mhurhangee/ep-ind-claims huggingface dataset:
A measurement device that measures a shape of an object to be measured, comprising: a processing unit configured to obtain information on the shape of the object to be measured on a basis of an image obtained by imaging the object to be measured on which a pattern light has been projected including a plurality of lines in which a distinguishing portion that distinguishes the lines from each other has been provided in each line, wherein the processing unit is configured to acquire, from a luminosity distribution of the image, in an evaluation section (A,B,C) extending in a direction intersecting the lines of the pattern light, a plurality of positions including a peak position in which luminance is local maximum and a negative peak position in which the luminance is local minimum, wherein the processing unit is configured to specify a position of a distinguishing portion from among the plurality of positions in an evaluation section passing through the distinguishing portion, and to specify, from among said plurality of positions, a position next to the specified position of the distinguishing portion, and wherein the processing unit is configured to obtain the information on the shape of the object to be measured based on the plurality of positions, including the specified position of the distinguishing portion, but not based on the specified position next to the specified position of the distinguishing portion. a processing unit configured to obtain information on the shape of the object to be measured on a basis of an image obtained by imaging the object to be measured on which a pattern light has been projected including a plurality of lines in which a distinguishing portion that distinguishes the lines from each other has been provided in each line, wherein the processing unit is configured to acquire, from a luminosity distribution of the image, in an evaluation section (A,B,C) extending in a direction intersecting the lines of the pattern light, a plurality of positions including a peak position in which luminance is local maximum and a negative peak position in which the luminance is local minimum, wherein the processing unit is configured to specify a position of a distinguishing portion from among the plurality of positions in an evaluation section passing through the distinguishing portion, and to specify, from among said plurality of positions, a position next to the specified position of the distinguishing portion, and wherein the processing unit is configured to obtain the information on the shape of the object to be measured based on the plurality of positions, including the specified position of the distinguishing portion, but not based on the specified position next to the specified position of the distinguishing portion.
A video decoding apparatus, comprising: a decoding unit configured to obtain an absolute value of a differential quantization parameter and a sign value of the differential quantization parameter from a bit stream, and to decode in an order from the absolute value of the differential quantization parameter to the sign value of the differential quantization parameter, wherein the differential quantization parameter is a difference between a quantization parameter of a current coding unit and a predicted quantization parameter of the current coding unit, and the bit stream is obtained by encoding in syntax in a manner of separating the differential quantization parameter into an absolute value and a sign value and setting as a parameter of the bit stream in an order from the absolute value of the differential quantization parameter to the sign value of the differential quantization parameter; and an inverse quantizing unit configured to set the differential quantization parameter according to the absolute value of the differential quantization parameter and the sign value of the differential quantization parameter obtained by decoding with the decoding unit and to inversely quantize quantized data obtained by decoding the bit stream by using the quantization parameter of the current coding unit obtained based on the set differential quantization parameter. a decoding unit configured to obtain an absolute value of a differential quantization parameter and a sign value of the differential quantization parameter from a bit stream, and to decode in an order from the absolute value of the differential quantization parameter to the sign value of the differential quantization parameter, wherein the differential quantization parameter is a difference between a quantization parameter of a current coding unit and a predicted quantization parameter of the current coding unit, and the bit stream is obtained by encoding in syntax in a manner of separating the differential quantization parameter into an absolute value and a sign value and setting as a parameter of the bit stream in an order from the absolute value of the differential quantization parameter to the sign value of the differential quantization parameter; and an inverse quantizing unit configured to set the differential quantization parameter according to the absolute value of the differential quantization parameter and the sign value of the differential quantization parameter obtained by decoding with the decoding unit and to inversely quantize quantized data obtained by decoding the bit stream by using the quantization parameter of the current coding unit obtained based on the set differential quantization parameter.
A fuel line, in particular a fuel line for a gasoline direct injection line system, with an internal steel pipe and an external steel pipe, wherein the internal steel pipe is positively accommodated in the external steel pipe, wherein the internal steel pipe is made out of a corrosion-resistant steel, wherein the external steel pipe is made out of an external steel pipe alloy, wherein a wall thickness of the internal steel pipe is smaller than a wall thickness of the external steel pipe, characterized in that a maximum carbon content of the external steel pipe alloy is higher than a maximum carbon percentage of the corrosion-resistant steel, and a thickness of the fuel line (1, 1') measures between 5 % and 60 % of an inner diameter of the fuel line (1, 1').
