mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a set of plates that can be used directly on a flexographic printing press having built-in screen values that are adjusted so as to produce a proof corresponding exactly to the Ready for Press proof, said method taking into account the aspects of linearisation of the polymer plates and the machine dot gain upstream of the management of the colour profile, said method being characterised in that it comprises the following steps: a) producing a set of linearised plates in order to determine the dot gain values of the flexographic printing press at each print unit and on each substrate used, said linearised plates consisting of plates for which the screen value deviations are corrected as a function of a) the sensitivity of the polymer material and b) the screen frequency, so that the target screen values in the print operation are identical to the screen values on the plate; b) performing a print operation with each of the plates obtained in step a); c) determining the ink density which then becomes the standard density of the press on each substrate; d) determining a DGC per print unit, for each type of substrate that may be used with the press in question, taking account of the standard ink density; e) producing a set of plates in which each plate is free from dot gain according to the DGCs obtained in step d), so that, for each print unit, each plate has dedicated screen values appropriate to the substrate mentioned in step c). a) producing a set of linearised plates in order to determine the dot gain values of the flexographic printing press at each print unit and on each substrate used, said linearised plates consisting of plates for which the screen value deviations are corrected as a function of a) the sensitivity of the polymer material and b) the screen frequency, so that the target screen values in the print operation are identical to the screen values on the plate; b) performing a print operation with each of the plates obtained in step a); c) determining the ink density which then becomes the standard density of the press on each substrate; d) determining a DGC per print unit, for each type of substrate that may be used with the press in question, taking account of the standard ink density; e) producing a set of plates in which each plate is free from dot gain according to the DGCs obtained in step d), so that, for each print unit, each plate has dedicated screen values appropriate to the substrate mentioned in step c).
A method, comprising: receiving, via an application server, a specification for a virtual container from a service provider, the specification including analytic components, data ingress parameters, and configuration information, the application server being separate from the virtual container, the configuration information comprising a software-defined network layout and a storage requirement; generating, based on the received specification, a virtual container comprising the analytic components, the virtual container configured to access data according to the data ingress parameters, the virtual container further configured according to the specified configuration information; authenticating a first customer for services associated with the service provider; and in response to authenticating the first customer, authorizing the virtual container to receive secure data from a first data repository associated with the first customer, the virtual container configured to limit access to and from unauthorized systems such that the secure data can be received into the virtual container for analysis therein but cannot be transmitted out of the virtual container. receiving, via an application server, a specification for a virtual container from a service provider, the specification including analytic components, data ingress parameters, and configuration information, the application server being separate from the virtual container, the configuration information comprising a software-defined network layout and a storage requirement; generating, based on the received specification, a virtual container comprising the analytic components, the virtual container configured to access data according to the data ingress parameters, the virtual container further configured according to the specified configuration information; authenticating a first customer for services associated with the service provider; and in response to authenticating the first customer, authorizing the virtual container to receive secure data from a first data repository associated with the first customer, the virtual container configured to limit access to and from unauthorized systems such that the secure data can be received into the virtual container for analysis therein but cannot be transmitted out of the virtual container.
