mhurhangee/ep-ind-claims huggingface dataset:
A regenerative heat exchanger with a heat accumulator configured as a rotor, which is rotatably mounted about a central axis of rotation, a stationary housing surrounding the rotor and sealing means for the rotor, comprising at least one sealing frame extending in the radial direction of the rotor and widening toward an outer side of the rotor and comprising a reinforcement device, the sealing frame being arranged in particular between a flue gas sector and an air sector (12, 13), and with an adjustment system for adjusting a distance between the sealing frame and the rotor, the adjustment system comprising at least two adjustment devices (53, 53') connected with the sealing frame for bending the sealing frame in the axial direction, characterized in that the reinforcement device is configured in such a way that the geometrical moment of inertia of the sealing frame is essentially constant in its radial direction, and that the at least two adjustment devices (53, 53') for bending the sealing frame in the axial direction are adjustable in opposite directions relative to one another and/or act on the sealing frame in opposite directions relative to one another.
A method for controlling a chemical or physical phenomenon detecting device provided with a plurality of sensing sections (10; 110,210) for changing each bottom potential of each potential well, comprising the steps of: injecting a charge from an injection diode section to each potential well of each sensing section (10;110,210) through an input control gate section; and transferring the charge in each potential well to a floating diffusion section shared in common by a first sensing section (10;110) and a second sensing section (10;210), for identifying a chemical or physical phenomenon on a basis of the charge stored in the floating diffusion section, wherein the step of injecting includes the steps of injecting the charge from the injection diode section to all of the sensing sections (10;110,210), holding a charge in a first potential well of the first sensing section (10;110) selected, and evacuating a charge from a second potential well of the second sensing section (10; 210) not selected, and the step of transferring allows transferring the charge from the first potential well and the second potential well simultaneously to the floating diffusion section using a common transfer gate section control line being connected to both a first transfer gate section and a second transfer gate section, said first transfer gate section being provided directly in-between the first sensing section (10;110) and the floating diffusion section, and said second transfer gate section being provided directly in-between the second sensing section (10;210) and the floating diffusion section. injecting a charge from an injection diode section to each potential well of each sensing section (10;110,210) through an input control gate section; and transferring the charge in each potential well to a floating diffusion section shared in common by a first sensing section (10;110) and a second sensing section (10;210), for identifying a chemical or physical phenomenon on a basis of the charge stored in the floating diffusion section, wherein the step of injecting includes the steps of injecting the charge from the injection diode section to all of the sensing sections (10;110,210), holding a charge in a first potential well of the first sensing section (10;110) selected, and evacuating a charge from a second potential well of the second sensing section (10; 210) not selected, and the step of transferring allows transferring the charge from the first potential well and the second potential well simultaneously to the floating diffusion section using a common transfer gate section control line being connected to both a first transfer gate section and a second transfer gate section, said first transfer gate section being provided directly in-between the first sensing section (10;110) and the floating diffusion section, and said second transfer gate section being provided directly in-between the second sensing section (10;210) and the floating diffusion section.
A process for producing hydrogen bis(fluorosulfonyl)imide (HFSI), said process comprising: adding a liquid hydrogen bis(chlorosulfonyl)imide (HCSI) and a gaseous hydrogen fluoride to a reaction apparatus under conditions sufficient to produce gaseous HFSI; and removing said gaseous HFSI from the reaction apparatus. adding a liquid hydrogen bis(chlorosulfonyl)imide (HCSI) and a gaseous hydrogen fluoride to a reaction apparatus under conditions sufficient to produce gaseous HFSI; and removing said gaseous HFSI from the reaction apparatus.
