mhurhangee/ep-ind-claims huggingface dataset:
A method for reprinting at least one individualized print copy, wherein the at least one individualized print copy to be reprinted is part of a set of print copies to be printed in a particular print job, wherein the set of printed print copies belonging to the particular print job is verified for completeness by a verifying device along a path (s) to be traversed by said print copies, wherein the at least one print copy to be reprinted is removed on his way along the path (s) from the set of print copies printed in the particular print job, wherein the respective removed individualized print copy is identified by an identification device, wherein the at least one respective identified print copy is reprinted in addition to the set of print copies printed in the particular print job by one printing mechanism individualizing at least one print copy as a consequence of a signal output to this printing mechanism by the identification device, characterized in that the identification device is provided with a speed signal (v) that indicates the speed at which the removed individualized print copy has been transported along the path (s), wherein the identification of the respective individualized print copy removed from the set of printed copies belonging to a particular print job is carried out by using the speed signal (v).
A method of testing vision for diagnosing the refractive state of the eye comprising the steps of: a) conducting objective refraction testing of the eyes of a sample of patients to obtain results indicating objective refractive characteristics of each patient's eyes; b) conducting subjective eye tests for the same sample of patients, with standard eye examinations to obtain refractive correction data with and without spherical and/or cylindrical correction in an attempt to achieve each patient's subjectively desired quality of vision; c) comparing the objective test results for each sample patient with the subjective test results for each same sample patient to determine a correlation between objectively determined refractive characteristics of the eyes and the subjectively determined desired quality of vision; characterised in that the method further comprises the step of d) conducting objective refraction test on a new patient and predicting corrective actions for producing subjectively desired qualities of vision based upon the correlation made using the objective and subjective test results for the sample of patients. a) conducting objective refraction testing of the eyes of a sample of patients to obtain results indicating objective refractive characteristics of each patient's eyes; b) conducting subjective eye tests for the same sample of patients, with standard eye examinations to obtain refractive correction data with and without spherical and/or cylindrical correction in an attempt to achieve each patient's subjectively desired quality of vision; c) comparing the objective test results for each sample patient with the subjective test results for each same sample patient to determine a correlation between objectively determined refractive characteristics of the eyes and the subjectively determined desired quality of vision; characterised in that the method further comprises the step of d) conducting objective refraction test on a new patient and predicting corrective actions for producing subjectively desired qualities of vision based upon the correlation made using the objective and subjective test results for the sample of patients.
A method for producing a treatment device equipped with a catalyst-supporting honeycomb structure, which is characterized in that the method comprises the steps of: applying a functional catalyst-containing slurry having an inorganic binder mixed therein on a flat glass paper containing an organic binder; placing and heating the slurry-applied flat glass paper on a corrugation mold of a high temperature, while shaping the glass paper with a presser jig and removing moisture in the slurry on the surface of the glass paper to dry the glass paper, thereby forming an inorganic binder-containing functional catalyst-supporting corrugated glass paper; releasing the inorganic binder-containing functional catalyst-supporting corrugated glass paper from the corrugation mold while holding the shape; meanwhile, placing and heating the slurry-applied flat glass paper on a flat mold of a high temperature to remove moisture in the slurry on the surface of the glass paper and dry the glass paper, thereby forming an inorganic binder-containing functional catalyst-supporting flat glass paper; releasing the inorganic binder-containing functional catalyst-supporting flat glass paper from the flat mold while holding the shape; and alternately stacking the inorganic binder-containing functional catalyst-supporting corrugated glass paper and the inorganic binder-containing functional catalyst-supporting flat glass paper and packing the stack in a casing. applying a functional catalyst-containing slurry having an inorganic binder mixed therein on a flat glass paper containing an organic binder; placing and heating the slurry-applied flat glass paper on a corrugation mold of a high temperature, while shaping the glass paper with a presser jig and removing moisture in the slurry on the surface of the glass paper to dry the glass paper, thereby forming an inorganic binder-containing functional catalyst-supporting corrugated glass paper; releasing the inorganic binder-containing functional catalyst-supporting corrugated glass paper from the corrugation mold while holding the shape; meanwhile, placing and heating the slurry-applied flat glass paper on a flat mold of a high temperature to remove moisture in the slurry on the surface of the glass paper and dry the glass paper, thereby forming an inorganic binder-containing functional catalyst-supporting flat glass paper; releasing the inorganic binder-containing functional catalyst-supporting flat glass paper from the flat mold while holding the shape; and alternately stacking the inorganic binder-containing functional catalyst-supporting corrugated glass paper and the inorganic binder-containing functional catalyst-supporting flat glass paper and packing the stack in a casing.
