mhurhangee/patent-ind-claim-en huggingface dataset:
An electrochemical cell system comprising: a fuel electrode; an oxidant electrode; an oxygen evolving electrode; an oxygen reduction air electrode exposed to external oxygen; an aqueous ionically conductive medium common to and contacting each of the electrodes; the fuel electrode and the oxidant electrode being operable in a discharge mode wherein the fuel electrode functions as an anode and the oxidant electrode functions as a cathode to output electrical current; the oxygen evolving electrode and the oxidant reduction air electrode being operable to generate convective flow in the aqueous ionically conductive medium by application of current therebetween wherein the oxygen evolving electrode acts as an anode to evolve oxygen to generate convective flow in the cell by oxidizing a species thereof from the aqueous ionically conductive medium and the oxidant reduction air electrode acts as a cathode to reduce oxygen, wherein the electrochemical cell system further comprises a controller configured to deliver electrical current of anodic potential to the oxygen evolving electrode and of a cathodic potential to the oxidant reduction air electrode during the discharge mode to generate the convective flow. a fuel electrode; an oxidant electrode; an oxygen evolving electrode; an oxygen reduction air electrode exposed to external oxygen; an aqueous ionically conductive medium common to and contacting each of the electrodes; the fuel electrode and the oxidant electrode being operable in a discharge mode wherein the fuel electrode functions as an anode and the oxidant electrode functions as a cathode to output electrical current; the oxygen evolving electrode and the oxidant reduction air electrode being operable to generate convective flow in the aqueous ionically conductive medium by application of current therebetween wherein the oxygen evolving electrode acts as an anode to evolve oxygen to generate convective flow in the cell by oxidizing a species thereof from the aqueous ionically conductive medium and the oxidant reduction air electrode acts as a cathode to reduce oxygen, wherein the electrochemical cell system further comprises a controller configured to deliver electrical current of anodic potential to the oxygen evolving electrode and of a cathodic potential to the oxidant reduction air electrode during the discharge mode to generate the convective flow.
A method of a base station for performing communication based on a channel state information reference signal, CSI-RS, in a mobile communication system, the method comprising: transmitting , through first downlink control information, DCI, information for triggering at least one transmission of a sounding reference signal, SRS, wherein the information for triggering the at least one transmission of the SRS comprises information for notifying at least one transmission of the CSI-RS; receiving the SRS from a user equipment; selecting a precoding matrix based on the received SRS; transmitting the CSI-RS based on the selected precoding matrix; receiving CSI reporting from the user equipment; determining a transmission parameter based on the CSI reporting; and transmitting data to the user equipment based on the determined transmission parameter, wherein the CSI-RS corresponds to an aperiodic CSI-RS, wherein the SRS corresponds to an aperiodic SRS, wherein the information for triggering the at least one transmission of the SRS further comprises at least one of: a number of times of the at least one transmission of the SRS, a number of times of the at least one transmission of the aperiodic CSI-RS, or a number of times of the CSI reporting; wherein the information for triggering the at least one transmission of the SRS is transmitted in (n)th subframe, the SRS is received in (n+k)th subframe, and the aperiodic CSI-RS is transmitted in (n+k+v)th subframe, wherein v is a predetermined number of subframes; and wherein the information for triggering the at least one transmission of the SRS notifies the CSI reporting which is based on the aperiodic CSI-RS. transmitting , through first downlink control information, DCI, information for triggering at least one transmission of a sounding reference signal, SRS, wherein the information for triggering the at least one transmission of the SRS comprises information for notifying at least one transmission of the CSI-RS; receiving the SRS from a user equipment; selecting a precoding matrix based on the received SRS; transmitting the CSI-RS based on the selected precoding matrix; receiving CSI reporting from the user equipment; determining a transmission parameter based on the CSI reporting; and transmitting data to the user equipment based on the determined transmission parameter, wherein the CSI-RS corresponds to an aperiodic CSI-RS, wherein the SRS corresponds to an aperiodic SRS, wherein the information for triggering the at least one transmission of the SRS further comprises at least one of: a number of times of the at least one transmission of the SRS, a number of times of the at least one transmission of the aperiodic CSI-RS, or a number of times of the CSI reporting; wherein the information for triggering the at least one transmission of the SRS is transmitted in (n)th subframe, the SRS is received in (n+k)th subframe, and the aperiodic CSI-RS is transmitted in (n+k+v)th subframe, wherein v is a predetermined number of subframes; and wherein the information for triggering the at least one transmission of the SRS notifies the CSI reporting which is based on the aperiodic CSI-RS.
