mhurhangee/ep-ind-claims huggingface dataset:
A curable composition comprising a polymerizable monomer; spherical inorganic particles having an average primary-particle diameter in a range of 230 nm to 1,000 nm; and a polymerization initiator, wherein 90% or more of individual particles constituting the spherical inorganic particles lies in a range of ±5% based on the average primary-particle diameter, the polymerizable monomer and the spherical inorganic particles satisfy requirement represented by the following formula: nP < nF in formula, nP represents a refractive index at 25°C of a polymer obtained by polymerizing the polymerizable monomer; and nF represents a refractive index at 25°C of the spherical inorganic particles, and when a 1 mm-thick cured product is formed from the curable composition and the Y value (Yb) of the colorimetric value according to the Munsell Color System of the colored light of the cured product on a black background and the Y value (Yw) of the colorimetric value according to the Munsell Color System of the colored light of the cured product on a white background are each measured using a color difference meter, the ratio therebetween, Yb/Yw, being within a range of 0.2 to 0.5. wherein 90% or more of individual particles constituting the spherical inorganic particles lies in a range of ±5% based on the average primary-particle diameter, the polymerizable monomer and the spherical inorganic particles satisfy requirement represented by the following formula: nP < nF in formula, nP represents a refractive index at 25°C of a polymer obtained by polymerizing the polymerizable monomer; and nF represents a refractive index at 25°C of the spherical inorganic particles, and when a 1 mm-thick cured product is formed from the curable composition and the Y value (Yb) of the colorimetric value according to the Munsell Color System of the colored light of the cured product on a black background and the Y value (Yw) of the colorimetric value according to the Munsell Color System of the colored light of the cured product on a white background are each measured using a color difference meter, the ratio therebetween, Yb/Yw, being within a range of 0.2 to 0.5.
A method of determining a susceptibility to atrial fibrillation, atrial flutter or stroke in a human individual of Caucasian ethnicity, the method comprising determining the presence or absence of at least one allele of at least one polymorphic marker in a nucleic acid sample from the individual, wherein the at least one polymorphic marker is selected from rs12503217, rs12510087, rs6852357, rs4400058, rs10033464, rs2171592, rs2350539, rs1906606, rs723364, rs2220429, rs4032976, rs3853440, rs3853441, rs3853442, rs3853443, rs4124158, rs4124159, rs12506083, rs4032975, rs4032974, rs17042059, rs4529121, rs4543199, rs12647316, rs10019689, rs4626276, rs17042076, rs11098089, rs17042088, rs11930528, rs17042098, rs17042102, rs17042121, rs10516563, rs4605724, rs2350269, rs6533527, rs17042144, rs1906618, rs1906617, rs12646447, rs12646754, rs2129981, rs12639654, rs6817105, rs17042171, rs1906591, rs1906592, rs2200732, rs2200733, rs4611994, rs4540107, rs1906593, rs1906596 and rs2220427, and wherein determination of the presence or absence of the at least one allele is indicative of a susceptibility to atrial fibrillation, atrial flutter or stroke in the individual.
A liquid comprising: a cross-linking agent; and a water-soluble resin having a weight average molecular weight of greater than or equal to 50.000 as determined by GPC. wherein the liquid is used for forming a three-dimensional object made of a powder that comprises an organic material and a base material, and wherein the cross-linking agent is cross-linkable with the organic material. a cross-linking agent; and a water-soluble resin having a weight average molecular weight of greater than or equal to 50.000 as determined by GPC. wherein the liquid is used for forming a three-dimensional object made of a powder that comprises an organic material and a base material, and wherein the cross-linking agent is cross-linkable with the organic material.