A process for preparing a multimodal ethylene copolymer in suspension in a reactor cascade comprising a first polymerization reactor and one or more subsequent polymerization reactors comprising, polymerizing, in the reactor cascade, ethylene and one or more C 3 -C 12 -1-alkenes at temperatures of from 40 to 150°C and pressures of from 0.1 to 20 MPa in the presence of a polymerization catalyst and forming a suspension of multimodal ethylene copolymer particles in a suspension medium comprising a diluent, transferring the suspension of multimodal ethylene copolymer particles into a separator, in which the suspension is separated into multimodal ethylene copolymer particles and recovered suspension medium, purifying a part of the recovered suspension medium in a purification section for producing purified components of the recovered suspension medium, and recycling at least some or a part of the purified components of the recovered suspension medium to the first polymerization reactor of the reactor cascade, wherein the purified components of the recovered suspension medium recycled to the first polymerization reactor, which comprise the diluent, undergo a catalytic hydrogenation before being introduced into the first polymerization reactor. polymerizing, in the reactor cascade, ethylene and one or more C 3 -C 12 -1-alkenes at temperatures of from 40 to 150°C and pressures of from 0.1 to 20 MPa in the presence of a polymerization catalyst and forming a suspension of multimodal ethylene copolymer particles in a suspension medium comprising a diluent, transferring the suspension of multimodal ethylene copolymer particles into a separator, in which the suspension is separated into multimodal ethylene copolymer particles and recovered suspension medium, purifying a part of the recovered suspension medium in a purification section for producing purified components of the recovered suspension medium, and recycling at least some or a part of the purified components of the recovered suspension medium to the first polymerization reactor of the reactor cascade, wherein the purified components of the recovered suspension medium recycled to the first polymerization reactor, which comprise the diluent, undergo a catalytic hydrogenation before being introduced into the first polymerization reactor.
Extractor hood for extracting cooking fumes above a hob, having - a housing, and - at least one height-adjustable suspension mount, which can be attached to a ceiling by means of suspension cables and on which the housing is suspended, and at least one adjustment motor that drives at least one winding and unwinding device of the extractor hood for the suspension cables, wherein the adjustment motor is mounted on a motor suspension mount of the extractor hood, characterised in that the motor suspension mount has a torque detection device, wherein the torque detection device detects a torque generated by the adjustment motor and is connected to a control device of the adjustment motor, wherein the control device is configured to stop the adjustment motor if the detected torque is outside of a predetermined target range, wherein the adjustment motor is rotatably mounted about an axis of rotation via the motor suspension mount, wherein the torque detection device comprises a load cell, via which the adjustment motor is rotationally supported, such that the load cell detects a torque acting with respect to the axis of rotation. - a housing, and - at least one height-adjustable suspension mount, which can be attached to a ceiling by means of suspension cables and on which the housing is suspended, and at least one adjustment motor that drives at least one winding and unwinding device of the extractor hood for the suspension cables, wherein the adjustment motor is mounted on a motor suspension mount of the extractor hood,
An organic light emitting display comprising: a light emitting device disposed in an emission area of a substrate, the light emitting device configured to emit internal light through the emission area of the substrate; a light-shielding reflective layer on the substrate overlapping a non-emission area of the substrate and configured to reflect external light which passes through the substrate; a transistor on the substrate, wherein an active layer of the transistor overlaps the light-shielding reflective layer; a light-shielding pad; and a flexible printed circuit board film; characterized in that the light-shielding pad is connected to the light-shielding reflective layer, and the flexible printed circuit board film has a signal supply terminal configured to supply a base voltage or a low voltage to the light-shielding reflective layer. a light emitting device disposed in an emission area of a substrate, the light emitting device configured to emit internal light through the emission area of the substrate; a light-shielding reflective layer on the substrate overlapping a non-emission area of the substrate and configured to reflect external light which passes through the substrate; a transistor on the substrate, wherein an active layer of the transistor overlaps the light-shielding reflective layer; a light-shielding pad; and a flexible printed circuit board film; characterized in that the light-shielding pad is connected to the light-shielding reflective layer, and the flexible printed circuit board film has a signal supply terminal configured to supply a base voltage or a low voltage to the light-shielding reflective layer.
Base for securing a child seat in a car comprising a chassis an horizontally rotating frame fitted to the chassis, onto which the seat is secured and means activated by a cam mechanism to lock the frame in its different rotating positions, characterised in that the frame has a round ring-shaped plate with grooves (6,6',6") in its inner periphery that fit into a wedge on the base chassis that can move round, wherein the wedge is activated by the cam mechanism governed from either of the two opposite controls (9,9') on the base.