A cable assembly comprising a cable comprising insulated conductors (208, 210), a shielding layer that surrounds the insulated conductors (208, 210), and a drain wire that extends along the shielding layer, wherein the insulated conductors (208, 210), the shielding layer, and the drain wire extend along a length of the cable to a terminating end of the cable; and a ground ferrule is coupled to the terminating end of the cable, the ground ferrule having an exterior surface, an interior surface, and a bonding channel that extends from the exterior surface toward the drain wire wherein at least a portion of the bonding channel extends completely through the ground ferrule, and a welding bond is formed in the bonding channel between the drain wire and the ground ferrule, wherein the ground ferrule is intimately engaged with the drain wire along a contact zone, wherein the ground ferrule and the drain wire are welded together for at least a portion of the contact zone, characterized in that the interior surface of the ground ferrule extends alongside the cable, the ground ferrule including a wire-accommodating portion that defines a cradle recess along the interior surface, the cradle recess being shaped to receive the drain wire such that the wire-accommodating portion surrounds the drain wire, the interior surface of the ground ferrule being pressed against the drain wire to form an intimate engagement therebetween during application of the ground ferrule and the drain wire is pressed against an exterior surface of the shielding layer by the ground ferrule, the wire-accommodating portion including the bonding channel that extends from the exterior surface of the ground ferrule toward the drain wire in the cradle recess, the at least said portion of the bonding channel extending completely through the ground ferrule forming a window that exposes the drain wire to an exterior of the cable assembly; and the ground ferrule and the drain wire are laser-welded together for at least said portion of the contact zone.
A machining tool, in particular a rolling tool, for machining a workpiece surface, in particular a curved inner surface of a bore in a workpiece, with a tool body that defines a tool axis, and at least one first roller element that is borne by the tool body and is rotatable about a first roller element axis and has a first outer surface, wherein the first outer surface has a rough surface structure in at least one working section designated for rolling contact with the workpiece surface, characterized in that at least one second roller element borne by the tool body is provided that is rotatable about a second roller element axis and has a second outer surface, wherein the second outer surface has a distance to the tool axis in at least one working section that is designated for rolling contact with the workpiece surface and is less than the distance of the working section of the first roller element, wherein a cage holder is provided for the at least one first roller element, and a cage holder is provided for the at least one second roller element, wherein the cage holder for the at least one first roller element is greater in an axial direction than the longitudinal extension of the at least one first roller element such that a specifiable axial shift of the first roller element is provided.
Air passage duct, comprising at least one divisible area with controlled breakage configured to break under the application to the duct of a predetermined shearing force oriented substantially orthogonally relative to the orientation of the duct, characterized in that it comprises elements for fastening by latching to a heating, ventilation and air conditioning device, these fastening elements being configured to break under the application to the duct of a predetermined shearing force oriented substantially orthogonally relative to the orientation of the duct, this force being less than the predetermined shearing force for breaking the divisible areas.
Method for manufacturing a leather-based sheet, characterized in that it comprises: - preparing a paste by a step of treating a material containing at least 70% by weight of leather prepared from skin of a non-human animal in a twin-screw extruder at a temperature between 10 and 40°C, in the presence of water in a quantity such that the weight ratio of water to said material is between 1.7 and 6; - and shaping said paste into a sheet. - preparing a paste by a step of treating a material containing at least 70% by weight of leather prepared from skin of a non-human animal in a twin-screw extruder at a temperature between 10 and 40°C, in the presence of water in a quantity such that the weight ratio of water to said material is between 1.7 and 6; - and shaping said paste into a sheet.
A cable-type secondary battery comprising: an electrode assembly; and a cover member surrounding the electrode assembly, the electrode assembly including: first and second electrodes of an elongated shape, each electrode including a current collector having a cross section of a circular, asymmetrical oval or polygonal shape perpendicular to the lengthwise direction thereof, and an electrode active material applied onto the surface of the current collector, and a separator or an electrolyte layer interposed between the first and second electrodes, wherein the cover member has a preset pattern of continuous or discontinuous scratch grooves on the surface thereof. an electrode assembly; and a cover member surrounding the electrode assembly, the electrode assembly including: first and second electrodes of an elongated shape, each electrode including a current collector having a cross section of a circular, asymmetrical oval or polygonal shape perpendicular to the lengthwise direction thereof, and an electrode active material applied onto the surface of the current collector, and a separator or an electrolyte layer interposed between the first and second electrodes, first and second electrodes of an elongated shape, each electrode including a current collector having a cross section of a circular, asymmetrical oval or polygonal shape perpendicular to the lengthwise direction thereof, and an electrode active material applied onto the surface of the current collector, and a separator or an electrolyte layer interposed between the first and second electrodes, wherein the cover member has a preset pattern of continuous or discontinuous scratch grooves on the surface thereof.