A method of receiving point cloud data, the method comprising: receiving (S38000) a bitstream including point cloud data including geometry data and attribute data; decoding (S38010) the geometry data, wherein decoding the geometry data includes generating an octree; and decoding (S38010) the attribute data, wherein decoding the attribute data includes setting a depth level of the octree for decoding the attribute data, wherein the decoding is started at the set depth level, reorganizing points of nodes by Morton codes for each octree node, sampling the reorganized points of the nodes at levels of detail from the set depth level, wherein the sampling includes that for consecutive depth levels, a first node in Morton order of a level of detail at a first depth level is selected and a last node in Morton order of a level of detail at a consecutive upper depth level is selected. receiving (S38000) a bitstream including point cloud data including geometry data and attribute data; decoding (S38010) the geometry data, wherein decoding the geometry data includes generating an octree; and decoding (S38010) the attribute data, wherein decoding the attribute data includes setting a depth level of the octree for decoding the attribute data, wherein the decoding is started at the set depth level, reorganizing points of nodes by Morton codes for each octree node, sampling the reorganized points of the nodes at levels of detail from the set depth level, wherein the sampling includes that for consecutive depth levels, a first node in Morton order of a level of detail at a first depth level is selected and a last node in Morton order of a level of detail at a consecutive upper depth level is selected.
A fill controller for a toilet cistern , the fill controller comprising a hollow body portion and an outlet and further comprising: a side inlet tube , which protrudes outwardly from the hollow body portion ; a bottom inlet tube nested within the outlet, which protrudes beyond a lower peripheral edge of the hollow body portion; a valve for controlling the flow of water between the inlet tubes and the outlet; and means for selectively and sealingly closing all but one of the inlet tubes . a side inlet tube , which protrudes outwardly from the hollow body portion ; a bottom inlet tube nested within the outlet, which protrudes beyond a lower peripheral edge of the hollow body portion; a valve for controlling the flow of water between the inlet tubes and the outlet; and means for selectively and sealingly closing all but one of the inlet tubes .
A process of water removal and/or recycling from sodium sulphate and/or sodium dithionate containing liquors derived from processing cobalt resource material essentially free of lithium, comprising the steps of: a. precipitation of cobalt as cobaltous carbonate in whole or in part followed by its removal in whole or in part from the liquor by centrifugation or filtration; b. crystallization of sodium sulphate and sodium dithionate to separate the majority of sodium sulphate and sodium dithionate from solution; c. removal of sodium sulphate and sodium dithionate crystals; d. heating of sodium sulphate and sodium dithionate crystals to form anhydrous sodium sulphate, sulphur dioxide and water in the form of steam; and e. separation of anhydrous sodium sulphate. a. precipitation of cobalt as cobaltous carbonate in whole or in part followed by its removal in whole or in part from the liquor by centrifugation or filtration; b. crystallization of sodium sulphate and sodium dithionate to separate the majority of sodium sulphate and sodium dithionate from solution; c. removal of sodium sulphate and sodium dithionate crystals; d. heating of sodium sulphate and sodium dithionate crystals to form anhydrous sodium sulphate, sulphur dioxide and water in the form of steam; and e. separation of anhydrous sodium sulphate.
