mhurhangee/patent-ind-claim-en huggingface dataset:
An electrode assembly comprising a positive electrode current collector , a positive electrode active material layer , a separator , a negative electrode active material layer and a negative electrode current collector stacked successively, wherein a plurality of through-holes is formed to pass through the positive electrode active material layer , separator and the negative electrode active material layer , the positive electrode current collector comprises a first sheet-like current collector and a plurality of first column-like current collectors extended from the first sheet-like current collector along the thickness direction of the electrode assembly and passing through a part of the through-holes , and the negative electrode current collector comprises a second sheet-like current collector and a plurality of second column-like current collectors extended from the second sheet-like current collector along the thickness direction of the electrode assembly and passing through the remaining through-holes other than the part of the through-holes through which the first column-like current collectors pass, wherein the first column-like current collectors pass through the through-holes formed in the positive electrode active material layer while being in close contact with the inner circumferential surfaces thereof, and the second column-like current collectors pass through the through-holes formed in the negative electrode active material layer while being in close contact with the inner circumferential surfaces thereof, and wherein the first column-like current collectors pass through the through-holes formed in the negative electrode active material layer while being in close contact with the inner circumferential surfaces thereof, the second column-like current collectors pass through the through-holes formed in the positive electrode active material layer while being in close contact with the inner circumferential surfaces thereof, the first column-like current collectors comprises a first insulation layer formed on the surface of the portion where they are in contact with the negative electrode active material layer , and the second column-like current collectors comprises a second insulation layer formed on the surface of the portion where they are in contact with the positive electrode active material layer .
A flat bed embossing machine comprising: - a tool plate with a tool side for receiving at least one embossing tool and with a tool plate rear side which lies opposite the tool side ; - a base plate with a tool plate side which faces the tool plate rear side and with a base plate rear side which lies opposite the tool plate side , for transmitting an embossing force which is exerted upon the tool plate , between the tool plate side and the base plate rear side ; and - a heating appliance for heating the at least one embossing tool , characterised in that the heating appliance is an induction heating appliance with an inductor , wherein the tool plate is inductively heatable, and wherein the inductor is designed and is arranged between the tool plate side and the base plate rear side and is recessed into the base plate such that a magnetic alternating field which at the tool plate side reaches beyond the base plate and which is for the inductive heating of the tool plate can be produced beyond the tool plate side and outside the base plate . - a tool plate with a tool side for receiving at least one embossing tool and with a tool plate rear side which lies opposite the tool side ; - a base plate with a tool plate side which faces the tool plate rear side and with a base plate rear side which lies opposite the tool plate side , for transmitting an embossing force which is exerted upon the tool plate , between the tool plate side and the base plate rear side ; and - a heating appliance for heating the at least one embossing tool ,
A method for post-processing a powder-based additively manufactured part, the method comprising the steps of: providing a powder-based additively manufactured part, the additively manufactured part comprising a material having a melting point, wherein said material is a thermoplastic material; providing a fluid for processing the additively manufactured part in order to improve the surface finish of the additively manufactured part; a heating step, wherein the fluid is heated; and an application step, wherein the heated fluid is applied to a surface of the additively manufactured part, and characterised in that the fluid comprises at least one acetal. providing a powder-based additively manufactured part, the additively manufactured part comprising a material having a melting point, wherein said material is a thermoplastic material; providing a fluid for processing the additively manufactured part in order to improve the surface finish of the additively manufactured part; a heating step, wherein the fluid is heated; and an application step, wherein the heated fluid is applied to a surface of the additively manufactured part, and characterised in that the fluid comprises at least one acetal.
A method of forming a barbed suture , characterised in that : the method comprises the steps of: providing a blown film ; cutting slits into an outer edge of the blown film; and twisting the blown film to form a barbed suture. providing a blown film ; cutting slits into an outer edge of the blown film; and twisting the blown film to form a barbed suture.
A compressed gas storage tank, in particular for a motor vehicle, with a container which is designed to store a compressed fuel, with at least one pressure relief valve , wherein due to opening of the at least one pressure relief valve , fuel is dischargeable from the container into an environment of the compressed gas storage tank , and with a catalytic converter device which is designed to catalyze an oxidation reaction of fuel originating from the container with oxygen, characterized in that the compressed gas storage tank has at least one piezoelectric element to which a pressure can be applied by opening the at least one pressure relief valve , wherein the pressure can cause at least one spark to be generated by means of the at least one piezoelectric element .