A method for determining information about changes along at least one degree of freedom of an encoder scale, the method comprising: deriving a first beam and a second beam from an input beam using a beam splitter (PBS, NPBS); directing the first beam and the second beam along different paths and combining the first and second beams to form an output beam (132, 1401) using the beam splitter (PBS, NPBS), where the first and second beams have different frequencies, where the first beam contacts the encoder scale at a non-Littrow angle and the first beam diffracts from the encoder scale at least once; detecting an interference signal based on the output beam (132, 1401), the interference signal comprising a heterodyne phase related to an optical path difference between the first beam and the second beam; and determining information about the at least one degree of freedom of the encoder scale based on the heterodyne phase, wherein the encoder scale extends in a plane and the at least one degree of freedom comprises a degree of freedom orthogonal to the plane of the encoder scale. deriving a first beam and a second beam from an input beam using a beam splitter (PBS, NPBS); directing the first beam and the second beam along different paths and combining the first and second beams to form an output beam (132, 1401) using the beam splitter (PBS, NPBS), where the first and second beams have different frequencies, where the first beam contacts the encoder scale at a non-Littrow angle and the first beam diffracts from the encoder scale at least once; detecting an interference signal based on the output beam (132, 1401), the interference signal comprising a heterodyne phase related to an optical path difference between the first beam and the second beam; and determining information about the at least one degree of freedom of the encoder scale based on the heterodyne phase, wherein the encoder scale extends in a plane and the at least one degree of freedom comprises a degree of freedom orthogonal to the plane of the encoder scale.
A pharmaceutical composition comprising an IL-6 inhibitor as an active ingredient for use in preventing and/or treating a disease involving choroidal neovascularization, wherein the IL-6 inhibitor is an antibody that recognizes an IL-6, wherein the disease involving choroidal neovascularization is age-related macular degeneration, myopic choroidal neovascularization or idiopathic choroidal neovascularization.
A circuitry for a terminal device, the circuitry comprising: receiver circuitry configured to receive parameter data from a base station in a cellular wireless telecommunication network, a storage device configured to store an identifier that uniquely identifies the terminal device and control circuitry configured to control the terminal device, when operating in an idle mode, to perform cell reselection using at least one cell reselection parameter, being a cell reselection offset or priority, derived from the received parameter data and the stored unique identifier.
Multilayer article for a food product comprising successively: - a non-woven layer of fibers comprising at least 50% by weight of at least one biodegradable polymer the melting point of which is below 220°C; - a layer of food-safe adhesive; - a cellulose-fiber based support, characterized in that the cellulose-fiber based support comprises a greaseproof paper. - a non-woven layer of fibers comprising at least 50% by weight of at least one biodegradable polymer the melting point of which is below 220°C; - a layer of food-safe adhesive; - a cellulose-fiber based support,
A solution-dyed protein fiber that is a protein fiber composed of at least one selected from silk fibroin and spider silk protein, the solution-dyed protein fiber comprising 0-100 mass% of silk fibroin and 100-0 mass% of a polypeptide derived from spider silk proteins when the protein fiber is assumed to be 100 mass%, wherein the solution-dyed protein fiber: contains a solution-dyeing colorant which has been dissolved or dispersed in a solution selected from dimethyl sulfoxide and N,N-dimethylformamide.
An operating unit for a medical lamp, in particular for an operating lamp or an examination lamp, comprising at least one operating element for setting the size of a light field generated by the lamp at a predefined position; an electronic interface for outputting control signals for the size of the light field to a control device of the lamp; and a screen for displaying the currently set size of the light field, characterized in that the operating unit is configured to display a model-like representation of at least one lamp body of the lamp, including a light cone emanating from the lamp body, on the screen during the operation of the lamp and to change the shape of the light cone in the representation correspondingly on an adjustment of the size of the light field by means of the operating element.
A method for generating sorting lists for sorting mailpieces and/or for evaluating a mail volume accumulated during the sorting of the mailpieces, in which data objects that are relevant for the sorting of the mailpieces are generated and processed, whereby a result of the processing of a data object in a first data processing system is transmitted to a second data processing system for further processing, whereby, in the data processing systems (22; 23), a definition list is available that contains associations between the data objects and an unambiguous identifier (RIO-ID) and in which attributes of the data objects are indicated, whereby the unambiguous identifier (RIO-ID) of the data object is contained in the result of the processing of the data object, and the second data processing system ascertains the attributes of the data object on the basis of the identifier from the definition list and carries out the further processing of the result of the processing of the data object in the first data processing system (22; 23) on the basis of the ascertained attributes, so that the attributes of the data object required for the further processing do not have to be transmitted from the first data processing system (22; 23) to the second data processing system, and whereby each data object is associated with a data processing system with versioning autarchy in which the definition list with the association between the data object and the identifier (RIO-ID) is generated, and which makes the definition list available to other data processing systems, so that, on the basis of the definition list, a uniform data stock is ensured on the first data processing system and on the second data processing system.