A radio frequency identification (RFID) card comprising: a receive antenna and a transmit antenna; a smartcard controller including load modulation circuitry for half duplex communication by creating at least one frequency sideband about a carrier frequency of an interrogating RF field; an amplifier configured to receive a signal from the receive antenna when the receive antenna is inductively coupled at the receive antenna to another device by the interrogating RF field, the amplifier providing a simplex communication path from the receive antenna to the smartcard controller; characterized in that the RFID card comprises an active transmit circuit coupled between the smartcard controller and the transmit antenna that in operation forms a signal that mimics the at least one of the frequency sideband and wherein the signal drives the transmit antenna. a receive antenna and a transmit antenna; a smartcard controller including load modulation circuitry for half duplex communication by creating at least one frequency sideband about a carrier frequency of an interrogating RF field; an amplifier configured to receive a signal from the receive antenna when the receive antenna is inductively coupled at the receive antenna to another device by the interrogating RF field, the amplifier providing a simplex communication path from the receive antenna to the smartcard controller;
Crown for a timepiece including a cap formed of a cover integral with a lateral skirt, the crown comprising a removable deck ring covering an O-ring joint, the crown being characterized in that said removable deck ring is made of a shape memory alloy.
A stent-valve for transcatheter implantation to replace a cardiac valve, the stent valve being compressible to a compressed state for delivery, and expandable to an operative state for implantation, the stent-valve comprising a stent comprising a lattice structure with apertures, a plurality of leaflets for defining a prosthetic valve, and a paravalve seal for sealing against surrounding tissue, wherein the paravalve seal comprises a plurality of flexible pockets, characterized in that each pocket is associated with a respective aperture of the lattice structure of the stent, wherein the pocket is open on one side facing towards the outlet of the stent and closed in the opposite direction.
A cargo handling vehicle for handling cargo within narrow aisles comprising, means for autonomous navigation, a chassis having at least two pairs of ground engaging means wherein each ground engaging means is independently steerable and individually driven by a respective driving means, a lifting boom provided on the chassis extending in the extension direction of said chassis, the lifting boom having a first end and a second end wherein the first end is attached to the chassis enabling movement of the second end in a vertical and horizontal direction and the second end is provided with a lifting unit, characterized in that the lifting unit is arranged rotatably in a horizontal plane, and in that the means for autonomous navigation of the cargo handling vehicle is arranged to determine a travel angle for the cargo handling vehicle based on a determined width of the narrow aisle.
A distributed power generator system, comprising: a plurality of strings, wherein each string in the plurality of strings includes a plurality of power generator modules coupled together in series; a plurality of combiner boxes (14A, 14B, 14C, 14D) coupled to the plurality of strings, wherein each combiner box couples together a set of strings (16, S2) in parallel; a plurality of DC-DC Converters (40A, 40B, 40C, 40D) coupled to the plurality of combiner boxes (14A, 14B, 14C, 14D), wherein each DC-DC Converter (40A, 40B, 40C, 40D) is associated with a combiner box in the plurality of combiner boxes and wherein each DC-DC Converter is configured to increase a direct current voltage output of an associated combiner box; wherein each DC-DC Converter (40A, 40B, 40C, 40D) includes a maximum power point tracker (MPPT) (42A, 42B, 42C, 42D) control for adjusting to changing outputs (15A, 15B, 15C, 15D) at a combiner box level; and a second stage combiner box for coupling outputs (15A, 15B, 15C, 15D) of the plurality of combiner boxes (14A, 14B, 14C, 14D) into a single DC output; further comprising an inverter assembly for converting the single DC output into an AC output. a plurality of strings, wherein each string in the plurality of strings includes a plurality of power generator modules coupled together in series; a plurality of combiner boxes (14A, 14B, 14C, 14D) coupled to the plurality of strings, wherein each combiner box couples together a set of strings (16, S2) in parallel; a plurality of DC-DC Converters (40A, 40B, 40C, 40D) coupled to the plurality of combiner boxes (14A, 14B, 14C, 14D), wherein each DC-DC Converter (40A, 40B, 40C, 40D) is associated with a combiner box in the plurality of combiner boxes and wherein each DC-DC Converter is configured to increase a direct current voltage output of an associated combiner box; wherein each DC-DC Converter (40A, 40B, 40C, 40D) includes a maximum power point tracker (MPPT) (42A, 42B, 42C, 42D) control for adjusting to changing outputs (15A, 15B, 15C, 15D) at a combiner box level; and a second stage combiner box for coupling outputs (15A, 15B, 15C, 15D) of the plurality of combiner boxes (14A, 14B, 14C, 14D) into a single DC output; further comprising an inverter assembly for converting the single DC output into an AC output.