A solid dose injection device comprising: i) a casing ; ii) an actuation mechanism capable of generating a force; iii) a blade ; iv) a solid drug formulation ; and v) means for pushing said blade and said solid drug formulation ; wherein the solid dose injection device is suitable to be actuated so that the actuation mechanism capable of generating a force acts on the means for pushing to push the blade from the casing to penetrate the skin of the human or animal body to a predetermined depth wherein, following skin penetration by the blade , the means for pushing continues to push the solid drug formulation out of the casing and into the human or animal body; wherein the solid drug formulation is pushed into the body to a depth that extends beyond the depth of the blade ; and wherein said solid drug formulation comprises a cutting element to facilitate its passage through the skin. i) a casing ; ii) an actuation mechanism capable of generating a force; iii) a blade ; iv) a solid drug formulation ; and v) means for pushing said blade and said solid drug formulation ;
A soil processing roller system for a soil processing machine, comprising: - a roller body rotatable around a roller rotational axis (W) having a carrier structure for rotatable mounting of the roller body and having a carrier jacket supported radially on the outside on the carrier structure with a carrier jacket outer side , characterized in that the carrier jacket outer side does not provide a working outer side to bring into contact with a soil to be processed, and characterized by a group of working jackets (38, 38', 38"), wherein each working jacket (38, 38', 38") of the group of working jackets (38, 38', 38") is to be positioned abutting the carrier jacket outer side of the roller body for providing a soil processing roller , wherein a working outer side (46, 46', 46") of the soil processing roller is provided by a working jacket (38, 38', 38") of the group of working jackets (38, 38', 38") positioned abutting the carrier jacket outer side of the roller body , wherein each working jacket (38, 38', 38") of the group of working jackets (38, 38', 38") comprises a plurality of working jacket segments (40, 40', 40") to be arranged in succession in the circumferential direction completely enclosing the roller body annularly, and wherein the group of working jackets (38, 38', 38") comprises at least two working jackets (38, 38', 38") having essentially equal mass to one another. - a roller body rotatable around a roller rotational axis (W) having a carrier structure for rotatable mounting of the roller body and having a carrier jacket supported radially on the outside on the carrier structure with a carrier jacket outer side ,
Process for producing a gas diffusion layer for a fuel cell, which comprises a) providing a fibre composition which comprises carbon fibres and/or precursors of carbon fibres, b) subjecting the fibre composition provided in step a) to a process for producing a fibre web, c) consolidating the fibre web by exposure to water-containing fluid jets to form a nonwoven, where the water used has a conductivity of at most 250 microsiemens/cm at 25°C, d) optionally subjecting the nonwoven obtained in step c) to a thermal and/or mechanical treatment for drying and/or further consolidation, e) if the fibre composition used in step a) comprises precursors of carbon fibres, subjecting the nonwoven to a pyrolysis at a temperature of at least 1000°C. a) providing a fibre composition which comprises carbon fibres and/or precursors of carbon fibres, b) subjecting the fibre composition provided in step a) to a process for producing a fibre web, c) consolidating the fibre web by exposure to water-containing fluid jets to form a nonwoven, where the water used has a conductivity of at most 250 microsiemens/cm at 25°C, d) optionally subjecting the nonwoven obtained in step c) to a thermal and/or mechanical treatment for drying and/or further consolidation, e) if the fibre composition used in step a) comprises precursors of carbon fibres, subjecting the nonwoven to a pyrolysis at a temperature of at least 1000°C.
A subject monitoring system , comprising a fluid source for a fluid to be administered to a subject; a flow controller associated with the fluid source and configured to vary a fluid administration rate and a volume of the fluid to be administered; a flow probe , which is configured to sense flow-related information related to an administration of the fluid to the subject and to provide flow-related data indicative of a fluid flow rate related to the administration of the fluid to the subject ; a physiological sensor , which is configured to detect and quantify a physiological parameter of the subject and to provide physiological data indicative thereof; a monitor including a processor and a display, for executing an algorithm that includes receiving the physiological data provided by the physiological sensor and correlated flow-related data provided by the flow probe , determining administration-related data indicative of a response of the subject to administered volumes and rates of fluid administration, and based upon the administration-related data, generating and providing via the display a recommendation for a subsequent administration protocol controlling the flow controller, the subsequent administration protocol including an amount or a rate of fluid to be administered to the subject. a fluid source for a fluid to be administered to a subject; a flow controller associated with the fluid source and configured to vary a fluid administration rate and a volume of the fluid to be administered; a flow probe , which is configured to sense flow-related information related to an administration of the fluid to the subject and to provide flow-related data indicative of a fluid flow rate related to the administration of the fluid to the subject ; a physiological sensor , which is configured to detect and quantify a physiological parameter of the subject and to provide physiological data indicative thereof; a monitor including a processor and a display, for executing an algorithm that includes receiving the physiological data provided by the physiological sensor and correlated flow-related data provided by the flow probe , determining administration-related data indicative of a response of the subject to administered volumes and rates of fluid administration, and based upon the administration-related data, generating and providing via the display a recommendation for a subsequent administration protocol controlling the flow controller, the subsequent administration protocol including an amount or a rate of fluid to be administered to the subject.
