mhurhangee/ep-ind-claims huggingface dataset:
A permanent magnet rotating machine having a stator, in which armature windings are formed in a plurality of slots formed in at least one stator iron core, and also having a rotor, in which two magnet insertion slots are formed for each pole in at least one rotor iron core in a V shape when viewed from the outer circumference of the rotor and one permanent magnet is embedded in each magnet insertion slot with polarity alternating for each pole, wherein: a wall at an end on an external diameter side of the magnet insertion slot is formed with three arcs (R1, RC, RC) having different curvatures, the arcs being denoted R1, RC, and R2 in the order from the center of a pole toward an part between magnetic poles, RC being parallel to the outer circumference of the rotor, the curvature of R2 being larger than the curvature of R1; and a wall at another end on an internal diameter side of the magnet insertion slot is formed in a semicircular shape. a wall at an end on an external diameter side of the magnet insertion slot is formed with three arcs (R1, RC, RC) having different curvatures, the arcs being denoted R1, RC, and R2 in the order from the center of a pole toward an part between magnetic poles, RC being parallel to the outer circumference of the rotor, the curvature of R2 being larger than the curvature of R1; and a wall at another end on an internal diameter side of the magnet insertion slot is formed in a semicircular shape.
A method of manufacturing a display device comprising: (a) providing a carrier substrate; (b) disposing a layer of an organic coating on a surface of the carrier substrate; (c) disposing a layer of one or more oxymetal precursor materials on the organic coating layer, the oxymetal precursor material comprising one or more metal atoms and one or more ligands; (d) curing the layer of oxymetal precursor material to form an oxymetal layer; (e) forming a flexible substrate layer on the oxymetal layer; (f) forming one or more devices on the flexible substrate layer; and (g) separating the flexible substrate layer from the carrier substrate, the flexible substrate layer being separated from the oxymetal layer by irradiating a back side of the carrier substrate with a laser.
A power tool comprising: a housing; a brushless DC motor housed inside an upper body of the housing; a control unit housed inside a handle of the housing, the control unit comprising a micro-controller mounted on a control circuit board, a power unit electronically coupled to the micro-controller and mounted on a power circuit board arranged substantially parallel the control circuit board inside the handle, and a heat sink in thermal contact with the power unit; and an input unit, a portion of which is integrally mounted on the control circuit board; wherein the control unit further comprises a potted control unit including a potting boat and a potting compound, the potting boat containing the control circuit board and the power circuit board, the potting boat having a cut-out portion to facilitate mounting the input unit on the control circuit board, characterized in that the cut-out portion of the potting boat includes a groove and the input unit includes a tongue fittingly corresponding to the groove to form a labyrinth to form a dam for the potting process which traps the potting compound inside the potting boat and prevents it from pouring out of the potting boat. a housing; a brushless DC motor housed inside an upper body of the housing; a control unit housed inside a handle of the housing, the control unit comprising a micro-controller mounted on a control circuit board, a power unit electronically coupled to the micro-controller and mounted on a power circuit board arranged substantially parallel the control circuit board inside the handle, and a heat sink in thermal contact with the power unit; and an input unit, a portion of which is integrally mounted on the control circuit board; wherein the control unit further comprises a potted control unit including a potting boat and a potting compound, the potting boat containing the control circuit board and the power circuit board, the potting boat having a cut-out portion to facilitate mounting the input unit on the control circuit board, characterized in that the cut-out portion of the potting boat includes a groove and the input unit includes a tongue fittingly corresponding to the groove to form a labyrinth to form a dam for the potting process which traps the potting compound inside the potting boat and prevents it from pouring out of the potting boat.
Powder having a BET value of less than 10 m 2 /g, comprising particles comprising a matrix material and silicon-based domains dispersed in this matrix material, whereby the matrix material is carbon or a material that can be thermally decomposed to carbon, characterized in that either part of the silicon-based domains are present in the form of agglomerates of silicon-based domains whereby at least 98% of these agglomerates have a maximum size of 1μm or less, or the silicon-based domains are not at all agglomerated into agglomerates.