An LED pixel device (101, 301, 401, 501) comprising: • a plurality of individual controllable LED pixels arranged in an array; • an LED pixel controller adapted to control said plurality of individual controllable LED pixels; • an optical diffuser arranged in front of at least a part of said LED pixels, said optical diffuser being configured to receive light from said LED pixels and to diffuse the received light, said optical diffuser being configured to change the appearance of said LED pixels; • a plurality of individually controllable diffuser actuators adapted to move said LED pixels and said optical diffuser in relation to each other; • a diffuser controller adapted to control said plurality of individually controllable diffuser actuators; wherein said optical diffuser and said LED pixels can be moved between a non-mixing position and a mixing position, where in said non-mixing position the light emitted by said LED pixels is separated when hitting said optical diffuser and where in said mixing position the light emitted by said LED pixels at least partially overlapping when hitting said optical diffuser, wherein different distances between the optical diffuser and the LED pixel device across the LED pixel device can be realized by individually controlling the diffuser actuators. • a plurality of individual controllable LED pixels arranged in an array; • an LED pixel controller adapted to control said plurality of individual controllable LED pixels; • an optical diffuser arranged in front of at least a part of said LED pixels, said optical diffuser being configured to receive light from said LED pixels and to diffuse the received light, said optical diffuser being configured to change the appearance of said LED pixels; • a plurality of individually controllable diffuser actuators adapted to move said LED pixels and said optical diffuser in relation to each other; • a diffuser controller adapted to control said plurality of individually controllable diffuser actuators;
A light emitting diode, comprising: a Group III nitride based superlattice comprising at least two periods of alternating layers of In x Ga 1-x N and In y Ga 1-y N where 0≤X≤1 and X≠Y; a Group III nitride based light emitting diode active region on the superlattice and comprising at least one quantum well structure comprising indium; an undoped aluminum indium gallium nitride (AlInGaN) capping layer on the light emitting diode active region; a p-type Group III nitride based layer including aluminum and indium on the capping layer; and a p-type gallium nitride (GaN) contact layer on the p-type Group III nitride based layer; wherein the undoped aluminum indium gallium nitride (AlInGaN) capping layer is distinct from the light emitting diode active region and provides a transition from the lattice structure of the active region to the lattice structure of the p-type Group III nitride based layer including aluminum and indium by closely lattice matching the capping layer to the quantum wells of the at least one quantum well structure of the active region. a Group III nitride based superlattice comprising at least two periods of alternating layers of In x Ga 1-x N and In y Ga 1-y N where 0≤X≤1 and X≠Y; a Group III nitride based light emitting diode active region on the superlattice and comprising at least one quantum well structure comprising indium; an undoped aluminum indium gallium nitride (AlInGaN) capping layer on the light emitting diode active region; a p-type Group III nitride based layer including aluminum and indium on the capping layer; and a p-type gallium nitride (GaN) contact layer on the p-type Group III nitride based layer; wherein the undoped aluminum indium gallium nitride (AlInGaN) capping layer is distinct from the light emitting diode active region and provides a transition from the lattice structure of the active region to the lattice structure of the p-type Group III nitride based layer including aluminum and indium by closely lattice matching the capping layer to the quantum wells of the at least one quantum well structure of the active region.
Process for the recovery of acetic acid comprising a stage of liquid/liquid extraction of an aqueous solution comprising acetic acid with a low-boiling-point solvent, in order to extract the acid from the aqueous solution, and a stage of distillation of this extract, characterized in that the distillation is carried out in a dividing-wall column or in a Petlyuk column.
A system for generating a digital subtraction image of at least two input images, comprising - a registration subsystem for generating a plurality of different registrations of the input images (7, 8), based on different values of a registration parameter representing an assumed depth of an object which is visible in the input images (7, 8); - a subtraction subsystem for generating a plurality of subtracted images by subtracting the input images in accordance with respective ones of the plurality of registrations; - a combining subsystem for combining the plurality of subtracted images into a single combined subtracted image and for assigning a combined pixel value to a pixel position of the combined subtracted image based on pixel values of or around corresponding pixel positions in the plurality of subtracted images, wherein the combining subsystem comprising a selector for selecting, for a pixel position of the combined subtracted image, a pixel value at a corresponding pixel position in one of the plurality of subtracted images based on a local image property of the substracted images at the pixel position. - a registration subsystem for generating a plurality of different registrations of the input images (7, 8), based on different values of a registration parameter representing an assumed depth of an object which is visible in the input images (7, 8); - a subtraction subsystem for generating a plurality of subtracted images by subtracting the input images in accordance with respective ones of the plurality of registrations; - a combining subsystem for combining the plurality of subtracted images into a single combined subtracted image and for assigning a combined pixel value to a pixel position of the combined subtracted image based on pixel values of or around corresponding pixel positions in the plurality of subtracted images,
Flow meter comprising an optical acquisition unit, wherein the optical acquisition unit comprises a rotating disc driven by the flow meter as a function of a flow amount, at least one optical transmission element and at least one optical reception element, wherein a surface of the rotating disc has at least one plane reflecting region (3.1) and at least one non-reflecting region (3.2), wherein a number of rotations of the rotating disc is establishable by signal processing of an optical signal received by the optical reception element, characterized in that the optical transmission element is arranged in a first focus of a first reflection element and the optical reception element is arranged in a first focus of a second reflection element, wherein the reflection elements (RE1, RE2) have an aspherical and concave embodiment and second foci (B21, B22) of the reflection elements (RE1, RE2) are positioned on the surface of the rotating disc away from a disc centre in such a way that an optical signal emitted by the optical transmission element and reflected by the reflecting region (3.1) of the surface of the rotating disc reaches the optical reception element.