A modular compression chamber for use in a compression system for generating pressure waves in a fluid in the compression chamber, the compression chamber comprising: a plurality of individual modules (12, 14), each having an outer face, an inner face, and a side wall between the inner and outer faces, and a plurality of connecting means interlocking the individual modules (12, 14) together to form a wall of the chamber, wherein the inner faces of the individual modules collectively form an inner surface of the wall of the chamber, wherein at least one of the individual modules (12, 14) comprises at least one pressure wave generator configured to generate the pressure wave in the fluid, characterized in that the individual modules (12, 14) have a polygonal shape; or at least a first one of the individual modules (12, 14) has a polygonal shape and at least a second one of the individual modules (12, 14) has a non-polygonal shape. a plurality of individual modules (12, 14), each having an outer face, an inner face, and a side wall between the inner and outer faces, and a plurality of connecting means interlocking the individual modules (12, 14) together to form a wall of the chamber, wherein the inner faces of the individual modules collectively form an inner surface of the wall of the chamber, wherein at least one of the individual modules (12, 14) comprises at least one pressure wave generator configured to generate the pressure wave in the fluid, characterized in that the individual modules (12, 14) have a polygonal shape; or at least a first one of the individual modules (12, 14) has a polygonal shape and at least a second one of the individual modules (12, 14) has a non-polygonal shape.
A method performed in a telecommunication network comprising a traffic event collection module, TECM,, an operation support server, OSS, and a customer experience module, CEM,, the method comprising: identifying, at the CEM, a first coverage area location of a second subscriber based on a last communication made by the second subscriber; identifying, at the CEM, when the second subscriber moves to a first non-coverage area location; initiating a call to the second subscriber from a first subscriber, when the second subscriber is in the first non-coverage area; forwarding, the call to a forwarding number of the second subscriber; sending, from the TECM, the first coverage area location of the second subscriber; identifying, at the CEM, when the second subscriber moves to a second coverage area location; generating an alert at the CEM of a missed call at the second subscriber once the second subscriber has moved to the second coverage area location; sending, from the TECM, the second coverage area location of the second subscriber; identifying, at the CEM, a reduced coverage area based on information of the forwarded call, on the first coverage area location and on the second coverage area location of the second subscriber.
A method of manufacturing a pipe having a connecting flange, wherein the flange part is welded to an end face pipe end, wherein at least one protrusion of the pipe or of the flange part is provided in the region of the flange hub and contacts the inner wall of the other part on the joining together of the pipe and the flange part to cover the formed weld joint to the pipe interior; wherein the pipe and the flange part are subsequently welded to one another, and wherein the pipe and/or the flange part have a radially outwardly declining slanted end face or contact face (10a, 20a), whereby a weld joint is formed on the joining together of the pipe and the flange part, characterized in that the contact edge of the pipe or of the flange part provides a multistage extent, with a radially innermost step forming the protrusion and a radially further outwardly disposed step forming the base of the formed weld joint, and with a riser disposed between the steps (40a, 40b) serving as an abutment in the longitudinal direction of the pipe.