A method of executing an application instance on a first processor, comprising: accepting a request in an orchestrator executing on a second processor to launch the application instance in the first processor; transmitting a command from the orchestrator to the first processor to launch the application instance; and provisioning a certificate and a private key from the orchestrator to the launched application instance executing on the first processor, the certificate and private key securing protected information of the application instance, wherein the private key is encrypted according to a key encryption key securely stored in an application image of the application instance; wherein the first processor decrypts the private key according to the key encryption key and re-encrypts the private key according to a local storage key. accepting a request in an orchestrator executing on a second processor to launch the application instance in the first processor; transmitting a command from the orchestrator to the first processor to launch the application instance; and provisioning a certificate and a private key from the orchestrator to the launched application instance executing on the first processor, the certificate and private key securing protected information of the application instance, wherein the private key is encrypted according to a key encryption key securely stored in an application image of the application instance; wherein the first processor decrypts the private key according to the key encryption key and re-encrypts the private key according to a local storage key.
Method of hot-rolling a metal strip, comprising the following steps: descaling the hot metal strip; and hot-rolling the descaled metal strip; wherein the descaling is carried out by means of at least one laser beam applied to the surface of the metal strip for removal of scale present thereat, wherein the wavelength of the laser is adapted to the scale; and wherein the hot-rolling is carried out directly after the descaling; characterised in that prior to the descaling, positions on the surface of the hot metal strip where the scale is present are localised; the laser beam is applied only to the localised positions; in addition to the localisation of the scale the following steps are performed: localisation of contaminants other than scale on the surface of the hot metal strip; delivering a scale substitute material, for example pulverulent iron oxide, onto the other localised contaminants; and applying the laser beam also to the scale substitute material for removal of the scale substitute material and simultaneous removal of the other contaminants on the surface of the metal strip under the scale substitute material prior to the hot-rolling of the metal strip. descaling the hot metal strip; and hot-rolling the descaled metal strip; wherein the descaling is carried out by means of at least one laser beam applied to the surface of the metal strip for removal of scale present thereat, wherein the wavelength of the laser is adapted to the scale; and wherein the hot-rolling is carried out directly after the descaling; characterised in that prior to the descaling, positions on the surface of the hot metal strip where the scale is present are localised; the laser beam is applied only to the localised positions; in addition to the localisation of the scale the following steps are performed: localisation of contaminants other than scale on the surface of the hot metal strip; delivering a scale substitute material, for example pulverulent iron oxide, onto the other localised contaminants; and applying the laser beam also to the scale substitute material for removal of the scale substitute material and simultaneous removal of the other contaminants on the surface of the metal strip under the scale substitute material prior to the hot-rolling of the metal strip. localisation of contaminants other than scale on the surface of the hot metal strip; delivering a scale substitute material, for example pulverulent iron oxide, onto the other localised contaminants; and applying the laser beam also to the scale substitute material for removal of the scale substitute material and simultaneous removal of the other contaminants on the surface of the metal strip under the scale substitute material prior to the hot-rolling of the metal strip.
A method for producing a strand-shaped semifinished product for electrical contacts, wherein the semifinished product has an upper face comprising a silver-based composite material intended for the electrical contact-making, one or more metal oxides or carbon being embedded in the composite material, and an easy-to-solder or easy-to-weld carrier layer of silver or a silver-base alloy, which carries the composite material, comprising the following steps: - producing a block from the silver-based composite material using a powder-metallurgical process; - covering the block comprising the composite material with a powder that primarily contains silver; - pressing the block covered with the metal powder so as to compact the metal powder; - sintering the pressed block; - working the sintered block by extrusion molding; - generating a partial strand having an upper face comprising composite material and a lower face comprising silver or a silver-base alloy. - producing a block from the silver-based composite material using a powder-metallurgical process; - covering the block comprising the composite material with a powder that primarily contains silver; - pressing the block covered with the metal powder so as to compact the metal powder; - sintering the pressed block; - working the sintered block by extrusion molding; - generating a partial strand having an upper face comprising composite material and a lower face comprising silver or a silver-base alloy.