A reflective photomask blank comprising a substrate a multilayer reflection film that is formed on the substrate and reflects exposure light being light in extreme ultraviolet range, a protection film that is formed on the multilayer reflection film to protect the multilayer reflection film, a light-absorbing film that is formed on the protection film and absorbs the exposure light, and a hard mask film that is formed on and in contact with the light-absorbing film and functions as a hard mask in pattering the light-absorbing film by dry etching, wherein the hard mask film is constituted by a multilayer comprising a first layer and a second layer , the first layer is disposed at the side remotest from the substrate, the first layer is composed of a material that is resistant to chlorine-based dry etching, and removable by fluorine-based dry etching, the second layer is composed of a material that is resistant to fluorine-based dry etching, and removable by chlorine-based dry etching, and an etching clear time of the light-absorbing film on fluorine-based dry etching under one condition is longer than an etching clear time of the first layer of the hard mask film on the fluorine-based dry etching under the same condition. a substrate a multilayer reflection film that is formed on the substrate and reflects exposure light being light in extreme ultraviolet range, a protection film that is formed on the multilayer reflection film to protect the multilayer reflection film, a light-absorbing film that is formed on the protection film and absorbs the exposure light, and a hard mask film that is formed on and in contact with the light-absorbing film and functions as a hard mask in pattering the light-absorbing film by dry etching, wherein the hard mask film is constituted by a multilayer comprising a first layer and a second layer , the first layer is disposed at the side remotest from the substrate, the first layer is composed of a material that is resistant to chlorine-based dry etching, and removable by fluorine-based dry etching, the second layer is composed of a material that is resistant to fluorine-based dry etching, and removable by chlorine-based dry etching, and an etching clear time of the light-absorbing film on fluorine-based dry etching under one condition is longer than an etching clear time of the first layer of the hard mask film on the fluorine-based dry etching under the same condition. the hard mask film is constituted by a multilayer comprising a first layer and a second layer , the first layer is disposed at the side remotest from the substrate, the first layer is composed of a material that is resistant to chlorine-based dry etching, and removable by fluorine-based dry etching, the second layer is composed of a material that is resistant to fluorine-based dry etching, and removable by chlorine-based dry etching, and an etching clear time of the light-absorbing film on fluorine-based dry etching under one condition is longer than an etching clear time of the first layer of the hard mask film on the fluorine-based dry etching under the same condition.
A sliding element , comprising:- a first sliding element component for sliding engagement with a rotatable component; and a second sliding element component for sliding engagement with the rotatable component; wherein the first sliding element component is coupled to the second sliding element component by an adhesive ; characterised in that the adhesive is a flexible adhesive comprising, in a cured state, an elongation at break of between about 100 percent and about 500 percent. a first sliding element component for sliding engagement with a rotatable component; and a second sliding element component for sliding engagement with the rotatable component; wherein the first sliding element component is coupled to the second sliding element component by an adhesive ; characterised in that the adhesive is a flexible adhesive comprising, in a cured state, an elongation at break of between about 100 percent and about 500 percent.
A fragmenting apparatus for crushing a whole stone slab comprising a hammer rotor in turn comprising a rotatable inner shaft and at least two outer axles , wherein the outer axles are i) connected and parallel to the inner shaft and thereby being jointly rotatable with the inner shaft and are ii) provided at a respective radius from the inner shaft, wherein the hammer rotor further comprises a plurality of hammers which are coupled to an outer axle, the hammers further being freely rotatable around a respective outer axle, the fragmenting apparatus comprising a housing, an inlet and an outlet , the hammer rotor being so provided in the housing that i) a stone slab provided through the inlet is crushed by a rotation movement of the hammers of the hammer rotor and ii) crushed bits resulting from the crushing of the stone slab leave the housing through the outlet, and characterized in that the inlet is provided substantially perpendicularly to the outlet, the inlet being arranged horizontally.