An optical sensor (100, 200, 311, 501-510) comprising: a photodetector; and a light source disposed on the photodetector, wherein the optical sensor (100, 200, 311, 501-510) is configured to operate the light source in a light source mode, and operate the photodetector in a photodetector mode, based on a control signal, and wherein the control signal comprises mode selection information indicating one among the light source mode and the photodetector mode that is selected, and mode duration information of the selected one among the light source mode and the photodetector mode, characterized in that in the light source mode, only the light source operates and the photodetector does not operate, and in the photodetector mode, only the photodetector operates and the light source does not operate. a photodetector; and a light source disposed on the photodetector, wherein the optical sensor (100, 200, 311, 501-510) is configured to operate the light source in a light source mode, and operate the photodetector in a photodetector mode, based on a control signal, and wherein the control signal comprises mode selection information indicating one among the light source mode and the photodetector mode that is selected, and mode duration information of the selected one among the light source mode and the photodetector mode, characterized in that in the light source mode, only the light source operates and the photodetector does not operate, and in the photodetector mode, only the photodetector operates and the light source does not operate.
A method of sending traffic data and control information in a wireless communication system, comprising: performing beamforming for traffic data based on a precoding matrix; performing beamforming for control information based on the precoding matrix; sending the beamformed traffic data on a first physical channel; sending the beamformed control information on a second physical channel; and sending non-beamformed control information in a first section of a resource block, and wherein the sending the beamformed control information comprises sending the beamformed control information in a second section of the resource block. performing beamforming for traffic data based on a precoding matrix; performing beamforming for control information based on the precoding matrix; sending the beamformed traffic data on a first physical channel; sending the beamformed control information on a second physical channel; and sending non-beamformed control information in a first section of a resource block, and wherein the sending the beamformed control information comprises sending the beamformed control information in a second section of the resource block.
Method for controlling a series resonant converter, the series resonant converter comprising a primary circuit and a secondary circuit, the primary circuit or the secondary circuit comprising a series resonant oscillating circuit, the series resonant oscillating circuit comprising at least one capacitance C 1 and at least one inductance L i, a link voltage U dc being applied to the primary circuit, and the secondary circuit providing an average output current I out, characterized in that the control of the series resonant converter is carried out by adjusting an averaged value of the output current I out by using a transfer function, the transfer function being a function of the link voltage U dc, the output voltage U Cout, the inductance L i, a switching period t p and a duty cycle D, at least the switching period t p and/or the duty cycle D being adjusted.
Heating device consisting of a film composite with an electrically insulating carrier film and a cover film, wherein resistance elements are arranged on the carrier film as flat heating elements, as well as electrodes, wherein the electrodes connect the resistance elements to connection points for the connection of a power supply, wherein the heating elements are designed in the form of a plurality of heating fields lying next to each other on the carrier film, and wherein the cover film is attached to the carrier film using adhesive, characterized in that the heating fields are respectively surrounded in their peripheral region by webs of cured hot-melt adhesive, wherein the cover film is attached to the carrier film using the webs of cured hot-melt adhesive and the webs of cured hot-melt adhesive protrude over the heating fields in the direction of the cover film.
