mhurhangee/ep-ind-claims huggingface dataset:
A heat exchanger comprising: a plurality of fin members formed as corrugated fins by folding a sheet material into a corrugated shape, wherein curved sections formed due to the folding are press-deformed into a recessed shape to form engagement sections; and a meanderingly shaped pipe member including a plurality of straight pipe sections arranged in parallels with the fin members in-between, the straight pipe sections being connected by U-shaped return bends; characterized that in a state in which the straight pipe sections are engaged with the engagement recesses of the fin members, an outer diameter of the pipe member is in the range of 8 mm to 12 mm, and a facing distance between curved top sections that project farthest outward of the curved sections of neighbouring fin members is in the range of 0.5 mm to 5.0 mm, while a height of protrusion of the fin members from a surface of the straight pipe sections is less than or equal to 11 mm and satisfies, within said range of 0.5 mm to 5.0 mm for the facing distance, formula y ≧ 2.46 x -0.29 (y: height of protrusion of the fin members from the surface of the pipe member facing distance between the curved top sections, x: facing distance between the curved top sections). a plurality of fin members formed as corrugated fins by folding a sheet material into a corrugated shape, wherein curved sections formed due to the folding are press-deformed into a recessed shape to form engagement sections; and a meanderingly shaped pipe member including a plurality of straight pipe sections arranged in parallels with the fin members in-between, the straight pipe sections being connected by U-shaped return bends; characterized that in a state in which the straight pipe sections are engaged with the engagement recesses of the fin members, an outer diameter of the pipe member is in the range of 8 mm to 12 mm, and a facing distance between curved top sections that project farthest outward of the curved sections of neighbouring fin members is in the range of 0.5 mm to 5.0 mm, while a height of protrusion of the fin members from a surface of the straight pipe sections is less than or equal to 11 mm and satisfies, within said range of 0.5 mm to 5.0 mm for the facing distance, formula y ≧ 2.46 x -0.29 (y: height of protrusion of the fin members from the surface of the pipe member facing distance between the curved top sections, x: facing distance between the curved top sections).
An active principle, suitable for cosmetic use in a cosmetic composition for improving and/or reinforcing the barrier function of the skin, characterised in that it comprises an extract issuing from Ophiopogon japonicus obtainable by a method comprising at least an enzymatic hydrolysis of carbohydrates step, said extract comprising at least 60% fructosans by total weight of dry matter.
A computer-readable storage medium storing a process control program that causes a computer, coupled to a plurality of communication devices (102, 103) and one or more information processing devices (106, 107), to execute a control process comprising: receiving data from each of the plurality of communication devices that are grouped into one or more groups and transmit respective collected data; requesting a corresponding information processing device (106, 107) to process the received data; calculating an index value of a load for data received from communication devices belonging to a specific group among the one or more groups, and when the calculated index value reaches a prescribed reference, requesting the communication devices belonging to the specific group to execute in advance a process executable by each communication device belonging to the specific group, out of processes (APL2, APL3) to be executed by the corresponding information processing device (106, 107) that is to be requested to process the data received from the communication devices belonging to the specific group and to transmit the data thus processed in association with information indicating that the data has already been processed to the computer. receiving data from each of the plurality of communication devices that are grouped into one or more groups and transmit respective collected data; requesting a corresponding information processing device (106, 107) to process the received data; calculating an index value of a load for data received from communication devices belonging to a specific group among the one or more groups, and when the calculated index value reaches a prescribed reference, requesting the communication devices belonging to the specific group to execute in advance a process executable by each communication device belonging to the specific group, out of processes (APL2, APL3) to be executed by the corresponding information processing device (106, 107) that is to be requested to process the data received from the communication devices belonging to the specific group and to transmit the data thus processed in association with information indicating that the data has already been processed to the computer.
