mhurhangee/patent-ind-claim-en huggingface dataset:
Method for additive manufacturing of a component comprising the following steps: - additively building up a multiplicity of sections for the component by means of a powder bed-based method, wherein a multiplicity of the sections are provided with complementary connecting means during the additive building up in such a way that the sections can then be connected to each other in a form-fitting manner, wherein the connecting means , in the finished component , are arranged in a cavity thereof or extend therethrough, - arranging the sections to form a composite , wherein a multiplicity of the sections are mutually fixed after or during the arranging and - additively finishing the component , wherein material is deposited along a circumferential direction (UR) around the composite of the sections by means of a deposition welding method in such a way that the sections are connected to each other in a substance-bonding manner. - additively building up a multiplicity of sections for the component by means of a powder bed-based method, wherein a multiplicity of the sections are provided with complementary connecting means during the additive building up in such a way that the sections can then be connected to each other in a form-fitting manner, wherein the connecting means , in the finished component , are arranged in a cavity thereof or extend therethrough, - arranging the sections to form a composite , wherein a multiplicity of the sections are mutually fixed after or during the arranging and - additively finishing the component , wherein material is deposited along a circumferential direction (UR) around the composite of the sections by means of a deposition welding method in such a way that the sections are connected to each other in a substance-bonding manner.
Method of producing polystyrene beads, wherein styrene monomers, and optionally comonomers are subjected to a polymerisation reaction in the presence of athermanous material and a polymerisation initiator to produce polystyrene beads, said method comprising - adding a premix of at least a part of the monomers and the athermanous material in particulate form as a mixture together with a dilatanting agent, adding said premix when the polymerisation has reached a conversion rate of 0.1 to 70.0 %. - adding a premix of at least a part of the monomers and the athermanous material in particulate form as a mixture together with a dilatanting agent, adding said premix when the polymerisation has reached a conversion rate of 0.1 to 70.0 %.
A method of updating a crosstalk cancellation matrix for use in a communication system having at least a first transmission path and a plurality of second transmission paths , the communication system to provide crosstalk cancellation based on the crosstalk cancellation matrix, the method comprising: providing an error estimate value to represent an estimated first part error of signal transmission via the first transmission path due to a crosstalk from a first one of the plurality of second transmission paths to the first transmission path based on the crosstalk cancellation matrix, providing an error value to represent a second part error of the signal transmission via the first transmission path due to the crosstalk from a second one of the plurality of second transmission paths to the first transmission path while the crosstalk from the second one of the plurality of second transmission paths to the first transmission path is excluded from the crosstalk cancellation; and updating crosstalk cancellation matrix coefficient values on a basis of at least the error value and the error estimate value to provide an updated crosstalk cancellation matrix; and reducing the crosstalk in the communication system based on the updated crosstalk cancellation matrix. providing an error estimate value to represent an estimated first part error of signal transmission via the first transmission path due to a crosstalk from a first one of the plurality of second transmission paths to the first transmission path based on the crosstalk cancellation matrix, providing an error value to represent a second part error of the signal transmission via the first transmission path due to the crosstalk from a second one of the plurality of second transmission paths to the first transmission path while the crosstalk from the second one of the plurality of second transmission paths to the first transmission path is excluded from the crosstalk cancellation; and updating crosstalk cancellation matrix coefficient values on a basis of at least the error value and the error estimate value to provide an updated crosstalk cancellation matrix; and reducing the crosstalk in the communication system based on the updated crosstalk cancellation matrix.
