator strips form vertical insulator pillars to support the semiconductor device layer; and filling the air gap within each device region with an insulator material to form a buried insulator layer between the base semiconductor substrate layer and the semiconductor device layer.
An optically-controlled switch (100, 200, 400), comprising: a printed circuit board, PCB, comprising upper and lower layers and a dielectric layer between the upper and lower layers, a plurality of electrically conductive vias electrically connected to the upper and lower layers and located in at least two rows; a shunt via electrically connected to the lower layer and separated from the upper layer by a dielectric gap and arranged between the at least two rows of vias; and a photoconductive semiconductor element, PSE, electrically connected to the upper layer and the shunt via, wherein the PSE includes a dielectric state and a conductor state, and wherein the PSE selectively propagates or blocks through a waveguide formed by the at least two rows, an electromagnetic wave provided to the optically-controlled switch, based on a state of the PSE. a printed circuit board, PCB, comprising upper and lower layers and a dielectric layer between the upper and lower layers, a plurality of electrically conductive vias electrically connected to the upper and lower layers and located in at least two rows; a shunt via electrically connected to the lower layer and separated from the upper layer by a dielectric gap and arranged between the at least two rows of vias; and a photoconductive semiconductor element, PSE, electrically connected to the upper layer and the shunt via, wherein the PSE includes a dielectric state and a conductor state, and wherein the PSE selectively propagates or blocks through a waveguide formed by the at least two rows, an electromagnetic wave provided to the optically-controlled switch, based on a state of the PSE.
Process for the preparation of multilayered composite materials comprising, as components: a backing material, optionally at least one tie layer and a polymer layer, characterized in that a) a polymer layer is formed using a mold, b) optionally at least one organic adhesive is applied all over or partially to backing material and/or to polymer layer and then c) polymer layer is bonded with backing material in point, strip or two-dimensional fashion, polymer layer and/or the optionally at least one tie layer being prepared from aqueous polymer dispersions which comprise at least one crosslinking agent C, the at least one crosslinking agent C being at least one polyisocyanate P, the isocyanate groups of which are blocked with at least one blocking agent BA, the at least one blocking agent BA being chosen from malonic esters, acetoacetates, oximes, pyrazoles, lactams and phenols. a backing material, optionally at least one tie layer and a polymer layer, a) a polymer layer is formed using a mold, b) optionally at least one organic adhesive is applied all over or partially to backing material and/or to polymer layer and then c) polymer layer is bonded with backing material in point, strip or two-dimensional fashion,
A dynamic resource allocation method, used for a frequency division duplexing system in a wireless communication network, comprising: setting a shared frequency band; allocating the shared frequency band to an original uplink frequency band and/or an original downlink frequency band of the wireless communication network, wherein the allocating is performed dynamically according to resource demands for the original uplink frequency band and the original downlink frequency band, and wherein allocating the shared frequency band includes allocating uplink sub-frames and downlink sub-frames in the shared frequency band; and when the shared frequency band is simultaneously allocated to the original uplink frequency band and the original downlink frequency band, either setting a protective isolation bandwidth between allocated uplink frequency band and allocated downlink frequency band; or setting protective time slots between allocated uplink sub-frames and allocated downlink sub-frames. setting a shared frequency band; allocating the shared frequency band to an original uplink frequency band and/or an original downlink frequency band of the wireless communication network, wherein the allocating is performed dynamically according to resource demands for the original uplink frequency band and the original downlink frequency band, and wherein allocating the shared frequency band includes allocating uplink sub-frames and downlink sub-frames in the shared frequency band; and when the shared frequency band is simultaneously allocated to the original uplink frequency band and the original downlink frequency band, either setting a protective isolation bandwidth between allocated uplink frequency band and allocated downlink frequency band; or setting protective time slots between allocated uplink sub-frames and allocated downlink sub-frames.
A molding apparatus for forming a retaining device, the molding apparatus comprising a molding strip and a molding support, the molding strip having an inside face, an outside face, and a plurality of through cavities extending from the outside face to the inside face, the molding strip extending in a longitudinal direction and presenting both a transverse direction perpendicular to the longitudinal direction, and also a height direction perpendicular to the longitudinal direction and to the transverse direction, the inside face being configured to press against a molding face of the molding support, wherein the inside face of the molding strip includes an array of passages, the array of passages forming vents and connecting together the cavities when the molding strip is pressed against the molding support, wherein the inside face presents a rim surrounding the open portion of each cavity and projecting from the inside face, the rims defining between them the array of passages, each rim presenting various heights (HR1, HR2, HR3, HR4), such that when the molding strip is pressed against the molding support, at least a portion of each rim is not pressed against the molding support, such that each cavity is in connection with the atmosphere via the array of passages.