A speed detecting device, comprising: a magnetic flux producing unit spaced apart from a principal surface of a relative moving body and configured to change, at a predetermined frequency, magnetic flux passing over the principal surface of the relative moving body; a stress detecting unit for detecting a stress and outputting an electric signal corresponding to the stress; a stress transmitting member for transmitting to the stress detecting unit a Lorentz force produced in the magnetic flux producing unit in accordance with magnetic flux produced by eddy currents, the eddy currents occurring on the relative moving body in accordance with a moving or rotating speed of the relative moving body; a frequency band extracting unit for extracting a frequency component twice as high as the predetermined frequency from the electric signal; and a speed estimating unit for estimating the moving or rotating speed of the relative moving body based on the frequency component extracted by the frequency band extracting unit. a magnetic flux producing unit spaced apart from a principal surface of a relative moving body and configured to change, at a predetermined frequency, magnetic flux passing over the principal surface of the relative moving body; a stress detecting unit for detecting a stress and outputting an electric signal corresponding to the stress; a stress transmitting member for transmitting to the stress detecting unit a Lorentz force produced in the magnetic flux producing unit in accordance with magnetic flux produced by eddy currents, the eddy currents occurring on the relative moving body in accordance with a moving or rotating speed of the relative moving body; a frequency band extracting unit for extracting a frequency component twice as high as the predetermined frequency from the electric signal; and a speed estimating unit for estimating the moving or rotating speed of the relative moving body based on the frequency component extracted by the frequency band extracting unit.
Packaging machine for packaging medicines (441, 442) in solid dosage form into patient-specific blister packs, wherein the packaging machine comprises: a filling point at which blister packs (810a, 810b, 810c, 810d) can be filled; a film transport unit for guiding a packaging film along underneath the filling point, wherein the packaging film is provided for forming blister packs (810a, 810b, 810c, 810d); a folding unit (820, 820a, 820b) for folding the packaging film; a closing unit (830, 830a, 830b) for closing the packaging film in the form of a blister pack (810a, 810b, 810c, 810d); and wherein the folding unit (820, 820a, 820b) is adapted to fold the packaging film back up to the filling point; characterised in that the folding unit (820, 820a, 820b) has a first beak and a second beak for folding the packaging film, wherein the first and second beak (820a, 820b) are each arranged at an angle to the running direction of the packaging film provided by the film transport unit, and wherein the first and second beak (820a, 820b) are arranged relative to one another in such a way that they are set up to guide the packaging film. a filling point at which blister packs (810a, 810b, 810c, 810d) can be filled; a film transport unit for guiding a packaging film along underneath the filling point, wherein the packaging film is provided for forming blister packs (810a, 810b, 810c, 810d); a folding unit (820, 820a, 820b) for folding the packaging film; a closing unit (830, 830a, 830b) for closing the packaging film in the form of a blister pack (810a, 810b, 810c, 810d); and wherein the folding unit (820, 820a, 820b) is adapted to fold the packaging film back up to the filling point; characterised in that the folding unit (820, 820a, 820b) has a first beak and a second beak for folding the packaging film, wherein the first and second beak (820a, 820b) are each arranged at an angle to the running direction of the packaging film provided by the film transport unit, and wherein the first and second beak (820a, 820b) are arranged relative to one another in such a way that they are set up to guide the packaging film.
