mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling device for a motor-vehicle battery of a motor vehicle, in particular an electrically driveable motor vehicle, having a cooling plate for cooling the motor-vehicle battery, wherein the cooling plate has supply channels for feeding of a cold cooling medium, return channels for discharge of the heated cooling medium, which run parallel to the supply channels , and at least one empty channel , which runs parallel to the supply channels and the return channels , having a manifold strip which is fastened to a first end face of the cooling plate and serves for sealing off end-face openings of the supply channels and of the return channels , having a fastening receptacle which is inserted in the empty channel and is fixed in terms of movement in the longitudinal direction of the empty channel , having a fastening means which is plugged into the empty channel , and is fastened to the fastening receptacle , in the longitudinal direction of the empty channel , wherein the manifold strip is fastened with the aid of the fastening means that interacts with the fastening receptacle , characterized in that the supply channels each have an inflow opening which runs transversely to the longitudinal direction of the supply channel and serves for fluidic communication with an inflow manifold channel which is mounted on the cooling plate , and the return channels each have an outflow opening which runs transversely to the longitudinal direction of the return channel and serves for fluidic communication with an outflow manifold channel which is mounted on the cooling plate . having a cooling plate for cooling the motor-vehicle battery, wherein the cooling plate has supply channels for feeding of a cold cooling medium, return channels for discharge of the heated cooling medium, which run parallel to the supply channels , and at least one empty channel , which runs parallel to the supply channels and the return channels , having a manifold strip which is fastened to a first end face of the cooling plate and serves for sealing off end-face openings of the supply channels and of the return channels , having a fastening receptacle which is inserted in the empty channel and is fixed in terms of movement in the longitudinal direction of the empty channel , having a fastening means which is plugged into the empty channel , and is fastened to the fastening receptacle , in the longitudinal direction of the empty channel , wherein the manifold strip is fastened with the aid of the fastening means that interacts with the fastening receptacle , characterized in that the supply channels each have an inflow opening which runs transversely to the longitudinal direction of the supply channel and serves for fluidic communication with an inflow manifold channel which is mounted on the cooling plate , and the return channels each have an outflow opening which runs transversely to the longitudinal direction of the return channel and serves for fluidic communication with an outflow manifold channel which is mounted on the cooling plate .
A near-infrared absorbing and reflecting ink composition used to print concealable securing indicia, the ink composition comprising: at least one colorant absorbing visible light; a near-infrared taggant absorbing near-infrared; at least one filling agent selected from a group consisting of calcium carbonate, barium sulfate, talc and silicon dioxide; and at least one binder selected from a group consisting of phenol, rosin-modified phenol, xylene, urea, melamine, ketone, coumarone indene, petroleum, terpene, cyclic rubber, chlorinated rubber, alkyd, polyamide, acrylic, polyvinyl chloride, polyvinyl acetate, vinyl chloride-vinyl acetate copolymer, polyvinyl butyral, chlorinated polypropylene, epoxy, polyurethane and cellulose derivatives; wherein the colorant is a dye or pigment absorbing light in a visible light spectrum of 380 to 780 nm and reflecting light in a near-infrared (NIR) range exceeding 780 nm, wherein the near-infrared taggant includes a near-infrared absorbing agent having a maximum absorption wavelength at 925 nm, wherein the near-infrared absorbing agent is copper (II) tetra-(1,4-benzothiazino)-octa-(2-aminothiophenyl)-phthalocyanine having a following chemical formula I: at least one colorant absorbing visible light; a near-infrared taggant absorbing near-infrared; at least one filling agent selected from a group