A manufacturing method of a PCB board, comprising: cutting, to obtain a glass substrate layer of a preset size; arranging a conductive wiring layer on a top surface of the glass substrate layer, wherein the conductive wiring layer is a silver paste wiring layer printed by silver paste; coating a non-transparent ink material layer on a bottom surface of the glass substrate layer; heating the glass substrate layer such that the glass substrate layer is uniformly heated to a preset temperature; cooling the heated glass substrate layer by adopting a preset cooling manner, to temper and fuse the non-transparent ink material layer and the silver paste wiring with the glass substrate layer; coating a white reflective ink material layer on the conductive wiring layer, and preserving a preset position clear of coating for pre-installing an electronic component; and curing processing the white reflective ink material layer. cutting, to obtain a glass substrate layer of a preset size; arranging a conductive wiring layer on a top surface of the glass substrate layer, wherein the conductive wiring layer is a silver paste wiring layer printed by silver paste; coating a non-transparent ink material layer on a bottom surface of the glass substrate layer; heating the glass substrate layer such that the glass substrate layer is uniformly heated to a preset temperature; cooling the heated glass substrate layer by adopting a preset cooling manner, to temper and fuse the non-transparent ink material layer and the silver paste wiring with the glass substrate layer; coating a white reflective ink material layer on the conductive wiring layer, and preserving a preset position clear of coating for pre-installing an electronic component; and curing processing the white reflective ink material layer.
A cosmetic composition, and preferably a skin cosmetic composition, comprising: (a) at least one polyion complex particle, comprising at least one cationic polymer and at least one amphoteric polymer, at least one anionic polymer and at least one amphoteric polymer, or at least one amphoteric polymer, and at least one non-polymeric acid having two or more pKa values or salt(s) thereof; and (b) at least one physiologically acceptable volatile medium, wherein the non-polymeric acid having two or more pKa values or salt(s) thereof is selected from the group consisting of terephthalylidene dicamphor sulfonic acid, phytic acid, salts thereof, and a mixture thereof, and the non-polymeric acid having two or more pKa values or salt(s) thereof crosslinks the cationic polymer, the anionic polymer and the amphoteric polymer. (a) at least one polyion complex particle, comprising at least one cationic polymer and at least one amphoteric polymer, at least one anionic polymer and at least one amphoteric polymer, or at least one amphoteric polymer, and at least one non-polymeric acid having two or more pKa values or salt(s) thereof; and at least one cationic polymer and at least one amphoteric polymer, at least one anionic polymer and at least one amphoteric polymer, or at least one amphoteric polymer, and at least one non-polymeric acid having two or more pKa values or salt(s) thereof; and (b) at least one physiologically acceptable volatile medium, the non-polymeric acid having two or more pKa values or salt(s) thereof is selected from the group consisting of terephthalylidene dicamphor sulfonic acid, phytic acid, salts thereof, and a mixture thereof, and the non-polymeric acid having two or more pKa values or salt(s) thereof crosslinks the cationic polymer, the anionic polymer and the amphoteric polymer.
A device for supplying a gaseous fuel and additive products in a gas system for motor vehicles, the device comprising a supply pipe for the gas system comprising a supply conduit extending from an inlet opening of the gaseous fuel to an outlet opening of the gaseous fuel mixed with a dose of additive product of the supply pipe; the device being characterised in that it comprises inserting means configurated for inserting a dose of additive product in the supply conduit of the gaseous fuel; the inserting means being configurated for being at least partly insertable in the supply conduit so as to release the dose of additive product and being configurated to be extractable from the supply conduit when the dose of additive product being finished; the inserting means comprising a compartment for housing at least one capsule, preferably disposable, containing the above-mentioned dose of additive product; the inserting means comprising means for extracting the dose of additive product from the above-mentioned capsule and at least a failure element for a respective portion of the capsule defining an inlet conduit of the dose of additive product in the supply conduit.
