mhurhangee/ep-ind-claims huggingface dataset:
Disposable absorbent article in the form of pants, consisting of a front part, a rear part and a crotch part arranged between these parts, wherein the front part and the rear part are provided with elastic elements which, during use of the article, go around the waist and the hips of the wearer, are connected to one another with the aid of lateral weld seams and form openings for the waist and for the legs of the user, wherein the front part and the rear part of the article additionally have fastening weld seams serving to fix the elastic waist elements and elastic hip elements, characterised in that the fastening weld seams penetrate an outer non-woven material layer of a waist-hip region and penetrate at least partially the waist elements and the hip elements and thus connect the outer non-woven material layer and the elastic elements (9, 10) of the front part and of the rear part to one another so that they do not have any contact with the layer which - in the used state - lies directly against the skin of the user.
A memory device, comprising: a memory cell array configured to store data, a control circuit configured to control the memory cell array in response to a command; an input/output interface including a receiver coupled to a memory controller and configured to be placed in an active state based on an address or an operation result of a command and an operation result of a first external signal and a second external signal received from the memory controller via a control signal input interface, and be enabled to receive a command or data; a command register configured to store a command; an address register configured to store an address, wherein the first external signal is a command latch enable signal for causing the command register to store a command, and the second external signal is an address latch enable signal for causing the address register to store an address, the input/output interface further including at least two operation circuits (101h, 101i) constituting an RS flip-flop circuit configured such that, when a signal from the command register is asserted, the operation circuit outputs an asserted signal, and even if the signal from the command register changes in the state where the output signal of the operation circuit is determined, the output signal of the operation circuit is maintained, enabling the receiver to receive a command or a data. a memory cell array configured to store data, a control circuit configured to control the memory cell array in response to a command; an input/output interface including a receiver coupled to a memory controller and configured to be placed in an active state based on an address or an operation result of a command and an operation result of a first external signal and a second external signal received from the memory controller via a control signal input interface, and be enabled to receive a command or data; a command register configured to store a command; an address register configured to store an address, wherein the first external signal is a command latch enable signal for causing the command register to store a command, and the second external signal is an address latch enable signal for causing the address register to store an address, the input/output interface further including at least two operation circuits (101h, 101i) constituting an RS flip-flop circuit configured such that, when a signal from the command register is asserted, the operation circuit outputs an asserted signal, and even if the signal from the command register changes in the state where the output signal of the operation circuit is determined, the output signal of the operation circuit is maintained, enabling the receiver to receive a command or a data.
A method for realising a ball spreader comprising: a spreading ball of a fluid product, a ball housing, a closing cover, said method comprising the steps of: - realising by moulding said ball housing in a mould which assumes a closed configuration in which two half-moulds (51, 52) are reciprocally neared for defining a first moulding chamber of the ball housing and an open configuration in which the two half-moulds (51, 52) are reciprocally distanced; - positioning said mould in the open configuration and introducing said ball inside the mould positioning the ball on the ball housing inside the mould; - connecting said cover to the ball housing. - realising by moulding said ball housing in a mould which assumes a closed configuration in which two half-moulds (51, 52) are reciprocally neared for defining a first moulding chamber of the ball housing and an open configuration in which the two half-moulds (51, 52) are reciprocally distanced; - positioning said mould in the open configuration and introducing said ball inside the mould positioning the ball on the ball housing inside the mould; - connecting said cover to the ball housing.