consisting of calcium carbonate, barium sulfate, talc and silicon dioxide; and at least one binder selected from a group consisting of phenol, rosin-modified phenol, xylene, urea, melamine, ketone, coumarone indene, petroleum, terpene, cyclic rubber, chlorinated rubber, alkyd, polyamide, acrylic, polyvinyl chloride, polyvinyl acetate, vinyl chloride-vinyl acetate copolymer, polyvinyl butyral, chlorinated polypropylene, epoxy, polyurethane and cellulose derivatives; wherein the colorant is a dye or pigment absorbing light in a visible light spectrum of 380 to 780 nm and reflecting light in a near-infrared (NIR) range exceeding 780 nm, wherein the near-infrared taggant includes a near-infrared absorbing agent having a maximum absorption wavelength at 925 nm, wherein the near-infrared absorbing agent is copper (II) tetra-(1,4-benzothiazino)-octa-(2-aminothiophenyl)-phthalocyanine having a following chemical formula I:
A recognizable carrier for determining physical, chemical or biochemical interactions by means of optical measuring methods, comprising: a plate surface, a plurality of wells arranged in rows and columns and formed in said plate surface, wherein each well has a bottom surface defining a substrate surface, a base layer arranged on said substrate surface and coated with reactive elements forming spots, which in turn are capable of forming a bond with capture molecules, and represent an implicit encoding for controlling originality and quality of the carrier, said implicit encoding being formed by a blank pattern and a plurality of spots , formed on said base layer, wherein the blank pattern is formed by a plurality of blanks or holes representing said implicit encoding, and the plurality of spots is arranged in a predetermined arrangement and each has a different height, representing said implicit encoding. a plate surface, a plurality of wells arranged in rows and columns and formed in said plate surface, wherein each well has a bottom surface defining a substrate surface, a base layer arranged on said substrate surface and coated with reactive elements forming spots, which in turn are capable of forming a bond with capture molecules, and represent an implicit encoding for controlling originality and quality of the carrier, said implicit encoding being formed by a blank pattern and a plurality of spots , formed on said base layer, wherein the blank pattern is formed by a plurality of blanks or holes representing said implicit encoding, and the plurality of spots is arranged in a predetermined arrangement and each has a different height, representing said implicit encoding.
A flexible display device, comprising: a base substrate ; a first protective film formed as a single unit and disposed on one side of the base substrate and having one or more vacuum holes ; and a display panel disposed on another side of the base substrate , wherein the display panel comprises a plurality of pixels and a plurality of signal lines connected to the plurality of pixels characterized in that the flexible display device further comprising: an anti-finger layer disposed on the one surface of the base substrate , wherein the first protective film is laminated on the anti-finger layer , wherein the anti-finger layer directly contacts the first protective film and each of the one or more vacuum holes includes an opening exposed to the anti-finger layer . a base substrate ; a first protective film formed as a single unit and disposed on one side of the base substrate and having one or more vacuum holes ; and a display panel disposed on another side of the base substrate , wherein the display panel comprises a plurality of pixels and a plurality of signal lines connected to the plurality of pixels characterized in that the flexible display device further comprising: an anti-finger layer disposed on the one surface of the base substrate , wherein the first protective film is laminated on the anti-finger layer , wherein the anti-finger layer directly contacts the first protective film and each of the one or more vacuum holes includes an opening exposed to the anti-finger layer . an anti-finger layer disposed on the one surface of the base substrate , wherein the first protective film is laminated on the anti-finger layer , wherein the anti-finger layer directly contacts the first protective film and each of the one or more vacuum holes includes an opening exposed to the anti-finger layer .
