mhurhangee/ep-ind-claims huggingface dataset:
A toric intraocular lens, wherein, in a top view of an optical portion, a substantially flat portion (205, 305, 405) having a substantially fixed edge thickness is provided to overlap a steep meridian of the toric surface, and further, an intersection line is formed at a boundary between the toric surface and the substantially flat portion (205, 305, 405), wherein the edge thickness of the substantially flat portion (205, 305, 405) is larger than a theoretical edge thickness of the optical portion at the steep meridian of the toric surface if the substantially flat portion were not formed, wherein the substantially flat portion (205, 305, 405) is provided not to overlap a flat meridian of the toric surface of the optical portion, characterised in that other portions are provided where an edge thickness of the toric intraocular lens changes according to the shape of the toric surface from the edge thickness of the substantially flat portion to the edge thickness of the optical portion at the flat meridian, and the edge thickness of the substantially flat portion (205, 305, 405) is smaller than the edge thickness of the optical portion overlapping a flat meridian of the toric surface in the top view.
A ventilator for railroad vehicle, comprising: a ventilation apparatus for replacing air in a vehicle; and a dust collector annexed to the ventilation apparatus, wherein the dust collector includes a housing, and a cyclone tubular body provided in an inside of the housing, the ventilation apparatus includes an air supply blower that supplies fresh air from outside the vehicle, the fresh air having passed through the cyclone tubular body, to the vehicle, characterised in that the housing includes a metal net through which fresh air is to be taken into the cyclone tubular body and a back plate connecting to the metal net, and the dust collector is connected to the ventilation apparatus such that the back plate is positioned in an inside of the ventilation apparatus. a ventilation apparatus for replacing air in a vehicle; and a dust collector annexed to the ventilation apparatus, wherein the dust collector includes a housing, and a cyclone tubular body provided in an inside of the housing, the ventilation apparatus includes an air supply blower that supplies fresh air from outside the vehicle, the fresh air having passed through the cyclone tubular body, to the vehicle, characterised in that the housing includes a metal net through which fresh air is to be taken into the cyclone tubular body and a back plate connecting to the metal net, and the dust collector is connected to the ventilation apparatus such that the back plate is positioned in an inside of the ventilation apparatus.
A method of detecting mixed mode corrosion of a turbine airfoil having internal passages comprising: heat treating the turbine airfoil at a temperature of 1600 to 2100°F (871 to 1149 °C) in a Ni/Co oxide reducing atmosphere; scanning an external surface of the heat treated turbine airfoil with a magnetometer to determine the presence of mixed mode corrosion on the internal passages; and comparing the results of the scanning to a threshold value, wherein the turbine airfoil comprises a nickel superalloy. heat treating the turbine airfoil at a temperature of 1600 to 2100°F (871 to 1149 °C) in a Ni/Co oxide reducing atmosphere; scanning an external surface of the heat treated turbine airfoil with a magnetometer to determine the presence of mixed mode corrosion on the internal passages; and comparing the results of the scanning to a threshold value, wherein the turbine airfoil comprises a nickel superalloy.
Method for access control of wireless data streaming to a receiver device (300, 400, 500), the method comprising the steps of: a) wirelessly connecting the receiver device (300, 400, 500) to a plurality of sender devices (312, 313, 405, 406, 507, 508) positioned in an area (315, 407, 512), wherein the positions of the plurality of sender devices (312, 313, 405, 406, 507, 508) having a first spatial coverage (311, 404, 506) in the area (315, 407, 512), b)transmitting, by the receiver device (300, 400, 500), a privilege signal pertaining to a specific sender device (312, 405, 507) of the plurality of sender devices (312, 313, 405, 406, 507, 508) to obtain a privileged status, the privilege signal having a second spatial coverage (310, 411, 505) in the area (315, 407, 512), c) extracting, by the specific sender device (312, 405, 507), privilege credentials from the privilege signal, and transmitting the privilege credentials from the specific sender device (312, 405, 507) to the receiver device (300, 400, 500) via the wireless connection to acquire privileged status of the specific sender device (312, 405, 507), d) controlling, by the specific sender device (312, 405, 507) having a privileged status, access of wireless data streaming from any of the plurality of sender devices (312, 313, 405, 406, 507, 508) to the receiver device (300, 400, 500), wherein the first spatial coverage (311, 404, 506) in the area (315, 407, 512) is larger than the second spatial coverage (310, 411, 505) in the area (315, 407, 512), wherein the first spatial coverage (311, 404, 506) is overlapping the second spatial coverage (310, 411, 505), and wherein a sender device having received the