A method of determining active concentration of an analyte in a liquid sample, comprising the steps of: (a) contacting a laminar flow of the sample with a solid phase surface or surface area supporting a ligand capable of specifically binding the analyte at at least two different flow rates and under partially or completely mass transport limited conditions; (b) determining the initial binding rate dR/dt of analyte to the ligand at the ligand-supporting surface or surface area, and (c) fitting the initial binding rate data obtained in step (b) to a kinetic interaction model that includes a term for mass transport to obtain the active analyte concentration, wherein steps (a) and (b) are performed at a plurality of different dilutions of the liquid sample, and wherein in step (c) at least several of the plurality of dilutions of the liquid sample are in included in a global fit of initial binding rate data to the kinetic interaction model and wherein the different flow rates in step (a) are obtained by varying the flow rate during a single contacting cycle, and further comprising contacting a laminar flow of the liquid sample with a plurality of solid phase surfaces or surface areas, each surface or surface area having a different ligand density, determining from the initial binding rates the initial binding rate corresponding to transport-limited interaction at the surfaces or surface areas, and from that binding rate determining the active analyte concentration (a) contacting a laminar flow of the sample with a solid phase surface or surface area supporting a ligand capable of specifically binding the analyte at at least two different flow rates and under partially or completely mass transport limited conditions; (b) determining the initial binding rate dR/dt of analyte to the ligand at the ligand-supporting surface or surface area, and (c) fitting the initial binding rate data obtained in step (b) to a kinetic interaction model that includes a term for mass transport to obtain the active analyte concentration, wherein steps (a) and (b) are performed at a plurality of different dilutions of the liquid sample, and wherein in step (c) at least several of the plurality of dilutions of the liquid sample are in included in a global fit of initial binding rate data to the kinetic interaction model and wherein the different flow rates in step (a) are obtained by varying the flow rate during a single contacting cycle, and further comprising contacting a laminar flow of the liquid sample with a plurality of solid phase surfaces or surface areas, each surface or surface area having a different ligand density, determining from the initial binding rates the initial binding rate corresponding to transport-limited interaction at the surfaces or surface areas, and from that binding rate determining the active analyte concentration
A method for processing a plurality of planes extracted from received points based on data collected by an imaging sensor, the method comprising: estimating an area of each plane of the plurality of planes and estimating a number of predicted points calculated from the area and orientation of each plane and based on resolution characteristics of the imaging sensor; generating a list of detected planes that includes the area and the number of predicted points expected to form the plane for each plane of the plurality of planes; filtering the list of detected planes to produce a list of candidates for merger, where filtering the list of detected planes discards any plane not satisfying an actual points received criteria and a primary predicted-points to actual-points ratio criteria; applying a primary merge algorithm to the list of candidates for merger, wherein the primary merge algorithm iteratively produces a list of merged planes by testing hypothetical merged planes against a merging criteria, wherein the hypothetical merged planes each comprise a first plane from the list of merged planes and a second plane from the list of candidates for merger; and outputting a final list of planes based on the output of the primary merge algorithm. estimating an area of each plane of the plurality of planes and estimating a number of predicted points calculated from the area and orientation of each plane and based on resolution characteristics of the imaging sensor; generating a list of detected planes that includes the area and the number of predicted points expected to form the plane for each plane of the plurality of planes; filtering the list of detected planes to produce a list of candidates for merger, where filtering the list of detected planes discards any plane not satisfying an actual points received criteria and a primary predicted-points to actual-points ratio criteria; applying a primary merge algorithm to the list of candidates for merger, wherein the primary merge algorithm iteratively produces a list of merged planes by testing hypothetical merged planes against a merging criteria, wherein the hypothetical merged planes each comprise a first plane from the list of merged planes and a second plane from the list of candidates for merger; and outputting a final list of planes based on the output of the primary merge algorithm.
A method for performing action commands on a mobile terminal, comprising: receiving, by the mobile terminal, user-defined action information from a user; creating, by the mobile terminal, a user-defined action command based on the user-defined action information; sending, by the mobile terminal, the user-defined action command to a two dimensional, 2D, barcode generator to generate a 2D barcode containing a user-defined action command identifier and a call instruction for calling an application program interface, API, corresponding to the user-defined action command, wherein the user-defined action command identifier indicates that the 2D barcode is a 2D action command barcode and indicates content of the user-defined action command; reading, by the mobile terminal, the 2D barcode to obtain 2D barcode information, wherein the 2D barcode information includes at least the user-defined action command identifier and the call instruction for calling the API corresponding to the user-defined action command; calling, by the mobile terminal, the API corresponding to the user-defined action command by using the call instruction; and completing, by the mobile terminal, execution of the user-defined action command corresponding to the user-defined action command identifier. receiving, by the mobile terminal, user-defined action information from a user; creating, by the mobile terminal, a user-defined action command based on the user-defined action information; sending, by the mobile terminal, the user-defined action command to a two dimensional, 2D, barcode generator to generate a 2D barcode containing a user-defined action command identifier and a call instruction for calling an application program interface, API, corresponding to the user-defined action command, wherein the user-defined action command identifier indicates that the 2D barcode is a 2D action command barcode and indicates content of the user-defined action command; reading, by the mobile terminal, the 2D barcode to obtain 2D barcode information, wherein the 2D barcode information includes at least the user-defined action command identifier and the call instruction for calling the API corresponding to the user-defined action command; calling, by the mobile terminal, the API corresponding to the user-defined action command by using the call instruction; and completing, by the mobile terminal, execution of the user-defined action command corresponding to the user-defined action command identifier.