A semiconductor package comprising: a lower redistribution line structure comprising a plurality of lower insulating layers and a plurality of lower redistribution line patterns respectively on at least one of top surfaces and bottom surfaces of the plurality of lower insulating layers; a plurality of first connection pillars on at least portions of the plurality of lower redistribution line patterns, respectively; an interposer (230, 231) apart from the plurality of first connection pillars on the lower redistribution line structure and comprising an interposer substrate, a plurality of connection wiring patterns on a top surface of the interposer substrate, and a plurality of second connection pillars on at least portions of the plurality of connection wiring patterns, respectively; an upper redistribution line structure comprising at least one upper insulating layer and a plurality of upper redistribution line patterns on a top surface or a bottom surface of the at least one upper insulating layer and connected to the plurality of first connection pillars and the plurality of second connection pillars, respectively; and at least two semiconductor chips on the upper redistribution line structure, electrically connected to the plurality of upper redistribution line patterns, and apart from each other, and characterized in that a lowermost portion of the plurality of first connection pillars is at a level lower than a bottom surface of the interposer (230, 231). a lower redistribution line structure comprising a plurality of lower insulating layers and a plurality of lower redistribution line patterns respectively on at least one of top surfaces and bottom surfaces of the plurality of lower insulating layers; a plurality of first connection pillars on at least portions of the plurality of lower redistribution line patterns, respectively; an interposer (230, 231) apart from the plurality of first connection pillars on the lower redistribution line structure and comprising an interposer substrate, a plurality of connection wiring patterns on a top surface of the interposer substrate, and a plurality of second connection pillars on at least portions of the plurality of connection wiring patterns, respectively; an upper redistribution line structure comprising at least one upper insulating layer and a plurality of upper redistribution line patterns on a top surface or a bottom surface of the at least one upper insulating layer and connected to the plurality of first connection pillars and the plurality of second connection pillars, respectively; and at least two semiconductor chips on the upper redistribution line structure, electrically connected to the plurality of upper redistribution line patterns, and apart from each other, and characterized in that a lowermost portion of the plurality of first connection pillars is at a level lower than a bottom surface of the interposer (230, 231).
Brass alloy with improved dezincification resistance, machinability, and protection against intergranular grain boundary corrosion, comprising a. 62-68 % by weight of Cu, b. 0.02-1.00 % by weight of Pb, c. ≤0.02 % by weight of As, d. 0.01-0.06 % by weight of P and/or 0.01-0.06 % by weight of Sb, e. balance Zn and unavoidable impurities, characterized in that the brass alloy comprises <5 % of β-phase, preferably ≤1 % of β-phase. a. 62-68 % by weight of Cu, b. 0.02-1.00 % by weight of Pb, c. ≤0.02 % by weight of As, d. 0.01-0.06 % by weight of P and/or 0.01-0.06 % by weight of Sb, e. balance Zn and unavoidable impurities,
A pharmaceutical composition for use in the prevention or treatment of bone diseases, comprising a compound represented by the following Chemical Formula 1 or a pharmaceutically acceptable salt thereof.
A compound of formula I: in which n represents the number of carbons and n=1-18, and R 1 is selected from the group consisting of an isothiocyanate and a substituted isothiocyanate having the structure S=C=N-R2-, in which R 2 is selected from the group consisting of substituted alkylene, substituted isoalkylene, substituted alkenylene and substituted isoalkenylene, wherein each R 2 is substituted with a moiety selected from the group consisting of halogen, a heterocyclic amine, and an alkylamine.
A method of communicating along a neural pathway, the method comprising: stimulating the neural pathway at a first location by delivering a peripheral sensory input, in order to evoke neural responses which propagate along the neural pathway, the neural responses being modulated with data; an implanted device sensing the evoked neural responses at a second location spaced apart from the first location along the neural pathway, and the implanted device demodulating the sensed neural responses to retrieve the data, the data being configured to control or alter the operation of the implanted device. stimulating the neural pathway at a first location by delivering a peripheral sensory input, in order to evoke neural responses which propagate along the neural pathway, the neural responses being modulated with data; an implanted device sensing the evoked neural responses at a second location spaced apart from the first location along the neural pathway, and the implanted device demodulating the sensed neural responses to retrieve the data, the data being configured to control or alter the operation of the implanted device.
A process for the purification of a crude liquid feed stream comprising 1,4-butanediol and a minor amount of 2-(4-hydroxybutoxy)-tetrahydrofuran and/or precursors thereof wherein the process comprises passing the crude liquid feed in the presence of hydrogen in a reaction zone over a heterogeneous liquid tolerant copper catalyst in the liquid phase at hydrogenation conditions and recovering a purified stream of 1,4-butanediol having a lower amount of 2-(4-hydroxybutoxy)-tetrahydrofuran than the crude liquid feed stream, wherein the crude liquid feed is a product stream from the vapour hydrogenation of dialkyl maleates which has not been subjected to prior purification.