A method of producing lighting devices, the method including: - providing a support substrate with electrically powered solid-state light radiation sources in a plurality of linear arrays arranged side-by-side; - sealingly coupling to said support substrate a light-propagating element having cavities for receiving therein said solid-state light radiation sources , and - cutting (C) said support substrate with said light-propagating element sealingly coupled therewith intermediate said linear arrays of said solid-state light radiation sources to produce a plurality of linear lighting devices, - sealingly coupling said light-propagating element to said support substrate by means of an adhesive , characterized in that the method includes: - dispensing said adhesive onto said support substrate and onto said solid-state light radiation sources , and - providing a peripheral containment formation to confine said adhesive dispensed onto said support substrate . - providing a support substrate with electrically powered solid-state light radiation sources in a plurality of linear arrays arranged side-by-side; - sealingly coupling to said support substrate a light-propagating element having cavities for receiving therein said solid-state light radiation sources , and - cutting (C) said support substrate with said light-propagating element sealingly coupled therewith intermediate said linear arrays of said solid-state light radiation sources to produce a plurality of linear lighting devices, - sealingly coupling said light-propagating element to said support substrate by means of an adhesive , - dispensing said adhesive onto said support substrate and onto said solid-state light radiation sources , and - providing a peripheral containment formation to confine said adhesive dispensed onto said support substrate .
A process for building tyres for vehicle wheels, which comprises: forming components of a tyre on a forming drum , wherein said components are formed by: - picking up a forming drum by way of a grip unit ; - moving the grip unit in space in three dimensions (X, Y, Z) in order to bring it to final ends of at least two conveyors which belong to at least two delivery stations for delivering semi-finished products , wherein at least two of said final ends are superimposed on each other; - feeding said semi-finished products onto respective upper conveyor surfaces of said conveyors up to said final ends ; - approaching the forming drum being carried by the grip unit to at least some of the conveyor surfaces until a radially outer surface with respect to the forming drum is placed in contact with the semi-finished product which is abutted against the respective final end ; - rotating the forming drum about a symmetry axis (x-x) thereof in order to wind the semi-finished product on said radially outer surface . - picking up a forming drum by way of a grip unit ; - moving the grip unit in space in three dimensions (X, Y, Z) in order to bring it to final ends of at least two conveyors which belong to at least two delivery stations for delivering semi-finished products , wherein at least two of said final ends are superimposed on each other; - feeding said semi-finished products onto respective upper conveyor surfaces of said conveyors up to said final ends ; - approaching the forming drum being carried by the grip unit to at least some of the conveyor surfaces until a radially outer surface with respect to the forming drum is placed in contact with the semi-finished product which is abutted against the respective final end ; - rotating the forming drum about a symmetry axis (x-x) thereof in order to wind the semi-finished product on said radially outer surface .
Tachograph system for a motor vehicle , having a pulse generator , characterized in that - the pulse generator of the tachograph system has a sensor device having a storage unit in which a secret that is specific to the sensor device is stored in an unchangeable manner, - the tachograph system has a control device which is configured to read the secret from the storage unit and to store it as a reference secret in a storage device of the tachograph system , and the control device is configured to carry out a predetermined authentication method, wherein the secret stored in the storage unit of the sensor device is read by the control device and is checked for correspondence with the reference secret stored in the storage device of the tachograph system . - the pulse generator of the tachograph system has a sensor device having a storage unit in which a secret that is specific to the sensor device is stored in an unchangeable manner, - the tachograph system has a control device which is configured to read the secret from the storage unit and to store it as a reference secret in a storage device of the tachograph system , and the control device is configured to carry out a predetermined authentication method, wherein the secret stored in the storage unit of the sensor device is read by the control device and is checked for correspondence with the reference secret stored in the storage device of the tachograph system .
A nonwoven substrate comprising polyolefin fibers, a first surface and a second surface opposite the first surface; wherein the first surface comprises one or more printed portions, wherein at least one printed portion comprises a curable ink having a basis weight of from 1 gsm to 7 gsm, a surface tension of less than 30 as measured in dyne/cm at 25°C, a viscosity of 1-30 mPa.s as measured at 25°C and 60 rpm using ASTM D 2196-99, Test Method A and a specific gravity of 0.830-1.050 as measured at 25°C using ASTM D 891-95, Method A; and wherein the at least one printed portion comprises a Crosslinking Index of 330 or less as determined by the Crosslinking Index Test Method herein, wherein the curable ink was e-beam cured at a dose of from 0.5 MRad to 5 MRad, or was UV cured at a dose of from 25 mJ/cm 2 to 1000 mJ/cm 2 . wherein the at least one printed portion comprises a Crosslinking Index of 330 or less as determined by the Crosslinking Index Test Method herein, wherein the curable ink was e-beam cured at a dose of from 0.5 MRad to 5 MRad, or was UV cured at a dose of from 25 mJ/cm 2 to 1000 mJ/cm 2 .