A method comprising: receiving, by a controller (30, 200) that manages a plurality of network devices in a network, a request to establish a segment routed Label Switched Path, LSP, that extends from an ingress network device of the plurality of network devices to an egress network device of the plurality of network devices; determining, by the controller, that a first network device of the plurality of network devices between the ingress network device and the egress network device, and along a path selected for the segment routed LSP is not enabled for segment routing; in response to determining that the first network device is not enabled for segment routing, establishing, by the controller, a resource reservation LSP from a second network device to a third network device, wherein the first network device is positioned in between the second network device and the third network device along the path selected for the segment routed LSP; and sending, by the controller and to the ingress network device, a provisioning request to provision the segment routed LSP receiving, by a controller (30, 200) that manages a plurality of network devices in a network, a request to establish a segment routed Label Switched Path, LSP, that extends from an ingress network device of the plurality of network devices to an egress network device of the plurality of network devices; determining, by the controller, that a first network device of the plurality of network devices between the ingress network device and the egress network device, and along a path selected for the segment routed LSP is not enabled for segment routing; in response to determining that the first network device is not enabled for segment routing, establishing, by the controller, a resource reservation LSP from a second network device to a third network device, wherein the first network device is positioned in between the second network device and the third network device along the path selected for the segment routed LSP; and sending, by the controller and to the ingress network device, a provisioning request to provision the segment routed LSP
Method for varying a diameter of a nanopore contained in a functionalised radio-grafted track-etched membrane (3,17), said nanopore being radio-grafted with a pH dependent polyelectrolyte said method comprising the steps of: - placing the functionalised radio-grafted track-etched membrane in an aqueous solvent solution, said functionalised radio-grafted track-etched membrane comprising a surface electrode realized on at least one side, said surface electrode comprising an aperture so that the nanopore remains open, - placing another electrode in the solution, next to, contactless, the functionalised radio-grafted track-etched membrane, - applying a variable potential difference in the solution by using the two electrodes, the effective diameter of the nanopore varying as the hydrophobicity of the polyelectrolyte changes as a function of the potential difference, the hydrophobicity being changed by a pH-change due to the electrolysis of water. - placing the functionalised radio-grafted track-etched membrane in an aqueous solvent solution, said functionalised radio-grafted track-etched membrane comprising a surface electrode realized on at least one side, said surface electrode comprising an aperture so that the nanopore remains open, - placing another electrode in the solution, next to, contactless, the functionalised radio-grafted track-etched membrane, - applying a variable potential difference in the solution by using the two electrodes, the effective diameter of the nanopore varying as the hydrophobicity of the polyelectrolyte changes as a function of the potential difference, the hydrophobicity being changed by a pH-change due to the electrolysis of water.
A method of determining in a sample an amount of a first isomeric analyte and a second isomeric analyte, the method comprising: (a) measuring a total amount of the first isomeric analyte and the second isomeric analyte by conducting an assay on a portion of the sample using a first antibody having a binding affinity for each of the first isomeric analyte and the second isomeric analyte of at least 10 7 liters/mole to obtain a first measurement value; (b) measuring an amount of the second isomeric analyte by conducting the assay on a portion of the sample using the first antibody to obtain a second measurement value, wherein a second antibody that has a binding affinity for the first isomeric analyte of 10 6 to 10 8 liters/mole and a binding affinity for the second isomeric analyte of less than 10 4 liters/mole is employed in excess to block binding of the first isomeric analyte to the first antibody; and (c) equating the second measurement value to an amount of the second isomeric analyte in the sample and subtracting the second measurement value from the first measurement value to obtain a resulting value and equating the resulting value to an amount of the first isomeric analyte in the sample, wherein the two isomeric analytes are 25-hydroxy vitamin D 3 and 3-epi 25-hydroxy vitamin D 3. (a) measuring a total amount of the first isomeric analyte and the second isomeric analyte by conducting an assay on a portion of the sample using a first antibody having a binding affinity for each of the first isomeric analyte and the second isomeric analyte of at least 10 7 liters/mole to obtain a first measurement value; (b) measuring an amount of the second isomeric analyte by conducting the assay on a portion of the sample using the first antibody to obtain a second measurement value, wherein a second antibody that has a binding affinity for the first isomeric analyte of 10 6 to 10 8 liters/mole and a binding affinity for the second isomeric analyte of less than 10 4 liters/mole is employed in excess to block binding of the first isomeric analyte to the first antibody; and (c) equating the second measurement value to an amount of the second isomeric analyte in the sample and subtracting the second measurement value from the first measurement value to obtain a resulting value and equating the resulting value to an amount of the first isomeric analyte in the sample,
A method for operating a measuring system having a level sensor with at least one measuring electrode which defines a level threshold on a container wall of a container, having the following steps: - Measuring a first capacitance value (C 1) of a capacitance of the at least one measuring electrode with respect to a reference potential at a first measuring frequency; - Measuring a second capacitance value (C 2) of a capacitance of the at least one measuring electrode with respect to a reference potential at a second measuring frequency, the second measuring frequency being higher than the first measuring frequency, characterized in that - signaling an adhesion to the container wall in the region of the at least one measuring electrode as a function of the first and the second capacitance value (C 1, C 2) and a second capacitance threshold value (C S2) which depends on the first or on the second capacitance value (C 1, C 2) if the second capacitance value (C 2) is lower than the second capacitance threshold value (C S2) and if the first capacitance value (C 1) is higher than a first predetermined capacitance threshold value (C S1); wherein the second capacitance threshold value (C S2) corresponds to a predetermined proportion of the first capacitance value (C 1), in particular to a product of the first capacitance value (C 1) with a factor smaller than 1, in particular with a factor between 0.5 and 1. - Measuring a first capacitance value (C 1) of a capacitance of the at least one measuring electrode with respect to a reference potential at a first measuring frequency; - Measuring a second capacitance value (C 2) of a capacitance of the at least one measuring electrode with respect to a reference potential at a second measuring frequency, the second measuring frequency being higher than the first measuring frequency, - signaling an adhesion to the container wall in the region of the at least one measuring electrode as a function of the first and the second capacitance value (C 1, C 2) and a second capacitance threshold value (C S2) which depends on the first or on the second capacitance value (C 1, C 2) if the second capacitance value (C 2) is lower than the second capacitance threshold value (C S2) and if the first capacitance value (C 1) is higher than a first predetermined capacitance threshold value (C S1); wherein the second capacitance threshold value (C S2) corresponds to a predetermined proportion of the first capacitance value (C 1), in particular to a product of the first capacitance value (C 1) with a factor smaller than 1, in particular with a factor between 0.5 and 1.