privilege signal and obtained a privileged status being a privileged sender device (312, 405, 507) and a sender device having not received the privilege signal and not obtained a privileged status being an unprivileged sender device (313, 406, 508). a) wirelessly connecting the receiver device (300, 400, 500) to a plurality of sender devices (312, 313, 405, 406, 507, 508) positioned in an area (315, 407, 512), wherein the positions of the plurality of sender devices (312, 313, 405, 406, 507, 508) having a first spatial coverage (311, 404, 506) in the area (315, 407, 512), b)transmitting, by the receiver device (300, 400, 500), a privilege signal pertaining to a specific sender device (312, 405, 507) of the plurality of sender devices (312, 313, 405, 406, 507, 508) to obtain a privileged status, the privilege signal having a second spatial coverage (310, 411, 505) in the area (315, 407, 512), c) extracting, by the specific sender device (312, 405, 507), privilege credentials from the privilege signal, and transmitting the privilege credentials from the specific sender device (312, 405, 507) to the receiver device (300, 400, 500) via the wireless connection to acquire privileged status of the specific sender device (312, 405, 507), d) controlling, by the specific sender device (312, 405, 507) having a privileged status, access of wireless data streaming from any of the plurality of sender devices (312, 313, 405, 406, 507, 508) to the receiver device (300, 400, 500),
Encoder for deriving a representation of an audio signal having a first frame, a second frame following the first frame, and a third frame following the second frame, the encoder comprising: a warp estimator for estimating a first warp parameter sequence for the first and the second frame and for estimating a second warp parameter sequence for the second frame and the third frame; a spectral analyzer for deriving first spectral coefficients for the first and the second frame using the first warp parameter sequence and for deriving second spectral coefficients for the second and the third frame using the second warp parameter sequence; and an output interface for outputting the representation of the audio signal including the first and the second spectral coefficients. a warp estimator for estimating a first warp parameter sequence for the first and the second frame and for estimating a second warp parameter sequence for the second frame and the third frame; a spectral analyzer for deriving first spectral coefficients for the first and the second frame using the first warp parameter sequence and for deriving second spectral coefficients for the second and the third frame using the second warp parameter sequence; and an output interface for outputting the representation of the audio signal including the first and the second spectral coefficients.
A pressure-sensitive adhesive composition comprising: a) an acrylic copolymer including 0.8 to 5 parts by weight of a monomer having a functional group capable of chelating with a metal salt; 80 to 95 parts by weight of an alkyl (meth)acrylate having 1 to 9 carbon atom(s); and 1 to 18 parts by weight of a (meth)acryl acid ester having 10 or more carbon atoms, based on 100 parts by weight of the copolymer; and b) a metal salt. a) an acrylic copolymer including 0.8 to 5 parts by weight of a monomer having a functional group capable of chelating with a metal salt; 80 to 95 parts by weight of an alkyl (meth)acrylate having 1 to 9 carbon atom(s); and 1 to 18 parts by weight of a (meth)acryl acid ester having 10 or more carbon atoms, based on 100 parts by weight of the copolymer; and b) a metal salt.
A method for automatically determining an analyte of a liquid sample in a cylindrical cuvette in a liquid analysis device, wherein the cuvette comprises a reagent which is configured to react with the analyte in a color-changing manner and a barcode configured either as a one-dimensional barcode or as a two-dimensional barcode and an icon with two dimensions on an outside of the cuvette, and wherein the liquid analysis device comprises a photometer, a rotation device which is configured to rotate a cuvette inserted therein, a line or area camera which is configured to read the barcode and the icon, a calibration data memory and an input device which is configured to manually input calibration data associated with the reagent, the method comprising the following steps: rotating the cuvette and aligning the icon with the camera, reading the icon with the camera, comparing the icon read with an icon model stored in the liquid analysis device, if the icon read does not correspond to the icon model: activating the input apparatus for manually inputting the calibration data, and subjecting the cuvette to photometry on the basis of the calibration data which have been manually input or have been stored in the calibration data memory. rotating the cuvette and aligning the icon with the camera, reading the icon with the camera, comparing the icon read with an icon model stored in the liquid analysis device, if the icon read does not correspond to the icon model: activating the input apparatus for manually inputting the calibration data, and subjecting the cuvette to photometry on the basis of the calibration data which have been manually input or have been stored in the calibration data memory.