A device (100, 100f, 100j, 100k, 100r, 100v, 100w, 100zc, 100zg, 100zh) for preparing a hair-treatment agent, comprising: a portable sensor device having at least one sensor (110, 110a) for detecting at least one sensor value on hairs of a user; a data-processing device (116, 116b, 116c, 116d) for determining a hair state of the user by means of the detected at least one sensor value, and for computer-aided determination of a user-specific hair-treatment agent taking into account the determined hair state; and a hair-treatment-agent mixing device (120, 120a, 120b) for producing the determined user-specific hair-treatment agent, the device being characterized in that the at least one sensor comprises at least one optical sensor (110c, 110e) for determining a content of a hair constituent of the hair of the user, the content of a hair constituent being at least one cysteic-acid content, and the determination of the hair state comprises at least determining a degree of damage to the hair. a portable sensor device having at least one sensor (110, 110a) for detecting at least one sensor value on hairs of a user; a data-processing device (116, 116b, 116c, 116d) for determining a hair state of the user by means of the detected at least one sensor value, and for computer-aided determination of a user-specific hair-treatment agent taking into account the determined hair state; and a hair-treatment-agent mixing device (120, 120a, 120b) for producing the determined user-specific hair-treatment agent, the device being characterized in that the at least one sensor comprises at least one optical sensor (110c, 110e) for determining a content of a hair constituent of the hair of the user, the content of a hair constituent being at least one cysteic-acid content, and the determination of the hair state comprises at least determining a degree of damage to the hair.
A tablet dosage form comprising a population of particles and an active ingredient to be released in the oral cavity for absorption through the oral mucosa, the population of particles comprising directly compressible and non-directly compressible (non-DC) sugar alcohol particles, the non-DC sugar alcohol particles having not been granulated prior to tableting and providing the tablet with a plurality of discrete non-DC areas evenly distributed in the tablet or at least one module of the tablet, wherein the tablet comprises said non-DC sugar alcohol particles in an amount of at least 10% by weight of the tablet, and wherein the tablet comprises said DC sugar alcohol particles in an amount of at least 20% by weight of the tablet.
A turbine wheel comprising: a rotor disk; a plurality of turbine blades, wherein each turbine blade is operatively connected to the rotor disk through a blade mount, wherein the blade mount is bonded to the rotor disk, wherein the blade mount and the rotor disk have a fore surface on a higher pressure side thereof, an aft surface on a lower pressure side thereof, wherein the blade mount comprises a blade attachment surface extending between and connecting the fore surface and the aft surface thereof, and wherein the turbine blade extends from the blade attachment surface; characterized in that: a gap is defined between adjacent blade mounts, separating the blade mounts and extending into the rotor disk, and wherein the gap comprises a pocket defined by and within adjacent blade mounts and having a fore opening in the fore surface; a rotor relief hole is defined by and within the rotor disk and having a rotor relief opening in the fore surface; and a pocket seal is disposed in the pocket. a rotor disk; a plurality of turbine blades, wherein each turbine blade is operatively connected to the rotor disk through a blade mount, wherein the blade mount is bonded to the rotor disk, wherein the blade mount and the rotor disk have a fore surface on a higher pressure side thereof, an aft surface on a lower pressure side thereof, wherein the blade mount comprises a blade attachment surface extending between and connecting the fore surface and the aft surface thereof, and wherein the turbine blade extends from the blade attachment surface; a gap is defined between adjacent blade mounts, separating the blade mounts and extending into the rotor disk, and wherein the gap comprises a pocket defined by and within adjacent blade mounts and having a fore opening in the fore surface; a rotor relief hole is defined by and within the rotor disk and having a rotor relief opening in the fore surface; and a pocket seal is disposed in the pocket.