A method for pre-treating ore slurry to be provided to a leaching treatment in a hydrometallurgical process for nickel oxide ore, the method comprising: a separation step for separating ore slurry into a coarse particle fraction in which particles having a particle diameter of less than 45 μm are 30% by mass or less in a solid content and a fine particle fraction and supplying the fine particle fraction to the leaching treatment; and a vibration sieving step for separating, by a vibration sieve, the separated coarse particle fraction into a fraction on the sieve and a fraction under the sieve and supplying the fraction under the sieve as ore slurry to the leaching treatment. a separation step for separating ore slurry into a coarse particle fraction in which particles having a particle diameter of less than 45 μm are 30% by mass or less in a solid content and a fine particle fraction and supplying the fine particle fraction to the leaching treatment; and a vibration sieving step for separating, by a vibration sieve, the separated coarse particle fraction into a fraction on the sieve and a fraction under the sieve and supplying the fraction under the sieve as ore slurry to the leaching treatment.
A device for packaging and dispensing a cosmetic composition comprising: - a housing receiving a cosmetic composition having a hardness (d) greater than or equal to 20g, - at least one metal mesh arranged for the passage of the cosmetic composition through the mesh and having through orifices, the device being configured such that the cosmetic composition undergoes a reduction in its hardness (Δd) greater than 50%, preferably greater than 70%, during the passage of the cosmetic composition through said at least one mesh, the through orifices having a larger dimension comprised between 50 and 475 μm, and wherein the mesh or at least one of the meshes is woven. - a housing receiving a cosmetic composition having a hardness (d) greater than or equal to 20g, - at least one metal mesh arranged for the passage of the cosmetic composition through the mesh and having through orifices, the device being configured such that the cosmetic composition undergoes a reduction in its hardness (Δd) greater than 50%, preferably greater than 70%, during the passage of the cosmetic composition through said at least one mesh, the through orifices having a larger dimension comprised between 50 and 475 μm, and wherein the mesh or at least one of the meshes is woven. the device being configured such that the cosmetic composition undergoes a reduction in its hardness (Δd) greater than 50%, preferably greater than 70%, during the passage of the cosmetic composition through said at least one mesh, the through orifices having a larger dimension comprised between 50 and 475 μm, and wherein the mesh or at least one of the meshes is woven.
A method of flow cytometry comprising the steps of: establishing a fluid stream; entraining particles in said fluid stream; detecting a first signal affiliated with individual particles in said fluid stream; detecting at least one additional signal affiliated with said individual particles; converting said first signal and said at least one additional signal affiliated with said individual particles into n-dimensional parameter data, where n is equal to the number of signals, wherein at least two populations of said individual particles overlap in one of said n-dimensions; mathematically altering the n-dimensional parameter data by at least rotating the n-dimensional parameter data to create a better spatial separation in the dimension that is overlapped; real-time classifying said n-dimensional parameter data of each of said individual particles into one of said at least two populations using said rotated n-dimensional parameter data; and sorting said individual particles based upon said real-time classification. establishing a fluid stream; entraining particles in said fluid stream; detecting a first signal affiliated with individual particles in said fluid stream; detecting at least one additional signal affiliated with said individual particles; converting said first signal and said at least one additional signal affiliated with said individual particles into n-dimensional parameter data, where n is equal to the number of signals, wherein at least two populations of said individual particles overlap in one of said n-dimensions; mathematically altering the n-dimensional parameter data by at least rotating the n-dimensional parameter data to create a better spatial separation in the dimension that is overlapped; real-time classifying said n-dimensional parameter data of each of said individual particles into one of said at least two populations using said rotated n-dimensional parameter data; and sorting said individual particles based upon said real-time classification.