A compound of the general formula in which R 1 is hydrogen or a linear or branched aliphatic hydrocarbon radical having 1 to 30 carbon atoms and 0, 1, 2 or 3 double bonds, the radicals R 2, independently of one another, are selected from hydrogen, methyl, ethyl, -OA, - COOR 4, -CH 2 -OA and -CH 2 -COOR 4, where the radicals R 4 are hydrogen or a linear or branched aliphatic hydrocarbon radical having 1 to 30 carbon atoms and 0, 1, 2 or 3 double bonds, the radicals R 3, independently of one another, are selected from hydrogen, methyl, ethyl, -OA, - COOR 5, -CH 2 -OA and -CH 2 -COOR 5, where the radicals R 5 are hydrogen or a linear or branched aliphatic hydrocarbon radical having 1 to 30 carbon atoms and 0, 1, 2 or 3 double bonds, A is H or -SO 3 B, in which B is hydrogen or a cation equivalent, n is on average a value of at least 0.1, m1 and m2, independently of one another, are 0 or 1, with the proviso that at least one of the radicals A is -SO 3 B, and with the proviso that at least one of the radicals R 1, R 4 or R 5 is a linear or branched aliphatic hydrocarbon radical having 1 to 30 carbon atoms and 0, 1, 2 or 3 double bonds. R 1 is hydrogen or a linear or branched aliphatic hydrocarbon radical having 1 to 30 carbon atoms and 0, 1, 2 or 3 double bonds, the radicals R 2, independently of one another, are selected from hydrogen, methyl, ethyl, -OA, - COOR 4, -CH 2 -OA and -CH 2 -COOR 4, where the radicals R 4 are hydrogen or a linear or branched aliphatic hydrocarbon radical having 1 to 30 carbon atoms and 0, 1, 2 or 3 double bonds, the radicals R 3, independently of one another, are selected from hydrogen, methyl, ethyl, -OA, - COOR 5, -CH 2 -OA and -CH 2 -COOR 5, where the radicals R 5 are hydrogen or a linear or branched aliphatic hydrocarbon radical having 1 to 30 carbon atoms and 0, 1, 2 or 3 double bonds, A is H or -SO 3 B, in which B is hydrogen or a cation equivalent, n is on average a value of at least 0.1, m1 and m2, independently of one another, are 0 or 1,
Bone plate having a carrier part and an inlay which is inserted into the carrier part and connected to the carrier part, wherein the inlay consists of a softer material than the carrier part and wherein the inlay has formed therein precisely one through-hole which is arranged centrally in the inlay, characterized in that the inlay has a greater extent in a longitudinal direction than in a transverse direction, and in that the distance from the through-hole to the closest end of the inlay in the longitudinal direction is greater than the distance from the through-hole to the edge of the inlay in the transverse direction.
A method of selecting an arrangement of sectors (100, 200, 300) for a turbomachine nozzle, the nozzle sectors comprising contact surfaces, and being adapted to be placed in relative position relative to adjacent nozzle sectors by abutment of these contact surfaces; the method being characterized in that it comprises the following steps: A) creating a database of three-dimensional numerical models of the sectors by digitizing, in which the numerical models of the sectors comprise a model of the contact surfaces involved in a relative positioning of the sectors when they are mounted; B) setting a criterion for selecting an arrangement of sectors and setting a desired value for said criterion, the criterion being a function of the shapes and the relative positions of the sectors; C) for various arrangements that are evaluated, determining the relative positions of the sectors when assembled together by performing a virtual assembly, the virtual assembly of the numerical models of the sectors in an arrangement under evaluation being realized by bringing into correspondence the contact surfaces of the adjacent sectors of said arrangement; and as a function of said relative positions, determining the value of the selection criterion for the arrangement under evaluation; and D) retaining the arrangement for which the selection criterion has the value closest to the desired value. A) creating a database of three-dimensional numerical models of the sectors by digitizing, in which the numerical models of the sectors comprise a model of the contact surfaces involved in a relative positioning of the sectors when they are mounted; B) setting a criterion for selecting an arrangement of sectors and setting a desired value for said criterion, the criterion being a function of the shapes and the relative positions of the sectors; C) for various arrangements that are evaluated, determining the relative positions of the sectors when assembled together by performing a virtual assembly, the virtual assembly of the numerical models of the sectors in an arrangement under evaluation being realized by bringing into correspondence the contact surfaces of the adjacent sectors of said arrangement; and as a function of said relative positions, determining the value of the selection criterion for the arrangement under evaluation; and D) retaining the arrangement for which the selection criterion has the value closest to the desired value.
A hybrid module for a drive train of a motor vehicle, having an electric motor, an internal combustion engine and a transmission, the hybrid module having: a rotor element which can be driven by means of the electric motor, a separating clutch arranged within the rotor element having a pressure plate and a counter plate and a coupling device having at least one coupling (44, 46) comprising a pressure plate and a counter plate, characterised in that the counter plate of the coupling device is connected to the rotor element, and a common component of the separating clutch and the coupling device is provided, which forms the counter plate of the separating clutch and the counter plate of the coupling device connected to the rotor element. a rotor element which can be driven by means of the electric motor, a separating clutch arranged within the rotor element having a pressure plate and a counter plate and a coupling device having at least one coupling (44, 46) comprising a pressure plate and a counter plate, characterised in that the counter plate of the coupling device is connected to the rotor element, and a common component of the separating clutch and the coupling device is provided, which forms the counter plate of the separating clutch and the counter plate of the coupling device connected to the rotor element.