A foam control agent comprising a linear polyorganosiloxane-polyoxyalkylene block copolymer comprising a single block of polyorganosiloxane having a DP of from 10 to 200 and a single block polyoxyalkylene block having a DP of from 2 to 60.
Refrigeration appliance , in particular household refrigeration appliance, having: a refrigerated goods container for receiving refrigerated goods, which has a drain opening for draining water (W) out of the refrigerated goods container ; a drain pipe connected to the drain opening of the refrigerated goods container for conducting the water (W) out of the refrigerated goods container , wherein at least one locking structure is embodied on an inner surface of the drain pipe which defines a line cross-section, said locking structure projecting from the inner surface ; and a drain closure with a closure body inserted into the drain pipe through the drain opening of the refrigerated goods container , characterised in that the drain opening is surrounded by an overflow edge (K) and the closure body has water guiding grooves on an external peripheral surface, which extend as elongated grooves from a first end of the closure body in the direction of a second end of the closure body , a cap arranged on the first end of the closure body which projects laterally beyond the overflow edge (K) and has a peripheral projection arranged so as to overlap with the overflow edge (K) and a groove embodied in the region of the second end of the closure body , into which the locking structure of the drain pipe engages.
A poly(phenylene ether) composition comprising 3 to 70 weight percent of a poly(phenylene ether)-poly(siloxane) block copolymer reaction product comprising a poly(phenylene ether)-poly(siloxane) block copolymer and a poly(phenylene ether); 0 to 70 weight percent of a second poly(phenylene ether); 5 to 20 weight percent of an organophosphate ester; 3 to 15 weight percent of a reinforcing filler comprising glass fibers; an impact modifier selected from 15 to 30 weight percent of a high impact polystyrene; or 3 to 10 weight percent of a hydrogenated block copolymer of an alkenyl aromatic and a conjugated diene; or a combination thereof; and optionally, 1 to 5 weight percent of titanium dioxide; or 1 to 5 weight percent of hydroxyl apatite; or a combination thereof; provided that when the poly(phenylene ether)-poly(siloxane) block copolymer reaction product is present in an amount of 30 weight percent or more, the impact modifier is 15 to 30 weight percent of high impact polystyrene; and provided that when the impact modifier comprises the hydrogenated block copolymer, the poly(phenylene ether) composition comprises the titanium dioxide, the hydroxyl apatite, or the combination thereof; wherein weight percent of each component is based on the total weight of the poly(phenylene ether) composition. 3 to 70 weight percent of a poly(phenylene ether)-poly(siloxane) block copolymer reaction product comprising a poly(phenylene ether)-poly(siloxane) block copolymer and a poly(phenylene ether); 0 to 70 weight percent of a second poly(phenylene ether); 5 to 20 weight percent of an organophosphate ester; 3 to 15 weight percent of a reinforcing filler comprising glass fibers; an impact modifier selected from 15 to 30 weight percent of a high impact polystyrene; or 3 to 10 weight percent of a hydrogenated block copolymer of an alkenyl aromatic and a conjugated diene; or a combination thereof; and 15 to 30 weight percent of a high impact polystyrene; or 3 to 10 weight percent of a hydrogenated block copolymer of an alkenyl aromatic and a conjugated diene; or a combination thereof; and optionally, 1 to 5 weight percent of titanium dioxide; or 1 to 5 weight percent of hydroxyl apatite; or a combination thereof; 1 to 5 weight percent of titanium dioxide; or 1 to 5 weight percent of hydroxyl apatite; or a combination thereof; provided that when the poly(phenylene ether)-poly(siloxane) block copolymer reaction product is present in an amount of 30 weight percent or more, the impact modifier is 15 to 30 weight percent of high impact polystyrene; and provided that when the impact modifier comprises the hydrogenated block copolymer, the poly(phenylene ether) composition comprises the titanium dioxide, the hydroxyl apatite, or the combination thereof; wherein weight percent of each component is based on the total weight of the poly(phenylene ether) composition.