An authentication document to authenticate a document reader, including: a document body; a light guide structure, which is formed in the document body; a light source, which is configured to radiate a first light to the document reader, wherein the first light can be at least partially radiated into the light guide structure; and a molecular layer, which is arranged on the document body, wherein the molecular layer is configured to spectrally change a second light that is radiating into the light guide structure; wherein the light guide structure is configured to spectrally overlay the first light with the spectrally changed second light, to generate an overlay light to authenticate the document reader, wherein the molecular layer can be transilluminated with the second light that is irradiating into the light guide structure, wherein the molecular layer is configured to spectrally change the second light when the molecular layer is transilluminated, in particular spectrally change the second light by means of light absorption in the molecular layer, wherein the light guide structure comprises an optical output, wherein the light guide structure is configured to radiate the overlay light from the optical output. a document body; a light guide structure, which is formed in the document body; a light source, which is configured to radiate a first light to the document reader, wherein the first light can be at least partially radiated into the light guide structure; and a molecular layer, which is arranged on the document body, wherein the molecular layer is configured to spectrally change a second light that is radiating into the light guide structure; wherein the light guide structure is configured to spectrally overlay the first light with the spectrally changed second light, to generate an overlay light to authenticate the document reader, wherein the molecular layer can be transilluminated with the second light that is irradiating into the light guide structure, wherein the molecular layer is configured to spectrally change the second light when the molecular layer is transilluminated, in particular spectrally change the second light by means of light absorption in the molecular layer, wherein the light guide structure comprises an optical output, wherein the light guide structure is configured to radiate the overlay light from the optical output.
A method for performing an immunoassay of a biological fluid sample for the quantization of a target analyte in a thin film sample chamber wherein the chamber has a thickness of 10μm or less, said method comprising the steps of: providing a plurality of target analyte specific capture antibodies or ligands, sufficient to bind all of the added target analyte, which are fixed to a surface of a thin film sample assay chamber or to immobilized structures in the analysis chamber, said capture antibodies or ligands being specific to a first epitope or epitopes on target analyte molecules which are present in said biological fluid sample; filling said sample assay chamber with a mixture of said biological fluid sample and fluorescent nanoparticles (8, 8', 10, 10') coupled to antibodies that selectively bind to a second epitope or epitopes on target analyte molecules which are present in said biological fluid sample; and imaging said quiescent sample in said sample assay chamber and counting target analyte molecules which are captured by said immobile capture antibodies or ligands and made detectable by imaging the immobilized fluorescent nanoparticles (10, 10') coupled to antibodies that are bound to a second epitope on the immobilized target analyte. providing a plurality of target analyte specific capture antibodies or ligands, sufficient to bind all of the added target analyte, which are fixed to a surface of a thin film sample assay chamber or to immobilized structures in the analysis chamber, said capture antibodies or ligands being specific to a first epitope or epitopes on target analyte molecules which are present in said biological fluid sample; filling said sample assay chamber with a mixture of said biological fluid sample and fluorescent nanoparticles (8, 8', 10, 10') coupled to antibodies that selectively bind to a second epitope or epitopes on target analyte molecules which are present in said biological fluid sample; and imaging said quiescent sample in said sample assay chamber and counting target analyte molecules which are captured by said immobile capture antibodies or ligands and made detectable by imaging the immobilized fluorescent nanoparticles (10, 10') coupled to antibodies that are bound to a second epitope on the immobilized target analyte.