A substantially flat plate-like laminated base material including at least a layer shaped body α and a high-flowability layer shaped body β that are laid one on the other or side by side, the layer shaped body α having one or more plies of incised prepreg A each containing unidirectionally oriented reinforcement fibers that are impregnated with a resin composition, account for a fiber volume fraction of 45% to 65%, and are at least partly cut by a plurality of incisions to a fiber length of 10 to 300 mm, and the high-flowability layer shaped body β having one or more base plies B each containing reinforcement fibers with a fiber length in the range of 10 to 300 mm impregnated with a resin composition, wherein the base material B contains a plurality of unidirectionally paralleled reinforcement fiber bundles and the base material B is an incised prepreg B that is produced by preparing a prepreg containing unidirectionally oriented reinforcement fibers impregnated with a resin composition in such a manner that the fiber volume fraction of the incised prepreg B is smaller than the fiber volume fraction of the incised prepreg A, and by cutting all the reinforcement fibers by making a plurality of incisions; or wherein the base material B contains reinforcement fiber bundles oriented in five or more directions, and the base material B contains reinforcement fibers with a fiber length in the range of 25 to 50 mm and has a fiber volume fraction of 30% to 45%. the layer shaped body α having one or more plies of incised prepreg A each containing unidirectionally oriented reinforcement fibers that are impregnated with a resin composition, account for a fiber volume fraction of 45% to 65%, and are at least partly cut by a plurality of incisions to a fiber length of 10 to 300 mm, and the high-flowability layer shaped body β having one or more base plies B each containing reinforcement fibers with a fiber length in the range of 10 to 300 mm impregnated with a resin composition, wherein the base material B contains a plurality of unidirectionally paralleled reinforcement fiber bundles and the base material B is an incised prepreg B that is produced by preparing a prepreg containing unidirectionally oriented reinforcement fibers impregnated with a resin composition in such a manner that the fiber volume fraction of the incised prepreg B is smaller than the fiber volume fraction of the incised prepreg A, and by cutting all the reinforcement fibers by making a plurality of incisions; or wherein the base material B contains reinforcement fiber bundles oriented in five or more directions, and the base material B contains reinforcement fibers with a fiber length in the range of 25 to 50 mm and has a fiber volume fraction of 30% to 45%.
A process for manufacturing a wire comprising at least the following steps: a. providing a wire precursor comprising a copper core with a surface and a coating layer, which coating layer is superimposed over the surface of the copper core, wherein the coating layer comprises aluminium, wherein in a cross-sectional view of the wire precursor the area share of the coating layer is in the range of from 20 to 50 %, based on the total area of the cross-section of the wire precursor, and wherein the aspect ratio between the longest path and the shortest path through the wire precursor in a cross-sectional view is in the range of from larger than 0.8 to 1.0, wherein the wire precursor has a diameter in the range of from 0.5 to 5 mm. b. shaping the wire precursor, c. annealing the shaped wire precursor, whereby the wire is obtained, wherein the wire has a diameter in the range of from 100 μm to 600 μm, wherein the annealing is performed at a temperature in the range of from 140 °C to 400 °C over a period of from 30 minutes to 5 hours, wherein an intermediate layer is formed in step c. a. providing a wire precursor comprising a copper core with a surface and a coating layer, which coating layer is superimposed over the surface of the copper core, wherein the coating layer comprises aluminium, wherein in a cross-sectional view of the wire precursor the area share of the coating layer is in the range of from 20 to 50 %, based on the total area of the cross-section of the wire precursor, and wherein the aspect ratio between the longest path and the shortest path through the wire precursor in a cross-sectional view is in the range of from larger than 0.8 to 1.0, wherein the wire precursor has a diameter in the range of from 0.5 to 5 mm. wherein in a cross-sectional view of the wire precursor the area share of the coating layer is in the range of from 20 to 50 %, based on the total area of the cross-section of the wire precursor, and wherein the aspect ratio between the longest path and the shortest path through the wire precursor in a cross-sectional view is in the range of from larger than 0.8 to 1.0, wherein the wire precursor has a diameter in the range of from 0.5 to 5 mm. b. shaping the wire precursor, c. annealing the shaped wire precursor, whereby the wire is obtained, wherein the wire has a diameter in the range of from 100 μm to 600 μm, wherein the annealing is performed at a temperature in the range of from 140 °C to 400 °C over a period of from 30 minutes to 5 hours, wherein an intermediate layer is formed in step c.
A catheter comprising: an elongated catheter body; a distal assembly having a tip electrode; a tubing between the catheter body and the distal assembly, the tubing having a lumen, the tubing having a first flexibility; a mandrel having an elongated body with a second flexibility less than the first flexibility, the elongated body situated in the lumen and having a predetermined curvature, wherein the tubing is configured to adopt the predetermined curvature and allow the mandrel rotational movement within the lumer, characterised in the mandrel being unfixed to and detached from the catheter along the entire elongated body of said mandrel. an elongated catheter body; a distal assembly having a tip electrode; a tubing between the catheter body and the distal assembly, the tubing having a lumen, the tubing having a first flexibility; a mandrel having an elongated body with a second flexibility less than the first flexibility, the elongated body situated in the lumen and having a predetermined curvature, wherein the tubing is configured to adopt the predetermined curvature and allow the mandrel rotational movement within the lumer, characterised in the mandrel being unfixed to and detached from the catheter along the entire elongated body of said mandrel.