Use of b) a calcium alkylsalicylate detergent in an amount of 0.1 to 1 wt.% in terms of a sulfated ash content, the calcium alkylsalicylate detergent having a sulfur content of not more than 3 wt.% and a total base number in the range of 10 to 350 mg KOH/g, containing an organic acid calcium salt under the condition that the lubricating oil composition contains the organic acid calcium salt in an amount of 0.2 to 7 wt.% based on the amount of the oil composition, and comprising an unsulfurized calcium alkylsalicylate detergent having an alkyl group having 14 to 18 carbon atoms, in a lubricating oil composition for lubricating an internal combustion engine which is operated by the use of a fuel oil having a sulfur content of not more than 0.005 wt.%, to improve high temperature detergency at temperatures of 300°C or greater as determined in accordance with the hot tube test (KES-07-803), wherein the lubricating oil composition comprises the following components a), c) and d), along with b), dissolved or dispersed in a base oil having a sulfur content of not more than 0.1 wt.% and has a sulfated ash content in a range of 0.1 to 1.1 wt.%, a phosphorus content in a range of 0.01 to 0.12 wt.%, a sulfur content in a range of 0.01 to 0.5 wt.% and a chlorine content of not more than 150 ppm: a) an ashless dispersant in an amount of 0.01 to 0.3 wt.% in terms of a nitrogen content, the ashless dispersant being selected from the group consisting of an alkenyl succinimide and an alkyl succinimide; c) a zinc phosphate anti-wear agent in an amount of 0.01 to 0.12 wt.% in terms of a phosphorus content, the zinc phosphate being selected from the group consisting of a zinc dialkyldithiophosphate and a zinc dihydrocarbylphosphate, and d) an oxidation inhibitor in an amount of 0.01 to 5 wt.%, the oxidation inhibitor being selected from the group consisting of an oxidation inhibiting phenol compound and an oxidation inhibiting amine compound, wherein the sulfated ash content, phosphorus content, sulfur content, and the wt.% given in a) to d) above are values based on the amount of the lubricating oil composition. a) an ashless dispersant in an amount of 0.01 to 0.3 wt.% in terms of a nitrogen content, the ashless dispersant being selected from the group consisting of an alkenyl succinimide and an alkyl succinimide; c) a zinc phosphate anti-wear agent in an amount of 0.01 to 0.12 wt.% in terms of a phosphorus content, the zinc phosphate being selected from the group consisting of a zinc dialkyldithiophosphate and a zinc dihydrocarbylphosphate, and d) an oxidation inhibitor in an amount of 0.01 to 5 wt.%, the oxidation inhibitor being selected from the group consisting of an oxidation inhibiting phenol compound and an oxidation inhibiting amine compound,
A reinforcement strip (100, 200, 300, 400, 500) for reinforcement of a hose, said strip comprising multiple steel wires (102, 202, 302, 402, 502) arranged in a single layer, parallel side-by-side configuration, wherein said steel wires are held to one another by means of a hardened adhesive (104, 204, 304, 404, 504), said hardened adhesive being dried or cured out of a waterborne dispersion characterised in that said waterborne dispersion is a watery dispersion, emulsion, or solution of a mixture comprising: - acrylic polymers and copolymers and - elastomeric polymers and copolymers. - acrylic polymers and copolymers and - elastomeric polymers and copolymers.
A system for treating a vessel having an occlusion with a proximal end and a distal end, comprising: at least one coupler adapted to couple to an energy source; a first longitudinal member with a proximal end and a distal end, the distal end of the first longitudinal member including a first conductive electrode and the proximal end of the first longitudinal member being configured to be coupled to the coupler, the first longitudinal member being configured for advancement so that the first conductive electrode is at the proximal end of the occlusion; a second longitudinal member with a proximal end and a distal end, the distal end of the second longitudinal member including a second conductive electrode and the proximal end of the second longitudinal member being configured to be coupled to the coupler, the second longitudinal member being configured for advancement so that the second conductive electrode is at the distal end of the occlusion; at least one of the first longitudinal member and the second longitudinal member including a fluid delivery lumen extending from an injection port at the proximal end of the member to an opening at the distal end of the member, the injection port being adapted to couple to a fluid source for delivering at least one fluid to the occlusion; whereby the first conductive electrode and the second conductive electrode are adapted to receive energy through the at least one coupler from the energy source to provide energy between the electrodes so as to treat the occlusion. at least one coupler adapted to couple to an energy source; a first longitudinal member with a proximal end and a distal end, the distal end of the first longitudinal member including a first conductive electrode and the proximal end of the first longitudinal member being configured to be coupled to the coupler, the first longitudinal member being configured for advancement so that the first conductive electrode is at the proximal end of the occlusion; a second longitudinal member with a proximal end and a distal end, the distal end of the second longitudinal member including a second conductive electrode and the proximal end of the second longitudinal member being configured to be coupled to the coupler, the second longitudinal member being configured for advancement so that the second conductive electrode is at the distal end of the occlusion; at least one of the first longitudinal member and the second longitudinal member including a fluid delivery lumen extending from an injection port at the proximal end of the member to an opening at the distal end of the member, the injection port being adapted to couple to a fluid source for delivering at least one fluid to the occlusion; whereby the first conductive electrode and the second conductive electrode are adapted to receive energy through the at least one coupler from the energy source to provide energy between the electrodes so as to treat the occlusion.