A portable textile treatment device (1, 1a, 1b, 1c, 1d, 1e, 1g, 1h) comprising: - a heatable soleplate intended to be in contact with a textile for treating the textile, said heatable soleplate comprising a soleplate opening, - a module comprising an image sensor (5, 5b) for taking an image of the textile to be treated through said soleplate opening, and - a control unit configured for: a) executing an algorithm stored in said portable textile treatment device, using the taken image as an input of said algorithm, to obtain a classification of the textile, wherein said classification is defined as a fabric type of the textile, or a fabric level of delicateness for treating the textile, and b) controlling, based on said classification, at least one operating parameter of the portable textile treatment device, wherein: - the module and the control unit are integrated within the portable textile treatment device, - the portable textile treatment device further comprises thermal insulation means arranged in-between said heatable soleplate and said module for insulating said module from heat dissipated by said heatable soleplate, characterised in that the image sensor comprises an active surface sensitive to light which is oriented with respect to the surface of the heatable soleplate with an absolute value of an orientation angle being in the range from 15 to 70 degrees. - a heatable soleplate intended to be in contact with a textile for treating the textile, said heatable soleplate comprising a soleplate opening, - a module comprising an image sensor (5, 5b) for taking an image of the textile to be treated through said soleplate opening, and - a control unit configured for: a) executing an algorithm stored in said portable textile treatment device, using the taken image as an input of said algorithm, to obtain a classification of the textile, wherein said classification is defined as a fabric type of the textile, or a fabric level of delicateness for treating the textile, and b) controlling, based on said classification, at least one operating parameter of the portable textile treatment device, a) executing an algorithm stored in said portable textile treatment device, using the taken image as an input of said algorithm, to obtain a classification of the textile, wherein said classification is defined as a fabric type of the textile, or a fabric level of delicateness for treating the textile, and b) controlling, based on said classification, at least one operating parameter of the portable textile treatment device, - the module and the control unit are integrated within the portable textile treatment device, - the portable textile treatment device further comprises thermal insulation means arranged in-between said heatable soleplate and said module for insulating said module from heat dissipated by said heatable soleplate,
A drug delivery device, comprising: a plurality of peristaltic pumps extending from a surface of the drug delivery device; and a door having an inner surface and comprising a plurality of spring-loaded members exposed along the inner surface, each of the spring-loaded members defining a recess configured to receive a portion of one of the pumps when the door is closed, wherein, when a fluid line is positioned in the recesses and the door is closed, the fluid line is compressed between the respective spring-loaded member and the respective pump in a manner such that the fluid line is occluded in at least one location, wherein springs of the spring-loaded members connect the members to the door and are adjustable or replaceable to change a force applied to rollers of the respective pump during operation of the respective pump. a plurality of peristaltic pumps extending from a surface of the drug delivery device; and a door having an inner surface and comprising a plurality of spring-loaded members exposed along the inner surface, each of the spring-loaded members defining a recess configured to receive a portion of one of the pumps when the door is closed, wherein, when a fluid line is positioned in the recesses and the door is closed, the fluid line is compressed between the respective spring-loaded member and the respective pump in a manner such that the fluid line is occluded in at least one location, wherein springs of the spring-loaded members connect the members to the door and are adjustable or replaceable to change a force applied to rollers of the respective pump during operation of the respective pump.
Method for controlling a missile in which an object is identified in a search image, wherein a) the object and surroundings around the object are recorded by an optics unit, swivellable by way of a drive, of a camera that is a constituent part of a seeker head of the missile or of a start-up device of the missile, b) a search space is completely covered by a sequence of recorded images recorded immediately in succession, which are recorded during continuous swivelling of the optics unit in such a way that the optics unit is swivelled in the surroundings during the integration of each recorded image, c) search images are back calculated from the recorded images using the point spread function and using the swivelling movement of the optics unit captured by a swivel capture unit and the search images are searched for the object and, should the object be identified, the latter is marked as target of the missile in the corresponding search image, respectively by an image processing unit. a) the object and surroundings around the object are recorded by an optics unit, swivellable by way of a drive, of a camera that is a constituent part of a seeker head of the missile or of a start-up device of the missile, b) a search space is completely covered by a sequence of recorded images recorded immediately in succession, which are recorded during continuous swivelling of the optics unit in such a way that the optics unit is swivelled in the surroundings during the integration of each recorded image, c) search images are back calculated from the recorded images using the point spread function and using the swivelling movement of the optics unit captured by a swivel capture unit and the search images are searched for the object and, should the object be identified, the latter is marked as target of the missile in the corresponding search image, respectively by an image processing unit.
A light source unit comprising: a wiring board; a plurality of wiring electrodes (310, 320, 330, 340, 350) disposed on the wiring board; a plurality of semiconductor light emitting devices connected between two of the plurality of wiring electrodes (310, 320, 330, 340, 350); and and a reflection layer of metal disposed under the wiring board, wherein the plurality of wiring electrodes (310, 320, 330, 340, 350) are connected in series with each other by the plurality of semiconductor light emitting devices, wherein at least one of the plurality of semiconductor light emitting devices is connected between two consecutive wiring electrodes (310, 320, 330, 340, 350) among the plurality of wiring electrodes (310, 320, 330, 340, 350), characterized in that the reflection layer is provided with a power connection part for supplying power to the reflection layer. a wiring board; a plurality of wiring electrodes (310, 320, 330, 340, 350) disposed on the wiring board; a plurality of semiconductor light emitting devices connected between two of the plurality of wiring electrodes (310, 320, 330, 340, 350); and and a reflection layer of metal disposed under the wiring board, wherein the plurality of wiring electrodes (310, 320, 330, 340, 350) are connected in series with each other by the plurality of semiconductor light emitting devices, wherein at least one of the plurality of semiconductor light emitting devices is connected between two consecutive wiring electrodes (310, 320, 330, 340, 350) among the plurality of wiring electrodes (310, 320, 330, 340, 350), characterized in that the reflection layer is provided with a power connection part for supplying power to the reflection layer.