Leak-tightness testing system for leak-tightness testing of a container , comprising a test chamber with an interior space for accommodating the container , a test gas source for charging the interior of the container with a test gas, a pump device for generating a test vacuum in the interior space of the test chamber , and a mass spectrometer for detecting partial quantities of the test gas in the interior space of the test chamber , wherein the pump device is configured to generate a test vacuum in the interior space of the test chamber of < 0.1 mbar, characterized in that the leak-tightness testing system furthermore comprises a regulating loop for keeping the suction power of the pump device at least approximately constant.
A method for producing micro- and/or nanostructures, with at least the following steps with the following sequence: a) fixing of a substrate (1, 1', 1") with an embossing compound (7, 7', 7") on a substrate mounting arrangement , b) contacting of a structured stamp with the embossing compound (7, 7', 7"), c) at least partial removal of the fixing of the substrate (1, 1', 1"), d) curing of the embossing compound (7, 7', 7"), f) demoulding of the embossing compound (7, 7', 7") from the structured stamp . a) fixing of a substrate (1, 1', 1") with an embossing compound (7, 7', 7") on a substrate mounting arrangement , b) contacting of a structured stamp with the embossing compound (7, 7', 7"), c) at least partial removal of the fixing of the substrate (1, 1', 1"), d) curing of the embossing compound (7, 7', 7"), f) demoulding of the embossing compound (7, 7', 7") from the structured stamp .
A method for producing a metal member having an oxide film formed on a surface of a metal substrate formed from a metal, the method comprising: a first step of heating the surface of the metal substrate and forming the oxide film on the surface of the metal substrate ; and a second step of heating at least a portion of the oxide film and increasing a joining strength of the oxide film to the metal substrate , wherein the oxide film includes molten parts formed by melting of the metal substrate , and peripheral parts formed by scattering of a metal from the molten parts , the first step includes a process of forming a plurality of the molten parts at shifted positions by localized heating of the surface of the metal substrate , such that the peripheral parts formed around the adjacent molten parts overlap at least partially with one another, and the second step includes a process of heating at least a portion of the peripheral parts already formed on the surface of the metal substrate by thermal conduction, the heating being achieved by the heat supplied to the surface of the metal substrate in the first step, and increasing a joining strength of the peripheral parts to the metal substrate . a first step of heating the surface of the metal substrate and forming the oxide film on the surface of the metal substrate ; and a second step of heating at least a portion of the oxide film and increasing a joining strength of the oxide film to the metal substrate , wherein the oxide film includes molten parts formed by melting of the metal substrate , and peripheral parts formed by scattering of a metal from the molten parts , the first step includes a process of forming a plurality of the molten parts at shifted positions by localized heating of the surface of the metal substrate , such that the peripheral parts formed around the adjacent molten parts overlap at least partially with one another, and the second step includes a process of heating at least a portion of the peripheral parts already formed on the surface of the metal substrate by thermal conduction, the heating being achieved by the heat supplied to the surface of the metal substrate in the first step, and increasing a joining strength of the peripheral parts to the metal substrate .
A method of balancing a rotor of a vacuum pump , in particular of a turbomolecular pump, in which an imbalance of the rotor is determined and material is removed from the rotor by means of a laser in dependence on the determined imbalance in order to reduce the imbalance, wherein a rough alignment and a fine alignment are performed for a beam of the laser , wherein the rough alignment comprises aligning the beam with a surface section of the rotor which is provided for the material removal, wherein the rough alignment is performed by means of at least a first mirror which is moved in a translatory manner relative to the rotor , and wherein, in the fine alignment, the alignment of the beam is varied, starting from the rough alignment, to bring about a direct removal of the material in the region of the surface section .