Sealing and mounting tape (100, 100a, 100b) for setting a built-in object to at least one connecting wall or at least one connection floor, the sealing and mounting tape (100, 100a, 100b) comprising a carrier foil (4, 4a, 4b) with a lower portion (6, 6a, 6b) and a first adhesive surface (11, 11a, 11b) arranged thereon on the side towards the built-in object, for an approximately vertical surface of the built-in object, and with an upper region (5, 5a, 5b), as well as a second adhesive surface (8, 8a, 8b) mounted on side of the connection wall for the at least one connection wall or the at least one connection floor, characterized in that the second adhesive surface (8, 8a) on the side towards the connection wall is arranged on an extension sealing strip (7, 7a, 7b) and the extension sealing strip (7, 7a, 7b) is glued to the upper portion (5, 5a, 5b) of the carrier foil (4, 4a, 4b) in an over- or underlapping manner or is welded with it.
A production method of an electrode (1, 2) for all-solid-state batteries, the electrode (1, 2) having an electrode mixture layer (1b, 2b) containing active material particles and solid electrolyte particles, the solid electrolyte particles including a first group of particles having an average particle diameter d1, and a second group of particles having an average particle diameter d2, the method comprising: a first mixing step of dry-mixing the active material particles and the first group of particles, to obtain a mixture A; a second mixing step of dry-mixing the mixture A and the second group of particles, to obtain a mixture B; and a pressing step of pressing the mixture B to form the electrode mixture layer, wherein a ratio of the average particle diameter d2 to the average particle diameter d1: d2/d1 satisfies d2/d1≥1.5, wherein the average particle diameter d1, and the average particle diameter d2 each refer to a median diameter (D 50) in a volumetric particle-size distribution measured using a laser diffraction particle size analyzer. the electrode (1, 2) having an electrode mixture layer (1b, 2b) containing active material particles and solid electrolyte particles, the solid electrolyte particles including a first group of particles having an average particle diameter d1, and a second group of particles having an average particle diameter d2, the method comprising: a first mixing step of dry-mixing the active material particles and the first group of particles, to obtain a mixture A; a second mixing step of dry-mixing the mixture A and the second group of particles, to obtain a mixture B; and a pressing step of pressing the mixture B to form the electrode mixture layer, wherein a ratio of the average particle diameter d2 to the average particle diameter d1: d2/d1 satisfies d2/d1≥1.5, wherein the average particle diameter d1, and the average particle diameter d2 each refer to a median diameter (D 50) in a volumetric particle-size distribution measured using a laser diffraction particle size analyzer. a first mixing step of dry-mixing the active material particles and the first group of particles, to obtain a mixture A; a second mixing step of dry-mixing the mixture A and the second group of particles, to obtain a mixture B; and a pressing step of pressing the mixture B to form the electrode mixture layer, wherein a ratio of the average particle diameter d2 to the average particle diameter d1: d2/d1 satisfies d2/d1≥1.5, wherein the average particle diameter d1, and the average particle diameter d2 each refer to a median diameter (D 50) in a volumetric particle-size distribution measured using a laser diffraction particle size analyzer.