A method of providing barometric calibration data to a given user equipment (200, 200-1 - 200-10) in a mobile communications network, the method comprising: - a network node receiving a respective calibration request from each one of a plurality of user equipments (200, 200-1 - 200-10), the plurality of user equipments (200, 200-1 - 200-10) including the given user equipment (200, 200-1 - 200-10), - establishing at least one subset (600-1, 600-2) of the plurality of user equipments (200, 200-1 - 200-10) which includes the given user equipment (200, 200-1 - 200-10), - determining the barometric calibration data for the established at least one subset (600-1, 600-2), and - sending the barometric calibration data at least to the given user equipment (200, 200-1 - 200-10), characterised in that at least one of the calibration requests comprises a sensor type information of a barometric pressure sensor of the respective user equipment (200, 200-1 - 200-10), wherein said establishing of the at least one subset (600-1, 600-2) is dependent on the sensor type information, wherein the at least one subset (600-1, 600-2) is established by including the user equipments (200, 200-1 - 200-10) which have corresponding sensor type information and wherein the barometric calibration data includes barometric pressure sensor error compensation data. - a network node receiving a respective calibration request from each one of a plurality of user equipments (200, 200-1 - 200-10), the plurality of user equipments (200, 200-1 - 200-10) including the given user equipment (200, 200-1 - 200-10), - establishing at least one subset (600-1, 600-2) of the plurality of user equipments (200, 200-1 - 200-10) which includes the given user equipment (200, 200-1 - 200-10), - determining the barometric calibration data for the established at least one subset (600-1, 600-2), and - sending the barometric calibration data at least to the given user equipment (200, 200-1 - 200-10),
A linear actuator (10, 150), comprising: a cylinder body containing therein a cylinder chamber to which a pressure fluid is supplied; a slide table (14, 152) configured to be movable along a longitudinal direction of the cylinder body; a cylinder mechanism having a piston arranged in the cylinder chamber and configured to be movable along the cylinder chamber; and a guide mechanism attached to the cylinder body and configured to guide the slide table along the longitudinal direction of the cylinder body under rolling action of a plurality of rolling elements circulating in a passage, the linear actuator being configured to reciprocate the slide table relative to the cylinder body under moving action of the piston, wherein: the slide table includes a main body extending in the longitudinal direction of the cylinder body, and an end part (80, 154, 154a) arranged substantially orthogonal to the main body so as to face an end portion of the cylinder body in the longitudinal direction; and the end part is configured to have a storage portion that is opened on an end surface of the end part, that faces the cylinder body, the storage portion extending in the longitudinal direction, the storage portion being configured to store dust and dirt therein, characterized in that the storage portion is formed so as not to penetrate through the end part in the longitudinal direction. a cylinder body containing therein a cylinder chamber to which a pressure fluid is supplied; a slide table (14, 152) configured to be movable along a longitudinal direction of the cylinder body; a cylinder mechanism having a piston arranged in the cylinder chamber and configured to be movable along the cylinder chamber; and a guide mechanism attached to the cylinder body and configured to guide the slide table along the longitudinal direction of the cylinder body under rolling action of a plurality of rolling elements circulating in a passage, the linear actuator being configured to reciprocate the slide table relative to the cylinder body under moving action of the piston, wherein: the slide table includes a main body extending in the longitudinal direction of the cylinder body, and an end part (80, 154, 154a) arranged substantially orthogonal to the main body so as to face an end portion of the cylinder body in the longitudinal direction; and the end part is configured to have a storage portion that is opened on an end surface of the end part, that faces the cylinder body, the storage portion extending in the longitudinal direction, the storage portion being configured to store dust and dirt therein, characterized in that the storage portion is formed so as not to penetrate through the end part in the longitudinal direction.