A method for efficiently separating carbon dioxide from a flue gas of a hydrocarbon processing plant, comprising: (i) removing moisture from a flue gas of a hydrocarbon processing plant to yield an at least partially dried flue gas ; (ii) compressing the at least partially dried flue gas to yield a compressed-gas stream , wherein the compressed gas stream includes carbon dioxide; (iii) reducing the temperature of the compressed-gas stream to a temperature T 1 using a first heat exchanger; (iv) reducing the temperature of the compressed-gas stream to a second temperature T 2 using a second heat exchanger, wherein T 2 < T 1 and wherein at least a portion of the carbon dioxide from the compressed gas stream condenses to a solid in a chamber, thereby yielding a solid condensed-phase carbon dioxide component and a light-gas component, (v) accumulating the solid condensed-phase carbon dioxide component on the surfaces of the chamber where the condensation is carried out, thereby separating the solid condensed phase carbon dioxide component from the light gas component to produce a light gas stream , removing the solid condensed phase carbon dioxide component from the surface by mechanical means and collecting the solid condensed-phase carbon dioxide component on a mesh, and (vi) using at least a portion of the light-gas stream in the second heat exchanger to cool the compressed-gas stream . (i) removing moisture from a flue gas of a hydrocarbon processing plant to yield an at least partially dried flue gas ; (ii) compressing the at least partially dried flue gas to yield a compressed-gas stream , wherein the compressed gas stream includes carbon dioxide; (iii) reducing the temperature of the compressed-gas stream to a temperature T 1 using a first heat exchanger; (iv) reducing the temperature of the compressed-gas stream to a second temperature T 2 using a second heat exchanger, wherein T 2 < T 1 and wherein at least a portion of the carbon dioxide from the compressed gas stream condenses to a solid in a chamber, thereby yielding a solid condensed-phase carbon dioxide component and a light-gas component, (v) accumulating the solid condensed-phase carbon dioxide component on the surfaces of the chamber where the condensation is carried out, thereby separating the solid condensed phase carbon dioxide component from the light gas component to produce a light gas stream , removing the solid condensed phase carbon dioxide component from the surface by mechanical means and collecting the solid condensed-phase carbon dioxide component on a mesh, and (vi) using at least a portion of the light-gas stream in the second heat exchanger to cool the compressed-gas stream .
An oligosaccharide having a structure according to Formula (III), or a pharmaceutically acceptable salt thereof, wherein each R 9 , which may be the same or different, is independently C 3 to C 20 alkyl, C 3 to C 20 alkenyl, or C 3 to C 20 alkynyl, wherein R 9 may be unsubstituted or may be substituted by from 1 to 6 substituents selected from halogen, OH, C 1 to C 4 alkoxy and -NR 10 R 11 ; and each R 10 and R 11 , which may be the same or different, is independently H or C 1 to C 4 alkyl.
A method for three-dimensional imaging of an object , wherein - the object is imaged along an imaging beam path into a first image lying in a first image plane, - a first microlens array is arranged in the first image plane, - an intensity distribution is captured downstream of the first microlens array and image data are obtained therefrom and a depth-resolved image of the object is produced from the latter, - a second microlens array having the same pitch as the first microlens array is disposed downstream of the first microlens array , - the first image is laterally segmented into segments by means of the first and second microlens array and is imaged into a second image in which the segments are spaced apart from one another and separated by gaps and which lies in a second image plane, - a phase manipulation is carried out downstream of the first microlens array , said phase manipulation producing a spot in the second image plane for each segment according to a point spread function, the form and/or structure of said spot encoding the depth position in the object and covering the gaps in the second image and thereby a final image is imaged, - the intensity distribution for the final image is captured, the form and/or structure of the spots being resolved, and - a lateral intensity distribution and a depth specification is ascertained for each segment from the form and/or structure of the spots and the depth-resolved image of the object is produced therefrom. - the object is imaged along an imaging beam path into a first image lying in a first image plane, - a first microlens array is arranged in the first image plane, - an intensity distribution is captured downstream of the first microlens array and image data are obtained therefrom and a depth-resolved image of the object is produced from the latter, - a second microlens array having the same pitch as the first microlens array is disposed downstream of the first microlens array , - the first image is laterally segmented into segments by means of the first and second microlens array and is imaged into a second image in which the segments are spaced apart from one another and separated by gaps and which lies in a second image plane, - a phase manipulation is carried out downstream of the first microlens array , said phase manipulation producing a spot in the second image plane for each segment according to a point spread function, the form and/or structure of said spot encoding the depth position in the object and covering the gaps in the second image and thereby a final image is imaged, - the intensity distribution for the final image is captured, the form and/or structure of the spots being resolved, and - a lateral intensity distribution and a depth specification is ascertained for each segment from the form and/or structure of the spots and the depth-resolved image of the object is produced therefrom.