System, comprising an overhead line system for the electrical supply of the travel drive of one or more construction machines for the transport of unit load and bulk load, which comprises at least one pair of lines which extend in parallel along the driving route and carry current of opposite polarity, and the system further comprising a construction machine, which comprises trolleys , wherein the trolleys electrically contact the line , characterized in that each line each line is equipped at the end side with at least one guide aid , which forms a supply channel, for accommodating and guiding the head of the trolleys , wherein the supply channel converges in the direction of the associated line, and in that both current collectors are actively movable in the vertical and horizontal directions.
A method in a user equipment, UE, for channel sounding in a frequency division duplex wireless system, the method comprising: receiving, at the UE , a schedule for channel sounding from a transmission point, TP, the schedule identifying a transmission window for UL sounding, the transmission window being determined according to a transmission mode of at least one of a plurality of wireless devices in a coverage area of the TP; and transmitting a UL sounding signal in a downlink, DL, frequency band in the transmission window according to the schedule . receiving, at the UE , a schedule for channel sounding from a transmission point, TP, the schedule identifying a transmission window for UL sounding, the transmission window being determined according to a transmission mode of at least one of a plurality of wireless devices in a coverage area of the TP; and transmitting a UL sounding signal in a downlink, DL, frequency band in the transmission window according to the schedule .
A method of manufacturing an article selected from the group consisting of: thermal insulation materials; mineral wool insulation; wood boards; fiberboards; wood particle boards; chip boards; oriented strand board; medium density fiberboards; high pressure laminates; non-woven materials comprising fibers selected from the group consisting of mineral fibers, slag wool fibers, rock wool fibers, glass fibers, aramid fibers, ceramic fibers, metal fibers, carbon fibers, polyimide fibers, polyester fibers and rayon fibers; the article comprising a collection of matter bound by a polymeric binder, the method comprising the steps: (i) providing the collection of matter, (ii) applying a solution or dispersion of a binder composition to the collection of matter (iii) applying heat to the collection of matter containing said solution or dispersion to cure the binder composition to form the article, characterized in that the binder composition comprises a polymeric product of at least one reducing sugar and at least one amine component, wherein the at least one amine component comprises a branched polyethyleneimine having an average molecular weight in the range of 5000 to 900 000 g/mol, more preferably in the range of 25 000 to 800 000 g/mol. thermal insulation materials; mineral wool insulation; wood boards; fiberboards; wood particle boards; chip boards; oriented strand board; medium density fiberboards; high pressure laminates; non-woven materials comprising fibers selected from the group consisting of mineral fibers, slag wool fibers, rock wool fibers, glass fibers, aramid fibers, ceramic fibers, metal fibers, carbon fibers, polyimide fibers, polyester fibers and rayon fibers; the article comprising a collection of matter bound by a polymeric binder, the method comprising the steps: (i) providing the collection of matter, (ii) applying a solution or dispersion of a binder composition to the collection of matter (iii) applying heat to the collection of matter containing said solution or dispersion to cure the binder composition to form the article, (i) providing the collection of matter, (ii) applying a solution or dispersion of a binder composition to the collection of matter (iii) applying heat to the collection of matter containing said solution or dispersion to cure the binder composition to form the article, characterized in that the binder composition comprises a polymeric product of at least one reducing sugar and at least one amine component, wherein the at least one amine component comprises a branched polyethyleneimine having an average molecular weight in the range of 5000 to 900 000 g/mol, more preferably in the range of 25 000 to 800 000 g/mol.