An energy installation comprising one or more aerofoil profiles having a longitudinal axis oriented vertically, said profile being configured on a rotatable lever arm, a support structure comprising a transmission system where said vertical profile may rotate around its longitudinal axis and in that said lever arm and said vertical profile may oscillate between a first and a second horizontal positions by means of a flow of particles acting on said vertical profile such that a horizontal movement of said vertical profile is achieved and transmitted to said transmission system via said lever arm, characterized in that said lever arm may tilt in a vertical direction and in that one or more aerofoil profiles having a longitudinal axis oriented horizontally are configured on said vertical profile, said horizontal profile being rotatable around its longitudinal axis and by that said horizontal profile may oscillate between a first and a second vertical positions by means a flow of particles acting on said horizontal profile such that a vertical movement of said horizontal profile is achieved and transmitted to said transmission system via said lever arm.
A method for folding incontinence pads having a substantially rectangular shape, elongate according to a longitudinal axis, and comprising a central absorbent pad and a perimetric edge; the method comprising a step of folding each incontinence pad at a first and a second fold line (14, 15) both transversal to the axis, the folding step comprising a first sub-step of folding a first end portion of the incontinence pad about the first fold line onto a central portion of the incontinence pad, and a second sub-step of folding a second end portion of the incontinence pad about the second fold line onto the first end portion; the distance between the first and second fold lines (14, 15), measured along the longitudinal axis of the incontinence pad, being greater than or equal to the longitudinal dimension of the first end portion, and the folding step being preceded by a step in which segments of the edge located between the first and second fold lines (14, 15) are folded down inwards onto the central portion, wherein the segments are two longitudinal segments of the perimetric edge that each, at least at the central portion, comprises an elasticised part configured such that when the packaging is opened, the first end portion of the incontinence pad adopts a predetermined angle relative to the central portion, such that it gives the incontinence pad an anatomical shape, the elasticised parts of the two longitudinal segments of the edge being folded until they are in contact with the central portion, and a step in which the segments are retained on the central portion.
A porous coordination polymer-ionic liquid composite (3, 131, 132) comprising: an insulating structure (1, 11) composed of a porous coordination polymer; and an ionic liquid (2, 12) retained inside pores of the porous coordination polymer, wherein the structure (1, 11) is a molded body comprising a plurality of particles composed of the porous coordination polymer, and wherein a volume of the ionic liquid (2, 12) with respect to a full capacity of the pores of the porous coordination polymer is 20% or more and less than 200%. an insulating structure (1, 11) composed of a porous coordination polymer; and an ionic liquid (2, 12) retained inside pores of the porous coordination polymer, wherein the structure (1, 11) is a molded body comprising a plurality of particles composed of the porous coordination polymer, and wherein a volume of the ionic liquid (2, 12) with respect to a full capacity of the pores of the porous coordination polymer is 20% or more and less than 200%.
System of contacts for an on-load tap changer device, where the system comprises: - at least a first electrical contact (2, 3) per phase associated with at least one tap (6, 7, 8, 9, 10, 11, 12, 13, 14, 15) also arranged for each phase, - at least a second electrical contact (4, 5) per phase associated with at least one switching means (22, 23) also arranged for each phase, and - at least a third electrical contact (16, 17, 18, 19) per phase associated with at least one tap selection means also arranged for each phase, wherein - the first electrical contact (2, 3) and the second electrical contact (4, 5) are incorporated in a plate fixed to the structure of the tap changer device, leaving at least one of their ends projecting from the plate free, with the free end of said first and second electrical contacts (2, 3, 4, 5) facing and in correspondence with the third electrical contact (16, 17, 18, 19) on a longitudinal axis of the first and second electrical contacts (2, 3, 4, 5), the longitudinal axis of the first and second contacts (2, 3, 4, 5) being parallel to an axis of the tap selection means; characterized in that the electrical contact of the first and second contacts (2, 3, 4, 5) with the third electrical contact (16, 17, 18, 19) is axial and sliding; - and in that the first and second electrical contacts (2, 3, 4, 5) comprise at least one elastic means axially pushing at least one end of said first and second contacts (2, 3, 4, 5) against the third electrical contact (16, 17, 18, 19). - at least a first electrical contact (2, 3) per phase associated with at least one tap (6, 7, 8, 9, 10, 11, 12, 13, 14, 15) also arranged for each phase, - at least a second electrical contact (4, 5) per phase associated with at least one switching means (22, 23) also arranged for each phase, and - at least a third electrical contact (16, 17, 18, 19) per phase associated with at least one tap selection means also arranged for each phase, wherein - the first electrical contact (2, 3) and the second electrical contact (4, 5) are incorporated in a plate fixed to the structure of the tap changer device, leaving at least one of their ends projecting from the plate free, with the free end of said first and second electrical contacts (2, 3, 4, 5) facing and in correspondence with the third electrical contact (16, 17, 18, 19) on a longitudinal axis of the first and second electrical contacts (2, 3, 4, 5), the longitudinal axis of the first and second contacts (2, 3, 4, 5) being parallel to an axis of the tap selection means; characterized in that the electrical contact of the first and second contacts (2, 3, 4, 5) with the third electrical contact (16, 17, 18, 19) is axial and sliding; - and in that the first and second electrical contacts (2, 3, 4, 5) comprise at least one elastic means axially pushing at least one end of said first and second contacts (2, 3, 4, 5) against the third electrical contact (16, 17, 18, 19).