An inspection execution method performed by a computer, for causing each of a plurality of apparatuses to execute a plurality of inspections, the method comprising: a schedule determination step (S104) of determining an inspection schedule including at least order of the plurality of inspections; and an inspection step (S105) of causing the apparatuses to execute the inspections on the basis of the determined inspection schedule, characterized in that , the plurality of inspections includes first-type inspections and second-type inspections, wherein each of the apparatuses is a refrigerant cycle apparatus configured such that an indoor unit (3a to 5a,3b to 5b, 3c to 5c, 3d to 5d) is connected to a heat source unit , the first-type inspections are refrigerant filling amount inspections for a refrigerant filling amount of a refrigerant filled in the refrigerant cycle apparatus and the second-type inspections are wiring inspections for wiring to check whether or not wiring for connecting the heat source unit with the indoor unit (3ato 5a, 3b to 5b, 3c to 5c, 3d to 5d) is proper, and wherein the inspection schedule is determined to concurrently execute the refrigerant filling amount inspections and to separately execute the wiring inspections. a schedule determination step (S104) of determining an inspection schedule including at least order of the plurality of inspections; and an inspection step (S105) of causing the apparatuses to execute the inspections on the basis of the determined inspection schedule, characterized in that , the plurality of inspections includes first-type inspections and second-type inspections, wherein each of the apparatuses is a refrigerant cycle apparatus configured such that an indoor unit (3a to 5a,3b to 5b, 3c to 5c, 3d to 5d) is connected to a heat source unit , the first-type inspections are refrigerant filling amount inspections for a refrigerant filling amount of a refrigerant filled in the refrigerant cycle apparatus and the second-type inspections are wiring inspections for wiring to check whether or not wiring for connecting the heat source unit with the indoor unit (3ato 5a, 3b to 5b, 3c to 5c, 3d to 5d) is proper, and wherein the inspection schedule is determined to concurrently execute the refrigerant filling amount inspections and to separately execute the wiring inspections.
Straw for the storage of a predetermined dose of liquid-based substance containing water, in particular a biological substance, comprising a tube extending between a first end and a second end and comprising a gas-permeable, liquid-tight swelling plug , said swelling plug being arranged in the tube close to its first end and extending between a first end facing towards the first end of the tube and a second end facing towards the second end of the tube , said swelling plug comprising a fibrous support agent and a swelling agent combined with the support agent, said swelling agent swelling by absorption of water on contact with the liquid-based substance , with said swelling plug and said tube being configured so that after that the liquid-based substance has come up against the swelling plug via its second end , the swelling plug blocks the passage of the liquid-based substance and by pushing on its first end can be slid in the tube towards the second end of the tube ; characterized in that said swelling plug is configured, at least close to its second end , after the liquid-based substance has come up against its second end , to be in a state of swelling constrained by said tube such that if a first part of the swelling plug of a length comprised between 2 mm and 3 mm starting from the second end of the swelling plug has come out of the tube via the second end of the tube , whereas a second part of the swelling plug remains in the tube , the first part of the swelling plug becomes decompacted and expands with the second end of the swelling plug which assumes a diameter (d) at least equal to one and a half times the inner diameter of the tube .
A plasma etching method using a Faraday cage, comprising: providing a substrate for etching in a Faraday cage, wherein the substrate for etching comprises a metal mask provided on one surface thereof, the metal mask having an opening pattern portion, and wherein an upper surface of the Faraday cage is provided with a mesh portion; a first patterning step of forming a first pattern area on the substrate for etching by using plasma etching; and a second patterning step of forming a second pattern area on the substrate for etching by using the plasma etching after shielding at least a part of the mesh portion by using a shutter, wherein the first pattern area includes a first groove pattern having a depth gradient of 0 to 40 nm per 5 mm, and the second pattern area includes a second groove pattern having a depth gradient of 50 to 300 nm per 5 mm. providing a substrate for etching in a Faraday cage, wherein the substrate for etching comprises a metal mask provided on one surface thereof, the metal mask having an opening pattern portion, and wherein an upper surface of the Faraday cage is provided with a mesh portion; a first patterning step of forming a first pattern area on the substrate for etching by using plasma etching; and a second patterning step of forming a second pattern area on the substrate for etching by using the plasma etching after shielding at least a part of the mesh portion by using a shutter, wherein the first pattern area includes a first groove pattern having a depth gradient of 0 to 40 nm per 5 mm, and the second pattern area includes a second groove pattern having a depth gradient of 50 to 300 nm per 5 mm.
Escalator having a plurality of movable step segments which, lined up in a row, each run on four wheels which are mounted at the four corners of each step segment , wherein the tread of each step segment is horizontal during transport towards the front and drops obliquely during reverse transport towards the rear, characterized - in that each step segment is formed by a rectangular step plate of constant height, at the four corners of which a wheel is respectively mounted, - in that in the transport area (C) on the front side of the escalator, the front two wheels of each step segment are transported by two circulating transport chains , - in that the rear two wheels of each step segment run on two inclined first tracks without being fixed to transport chains, and - in that in the reverse transport area (D) on the rear side, with the tread lying at an angle, the step segments are transported back by the two circulating transport chains on two inclined, rear, second tracks . - in that each step segment is formed by a rectangular step plate of constant height, at the four corners of which a wheel is respectively mounted, - in that in the transport area (C) on the front side of the escalator, the front two wheels of each step segment are transported by two circulating transport chains , - in that the rear two wheels of each step segment run on two inclined first tracks without being fixed to transport chains, and - in that in the reverse transport area (D) on the rear side, with the tread lying at an angle, the step segments are transported back by the two circulating transport chains on two inclined, rear, second tracks .