A delivery system for implantation of a prosthetic heart valve into a native annulus, the prosthetic heart valve comprising a stent lattice and configured to self-expand to a self-expanded state and forcibly expand from the self-expanded state to a fully expanded state, the delivery system comprising: one or more motors configured to operatively couple to the stent lattice of the prosthetic heart valve when the stent lattice is installed on the delivery system and to expand the stent lattice from the self-expanded state to the fully expanded state; and a memory configured to store a predetermined characteristic curve corresponding to a force required to expand the stent lattice from the self-expanded state to the fully expanded state in an unloaded state outside of a patient's body; wherein the delivery system is configured such that, as the prosthetic valve is expanded within a native annulus of the patient's heart, the delivery apparatus measures a characteristic of the one or more motors corresponding to a force being applied to the stent lattice and compares the measured characteristic to the predetermined characteristic curve, wherein deviation from the predetermined characteristic curve indicates that the prosthetic heart valve is in contact with the native annulus. one or more motors configured to operatively couple to the stent lattice of the prosthetic heart valve when the stent lattice is installed on the delivery system and to expand the stent lattice from the self-expanded state to the fully expanded state; and a memory configured to store a predetermined characteristic curve corresponding to a force required to expand the stent lattice from the self-expanded state to the fully expanded state in an unloaded state outside of a patient's body; wherein the delivery system is configured such that, as the prosthetic valve is expanded within a native annulus of the patient's heart, the delivery apparatus measures a characteristic of the one or more motors corresponding to a force being applied to the stent lattice and compares the measured characteristic to the predetermined characteristic curve, wherein deviation from the predetermined characteristic curve indicates that the prosthetic heart valve is in contact with the native annulus.
Method for manufacturing a prosthetic porous knit comprising an arrangement of yarns of biocompatible material defining at least two faces for said knit, said knit being provided, on each of its faces, with barbs protruding outwards from said face, said method comprising the steps of: - i) providing a warp knitting machine comprising one needle-bed comprising four guide-bars, namely guide-bar B1, guide-bar B2, guide-bar B3 and guide-bar B4, ii) knitting on said machine yarns of biocompatible material as follows : - Guide-bar B1 is either unthreaded or threaded with yarns of biocompatible material in which case the knitting pattern followed by guide bar B1 involves at least two needles, - Guide-bars B2 and B3 are threaded with yarns of biocompatible material, the knitting patterns followed by guide-bars B2 and B3 involving at least two needles and producing said arrangement of yarns defining said two faces of said knit, - Guide-bar B4 is threaded with a hot-melt monofilament yarn of biocompatible material, said method being characterized in that in step ii), the knitting pattern followed by guide-bar B4 makes stitches (101. 102) generating loops protruding outwards from each of the faces of said knit, and in that it further comprises the following steps : iii) heat-setting the knit obtained at ii), iv) forming barbs by melting the loops. - i) providing a warp knitting machine comprising one needle-bed comprising four guide-bars, namely guide-bar B1, guide-bar B2, guide-bar B3 and guide-bar B4, ii) knitting on said machine yarns of biocompatible material as follows : i) providing a warp knitting machine comprising one needle-bed comprising four guide-bars, namely guide-bar B1, guide-bar B2, guide-bar B3 and guide-bar B4, ii) knitting on said machine yarns of biocompatible material as follows : - Guide-bar B1 is either unthreaded or threaded with yarns of biocompatible material in which case the knitting pattern followed by guide bar B1 involves at least two needles, - Guide-bars B2 and B3 are threaded with yarns of biocompatible material, the knitting patterns followed by guide-bars B2 and B3 involving at least two needles and producing said arrangement of yarns defining said two faces of said knit, - Guide-bar B4 is threaded with a hot-melt monofilament yarn of biocompatible material, said method being characterized in that in step ii), the knitting pattern followed by guide-bar B4 makes stitches (101. 102) generating loops protruding outwards from each of the faces of said knit, and in that it further comprises the following steps : iii) heat-setting the knit obtained at ii), iv) forming barbs by melting the loops. iii) heat-setting the knit obtained at ii), iv) forming barbs by melting the loops.