An interconnect structure for an integrated circuit , the interconnect structure comprising: a metal line (M) comprising a plurality of sections (M1, M2, M3) extended in a 1 st direction (D1); and a plurality of vias (V1, V2, V3) respectively protruding from the plurality of sections (M1, M2, M3) of the metal line (M), wherein the plurality of sections (M1, M2, M3) have different thicknesses along the 1 st direction (D1), and/or wherein the vias (V1, V2, V3) have different widths (W1, W2, W3) in at least one of the 1 st direction (D1) and a 2 nd direction (D2) perpendicular to the 1 st direction (D1), and have different protrusion heights in a 3 rd direction (D3) perpendicular to the 1 st and 2 nd direction (D1, D2). a metal line (M) comprising a plurality of sections (M1, M2, M3) extended in a 1 st direction (D1); and a plurality of vias (V1, V2, V3) respectively protruding from the plurality of sections (M1, M2, M3) of the metal line (M), wherein the plurality of sections (M1, M2, M3) have different thicknesses along the 1 st direction (D1), and/or wherein the vias (V1, V2, V3) have different widths (W1, W2, W3) in at least one of the 1 st direction (D1) and a 2 nd direction (D2) perpendicular to the 1 st direction (D1), and have different protrusion heights in a 3 rd direction (D3) perpendicular to the 1 st and 2 nd direction (D1, D2).
A calming station configured for use with a forming section of a paper machine to reduce turbulence in a liquid flowing from the forming section into a flume of the paper machine, the calming station comprising: a liquid inlet configured to receive the liquid; a liquid outlet configured to convey the liquid out of the calming station; and at least one gate through and/or around which the liquid may flow, the gate having a pattern of one or more holes, bars, slats, ridges, and/or grooves, configured to modify the flow of liquid through and/or around the gate, characterized by : a gate comprising at least one of: an adjustable gate , configurable among two or more different positions that alter the flow of the liquid in different ways; and a first portion having a first pattern of one or more holes, bars, slats, ridges, and grooves, and a second portion having a second pattern of one or more holes, bars, slats, ridges, and grooves different than the first pattern. a liquid inlet configured to receive the liquid; a liquid outlet configured to convey the liquid out of the calming station; and at least one gate through and/or around which the liquid may flow, the gate having a pattern of one or more holes, bars, slats, ridges, and/or grooves, configured to modify the flow of liquid through and/or around the gate, characterized by : a gate comprising at least one of: an adjustable gate , configurable among two or more different positions that alter the flow of the liquid in different ways; and a first portion having a first pattern of one or more holes, bars, slats, ridges, and grooves, and a second portion having a second pattern of one or more holes, bars, slats, ridges, and grooves different than the first pattern. an adjustable gate , configurable among two or more different positions that alter the flow of the liquid in different ways; and a first portion having a first pattern of one or more holes, bars, slats, ridges, and grooves, and a second portion having a second pattern of one or more holes, bars, slats, ridges, and grooves different than the first pattern.
A printed tubular article of apparel, comprising: a body having a first thickness; one or more regions disposed on different portions of the tubular article than the body, wherein the one or more regions have a greater thickness than the body , wherein a first padded region of the one or more regions has a second thickness; and a graphic printed across the body and the one or more regions, wherein the graphic does not have significant distortions or irregularities caused by the one or more regions, characterised in that starting and end points of the graphic have a small overlap. a body having a first thickness; one or more regions disposed on different portions of the tubular article than the body, wherein the one or more regions have a greater thickness than the body , wherein a first padded region of the one or more regions has a second thickness; and a graphic printed across the body and the one or more regions, wherein the graphic does not have significant distortions or irregularities caused by the one or more regions, characterised in that starting and end points of the graphic have a small overlap.