A method for producing a cyclic silane of Formula : (SiH 2 ) n Formula wherein n is an integer of 4 to 6, comprising reacting a cyclic silane compound of Formula : (SiR 1 R 2 ) n Formula wherein R 1 and R 2 are each a hydrogen atom, a C 1-6 alkyl group, or a substituted or unsubstituted phenyl group, but at most one of R 1 and R 2 is a hydrogen atom, and n is an integer of 4 to 6, with a hydrogen halide in cyclohexane, hexane, heptane, toluene, or benzene in the presence of an aluminum halide to obtain a solution containing a cyclic silane compound of Formula : (SiR 3 R 4 ) n Formula wherein R 3 and R 4 are each a halogen atom, and n is an integer of 4 to 6, and then distilling the solution to purify the cyclic silane compound of Formula , dissolving the purified cyclic silane compound of Formula in an organic solvent, and reducing the purified cyclic silane compound of Formula with hydrogen or lithium aluminum hydride.
A computing device for controlling a haptic touchscreen , the computing device comprising processing circuitry causing the computing device to become operative to: display a plurality of user-interface, UI, elements (301-304) on the touchscreen , acquire information pertaining to a point of gaze of a user gazing at the touchscreen from a gaze detector , characterized in that the computing device becomes further operative to select at least one of the displayed UI elements (301-304) based on the point of gaze , and control the touchscreen to render the selected UI elements haptically distinguishable from the other UI elements in response to a sequence of: detecting that the user is gazing at the touchscreen , detecting that an object is approaching the touchscreen , and detecting that the user ceases gazing at the touchscreen . display a plurality of user-interface, UI, elements (301-304) on the touchscreen , acquire information pertaining to a point of gaze of a user gazing at the touchscreen from a gaze detector , characterized in that the computing device becomes further operative to select at least one of the displayed UI elements (301-304) based on the point of gaze , and control the touchscreen to render the selected UI elements haptically distinguishable from the other UI elements in response to a sequence of: detecting that the user is gazing at the touchscreen , detecting that an object is approaching the touchscreen , and detecting that the user ceases gazing at the touchscreen .
A pneumatic tyre comprising: a pair of bead portions ; a pair of bead cores each disposed in a respective one of the pair of bead portions; a carcass extending between the pair of bead cores, the carcass comprising a carcass ply that comprises a main portion extending between the pair of bead cores and a pair of turn-up portions each turned up around a respective one of the pair of bead cores from axially inside to outside of the tyre and extending outwardly in a tyre radial direction; and a reinforcing rubber layer disposed in each bead portion and being adjacent to an axially outside of the turn-up portion, characterised in that the reinforcing rubber layer has a laminated body in which a plurality of sheet-shaped rubber members having different radial lengths are laminated in the tyre axial direction. a pair of bead portions ; a pair of bead cores each disposed in a respective one of the pair of bead portions; a carcass extending between the pair of bead cores, the carcass comprising a carcass ply that comprises a main portion extending between the pair of bead cores and a pair of turn-up portions each turned up around a respective one of the pair of bead cores from axially inside to outside of the tyre and extending outwardly in a tyre radial direction; and a reinforcing rubber layer disposed in each bead portion and being adjacent to an axially outside of the turn-up portion, characterised in that the reinforcing rubber layer has a laminated body in which a plurality of sheet-shaped rubber members having different radial lengths are laminated in the tyre axial direction.
Heat generation assembly comprising at least one air flow generation device , air supply means fluidically connected to the air flow generation device , at least three heating devices each comprising an air inlet connected to the air supply means , and a heated-air outlet , means for controlling the air flow generation device and the heating devices , which heating devices are distributed along at least one peripheral line , each section of peripheral line that groups together three adjacent heating devices being curved, wherein the air supply means comprise at least one air distribution member formed by an arched tube in which are formed at least one air inlet connected at the outlet of the air flow generator and at least three air outlets , each being connected at the inlet of the associated heating device , and wherein each arched tube portion that groups together three adjacent air outlets faces said section of peripheral line that groups together the three adjacent devices .