A phosphor comprising a crystal phase having a chemical composition Ce x M 3-x-y β 6 γ 11-z , where M is one or more elements selected from the group consisting of Sc, Y, La, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, and Lu; β consists of Si and one or two elements selected from the group consisting of Al and Ga, wherein an amount of Si is 50 mol% or more of a total mol of β; y consists of N and O, or N only, wherein an amount of N is 80 mol% or more of a total mol of y; 0 < x ≤ 0.6 ; 0 ≤ y ≤ 1.0 ; and 0 ≤ z ≤ 1.0 , wherein the phosphor has: a maximum peak of an emission spectrum in a wavelength range of 600 nm or more and 800 nm or less; and a first peak of an excitation spectrum in a wavelength range of 500 nm or more and 600 nm or less. M is one or more elements selected from the group consisting of Sc, Y, La, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, and Lu; β consists of Si and one or two elements selected from the group consisting of Al and Ga, wherein an amount of Si is 50 mol% or more of a total mol of β; y consists of N and O, or N only, wherein an amount of N is 80 mol% or more of a total mol of y; 0 < x ≤ 0.6 ; 0 ≤ y ≤ 1.0 ; and 0 ≤ z ≤ 1.0 , wherein the phosphor has: a maximum peak of an emission spectrum in a wavelength range of 600 nm or more and 800 nm or less; and a first peak of an excitation spectrum in a wavelength range of 500 nm or more and 600 nm or less. a maximum peak of an emission spectrum in a wavelength range of 600 nm or more and 800 nm or less; and a first peak of an excitation spectrum in a wavelength range of 500 nm or more and 600 nm or less.
A flatbed scanner , comprising: - a scanner body accommodating: a frame comprising opposite frame elements each with an upwardly facing face ; a transparent plate , for supporting a large format document ; wherein the transparent plate overlies the upwardly facing plane face of the frame ; and a movable carriage configured to move below the transparent plate and carrying a line camera extending across the transparent plate ; CHARACTERIZED in that the transparent plate is bonded to the frame elements by a glue seam that runs on upwardly facing faces of the frame elements and forms a rigid bond between the transparent plate and the frame ; wherein at least a pair of opposite frame elements (504;503;505) are configured with torsion about a longitudinal axis of a respective frame element causing a twist of the frame elements which is balanced by the rigid bond between the transparent plate and the frame . - a scanner body accommodating: a frame comprising opposite frame elements each with an upwardly facing face ; a transparent plate , for supporting a large format document ; wherein the transparent plate overlies the upwardly facing plane face of the frame ; and a movable carriage configured to move below the transparent plate and carrying a line camera extending across the transparent plate ; CHARACTERIZED in that the transparent plate is bonded to the frame elements by a glue seam that runs on upwardly facing faces of the frame elements and forms a rigid bond between the transparent plate and the frame ; wherein at least a pair of opposite frame elements (504;503;505) are configured with torsion about a longitudinal axis of a respective frame element causing a twist of the frame elements which is balanced by the rigid bond between the transparent plate and the frame . a frame comprising opposite frame elements each with an upwardly facing face ; a transparent plate , for supporting a large format document ; wherein the transparent plate overlies the upwardly facing plane face of the frame ; and a movable carriage configured to move below the transparent plate and carrying a line camera extending across the transparent plate ; the transparent plate is bonded to the frame elements by a glue seam that runs on upwardly facing faces of the frame elements and forms a rigid bond between the transparent plate and the frame ; wherein at least a pair of opposite frame elements (504;503;505) are configured with torsion about a longitudinal axis of a respective frame element causing a twist of the frame elements which is balanced by the rigid bond between the transparent plate and the frame .
An optical receiver, comprising an optoelectronic detector , a transimpedance amplification circuit , a single-ended-to-differential converter , an I/O interface , and a controller , wherein the optoelectronic detector is configured to convert a received optical signal into a current signal, wherein bandwidth of the optoelectronic detector is lower than a system transmission bandwidth requirement; the transimpedance amplification circuit is configured to: receive the current signal and a first control signal, and perform transimpedance gain on the current signal based on the first control signal, to obtain a voltage signal, wherein a frequency response value of the current signal within first bandwidth is greater than that within the bandwidth of the optoelectronic detector , and any frequency in the first bandwidth is not lower than an upper cut-off frequency of the optoelectronic detector ; the single-ended-to-differential converter is configured to: convert the voltage signal into a differential voltage signal, and send the differential voltage signal to the I/O interface and the controller ; the I/O interface is configured to output the differential voltage signal; and the controller is configured to: generate the first control signal based on the differential voltage signal, and send the first control signal to the transimpedance amplification circuit , wherein the first control signal is used to control the transimpedance amplification circuit to perform transimpedance gain on the current signal.