Use of LiSCN as a redox shuttle-compound in electrolytes of rechargeable, non-aqueous lithium batteries, which contain as the active anode material either lithium metal or a lithium alloy, an active cathode material with a redox potential in the range between 1.5 and 3.4 V vs. Li/Li +, and lithium rhodanide (LiSCN) as an electrolyte component, and at least one other conductive salt, wherein the LiSCN is present in the electrolyte in a concentration of 0.01 to 15% by weight.
A method for irradiating a target with a beam of energetic radiation formed by electrically charged particles, comprising the steps of - providing a pattern definition device having a plurality of apertures transparent to said radiation, - illuminating said pattern definition device by means of an illuminating wide beam (lb), which traverses the pattern definition device through said apertures thus forming a patterned beam (pb) consisting of a corresponding plurality of beamlets, - forming said patterned beam into a pattern image (pm) on the location of the target, said pattern image comprising the images of at least part of the plurality of apertures covering a number of pattern pixels (px) on the target, and - generating a relative movement between said target and the pattern definition device producing a movement of said pattern image on the target along a path over a region (R1, R2) where a beam exposure is to be performed, said path being composed of sections which each extend along a general direction (d1, d2), said region being composed of a plurality of pattern pixels (px) arranged in a regular arrangement and said region having a total width (Ry, Rx) as measured across said general direction (d1, d2), the movement along said path defining a number of stripes (s1-sn; 181-183; 187-189) covering said region in sequential exposures, wherein the number of stripes are written in at least two sweeps, each sweep having a respective general direction (d1, d2), and the general direction being changed between sweeps, wherein each stripe belongs to exactly one of said sweeps, wherein the stripes in each sweep run substantially parallel to each other along the respective general direction, the stripes having respective widths (y0, x0) as measured across said main direction, and for each sweep the widths (y0, x0) of the stripes of one sweep combining into a cover of the total width (Ry, Rx). - providing a pattern definition device having a plurality of apertures transparent to said radiation, - illuminating said pattern definition device by means of an illuminating wide beam (lb), which traverses the pattern definition device through said apertures thus forming a patterned beam (pb) consisting of a corresponding plurality of beamlets, - forming said patterned beam into a pattern image (pm) on the location of the target, said pattern image comprising the images of at least part of the plurality of apertures covering a number of pattern pixels (px) on the target, and - generating a relative movement between said target and the pattern definition device producing a movement of said pattern image on the target along a path over a region (R1, R2) where a beam exposure is to be performed, said path being composed of sections which each extend along a general direction (d1, d2), said region being composed of a plurality of pattern pixels (px) arranged in a regular arrangement and said region having a total width (Ry, Rx) as measured across said general direction (d1, d2), the movement along said path defining a number of stripes (s1-sn; 181-183; 187-189) covering said region in sequential exposures,
A drive system for rotating a wheel of an aircraft landing gear, the drive system including a motor operable to rotate a drive pinion via a drive path, and a driven gear adapted to be mounted to the wheel, wherein the drive system has a first configuration in which the drive pinion is capable of meshing with the driven gear to permit the motor to drive the driven gear via the drive path, wherein the drive path has an input shaft having an axis of rotation spaced from an axis of rotation of an output shaft, and wherein the output shaft is operable to pivot about the axis of rotation of the input shaft, characterised in that the drive path is mounted within a housing having a pivot with a pivot axis coaxial with the axis of rotation of the input shaft for pivotally mounting the housing to the aircraft landing gear.
A paper-based, nucleic acid-detecting sensor consisting of: a negatively-charged porous first paper substrate; a separation layer stacked on one surface of the first paper substrate and comprising any one of Sepharose, glass beads and a mixture thereof; and a negatively-charged porous second paper substrate stacked on one surface of the separation layer. a separation layer stacked on one surface of the first paper substrate and comprising any one of Sepharose, glass beads and a mixture thereof; and a negatively-charged porous second paper substrate stacked on one surface of the separation layer.