A method for making nanostructures, the method comprising: providing an insulating substrate with one or more isolated metal islands on top of or embedded in the surface of the substrate; depositing a continuous electrically conducting helplayer over and covering the substrate surface and the one or more isolated metal islands; depositing a patterned layer of catalyst (102; 104) on the conducting helplayer over the one or more isolated metal islands; growing the nanostructures (106; 108) on the layer of catalyst (102; 104); and selectively removing the electrically conducting helplayer between and around the nanostructures using the nanostructures (106; 108) as a self-aligned mask. providing an insulating substrate with one or more isolated metal islands on top of or embedded in the surface of the substrate; depositing a continuous electrically conducting helplayer over and covering the substrate surface and the one or more isolated metal islands; depositing a patterned layer of catalyst (102; 104) on the conducting helplayer over the one or more isolated metal islands; growing the nanostructures (106; 108) on the layer of catalyst (102; 104); and selectively removing the electrically conducting helplayer between and around the nanostructures using the nanostructures (106; 108) as a self-aligned mask.
A system for positioning of a naso/orogastric feeding tube, comprising an interface adapted to receive a combined impedance measure comprising a plurality impedance readings from a plurality of impedance sensors disposed in a plurality of segments (151, 152) along a lateral surface of a naso/orogastric feeding tube; wherein one of said plurality of segments is located to be at least 1 centimeter above another of said plurality of segments when said naso/orogastric feeding tube is in a feeding position; a code store for storing a code; a processor coupled to said interface and said code store for implementing said stored code, the code comprising: code to calculate estimations of positions of said naso/orogastric feeding tube according to said combined impedance measure, and code to generate first instructions for a caregiver to push said naso/orogastric feeding tube and second instructions for said caregiver to pull said naso/orogastric feeding tube according to said estimations; and a man machine interface for presenting the instructions. code to calculate estimations of positions of said naso/orogastric feeding tube according to said combined impedance measure, and code to generate first instructions for a caregiver to push said naso/orogastric feeding tube and second instructions for said caregiver to pull said naso/orogastric feeding tube according to said estimations; and
A self-aligning roller bearing configured to support a main shaft of a wind power generator, the self-aligning roller bearing comprising: an inner ring; an outer ring; two rows of rollers (4, 5) interposed between a raceway surface (2a, 2b) of the inner ring and a raceway surface of the outer ring; and a retainer (10L, 10R) configured to retain the respective rows of the rollers (4, 5), wherein the raceway surface of the outer ring has a spherical shape continuously extending over the two rows of the rollers (4, 5), each of the rollers (4, 5) having an outer peripheral surface having a cross-sectional shape matching the raceway surface of the outer ring, each of the rollers (4, 5) has a DLC coating having a multilayer structure on the outer peripheral surface, the DLC coating has a film thickness of 2.0 μm or larger, a base layer directly formed on the surfaces of the rollers (4, 5) and mainly containing Cr and WC, a mixed layer formed on the base layer and mainly containing WC and DLC, and a top layer formed on the mixed layer and mainly containing DLC, the top layer includes a gradient layer portion which is located adjacent to the mixed layer and has continuously or stepwisely increasing hardness from the side of the mixed layer, a base material of each of the rollers (4, 5) has an external surface having a surface roughness of Ra ≤ 0.3 and RΔq ≤ 0.05, and the DLC coating having the multilayer structure includes layers having stepwisely increasing film hardnesses such that a layer situated closer to outside has a higher hardness. an inner ring; an outer ring; two rows of rollers (4, 5) interposed between a raceway surface (2a, 2b) of the inner ring and a raceway surface of the outer ring; and a retainer (10L, 10R) configured to retain the respective rows of the rollers (4, 5), wherein the raceway surface of the outer ring has a spherical shape continuously extending over the two rows of the rollers (4, 5), each of the rollers (4, 5) having an outer peripheral surface having a cross-sectional shape matching the raceway surface of the outer ring, each of the rollers (4, 5) has a DLC coating having a multilayer structure on the outer peripheral surface, the DLC coating has a film thickness of 2.0 μm or larger, a base layer directly formed on the surfaces of the rollers (4, 5) and mainly containing Cr and WC, a mixed layer formed on the base layer and mainly containing WC and DLC, and a top layer formed on the mixed layer and mainly containing DLC, the top layer includes a gradient layer portion which is located adjacent to the mixed layer and has continuously or stepwisely increasing hardness from the side of the mixed layer, a base material of each of the rollers (4, 5) has an external surface having a surface roughness of Ra ≤ 0.3 and RΔq ≤ 0.05, and the DLC coating having the multilayer structure includes layers having stepwisely increasing film hardnesses such that a layer situated closer to outside has a higher hardness.