A haptic device, which is a cell phone, comprising: a processor; a communication module coupled to the processor for receiving a shape input; and a housing (602, 702) for housing the communication module; the housing (602, 702) comprises a deformable portion (620, 704, 900A-900F, 1160); wherein the deformable portion (620, 704, 900A-900F, 1160) comprises a plurality of deformation actuators, and the processor provides a signal to the deformation actuators in response to the shape input to deform the housing (602, 702); characterized in that the signal causes the deformation actuators to macroscopically change a shape of the housing (602, 702), wherein the deformed housing (602, 702) forms a scrollbar in the housing (602, 702) for scrolling a list of options shown on a display of the haptic device, wherein the scrollbar provides a slider bar surface with a scroll thumb with added tactile feedback, wherein the scroll thumb is controlled by controlling individual actuator elements. a processor; a communication module coupled to the processor for receiving a shape input; and a housing (602, 702) for housing the communication module; the housing (602, 702) comprises a deformable portion (620, 704, 900A-900F, 1160); wherein the deformable portion (620, 704, 900A-900F, 1160) comprises a plurality of deformation actuators, and the processor provides a signal to the deformation actuators in response to the shape input to deform the housing (602, 702); characterized in that the signal causes the deformation actuators to macroscopically change a shape of the housing (602, 702), wherein the deformed housing (602, 702) forms a scrollbar in the housing (602, 702) for scrolling a list of options shown on a display of the haptic device, wherein the scrollbar provides a slider bar surface with a scroll thumb with added tactile feedback, wherein the scroll thumb is controlled by controlling individual actuator elements.
Holding device for carrying and fixing a housing for a sensor system and/or an electronic system, a drive unit or a camera in or on a motor vehicle, comprising a holder configured as a frame surrounding an interior, into which the housing can be inserted, a spring clamp connected to the frame of the holder in an articulated manner, said spring clamp being pivotable from a position in which the interior of the holder is released into a position in which the interior of the holder is closed, and also a fixing assigned to the spring clamp, which holds the spring clamp in the closed position, and in that the spring clamp is configured as a U-shaped or W-shaped wire bracket, which is suspended in an articulated manner in openings (Ö) in the holder via angled ends of its legs, the locking element configured as a spring clamp being injected with angled ends in the holder.
A knitted component (100, 1030, 2030) formed of unitary knit construction, the knitted component (100, 1030, 2030) configured to stretch, the knitted component (100, 1030, 2030) comprising: a knit element (130, 1031, 2031) that includes an auxetic portion (156, 162, 1056, 2056) that is configured to move between a first position and a second position as the knitted component (100, 1030, 2030) stretches; and a tensile strand (132, 1050, 2050) formed of unitary knit construction with the knit element (130, 1031, 2031); wherein the auxetic portion (156, 162, 1056, 2056) has an area when in the first position wherein the tensile strand (132, 1050, 2050) engages the knit element (130, 1031, 2031) proximate the auxetic portion (156, 162, 1056, 2056); wherein the tensile strand (132, 1050, 2050) is configured to be manipulated for selectively changing the area of the auxetic portion (156, 162, 1056, 2056) to vary a stretch characteristic of the knitted component (100, 1030, 2030) and wherein the area of the auxetic portion i (156, 162, 1056, 2056) increases as the knit element (130, 1031, 2031) stretches, wherein the auxetic portion (156, 162, 1056, 2056) has a border; characterised in that the tensile strand (132, 1050, 2050) is inlaid within the knit element (130, 1031, 2031); wherein the tensile strand (132, 1050, 2050) extends across the auxetic portion (156, 162, 1056, 2056) and engages a first location and a second location of the border; and wherein the tensile strand (132, 1050, 2050) is configured for selectively moving the first location relative to the second location to change the area of the auxetic portion (156, 162, 1056, 2056). a knit element (130, 1031, 2031) that includes an auxetic portion (156, 162, 1056, 2056) that is configured to move between a first position and a second position as the knitted component (100, 1030, 2030) stretches; and a tensile strand (132, 1050, 2050) formed of unitary knit construction with the knit element (130, 1031, 2031); wherein the auxetic portion (156, 162, 1056, 2056) has an area when in the first position wherein the tensile strand (132, 1050, 2050) engages the knit element (130, 1031, 2031) proximate the auxetic portion (156, 162, 1056, 2056); wherein the tensile strand (132, 1050, 2050) is configured to be manipulated for selectively changing the area of the auxetic portion (156, 162, 1056, 2056) to vary a stretch characteristic of the knitted component (100, 1030, 2030) and wherein the area of the auxetic portion i (156, 162, 1056, 2056) increases as the knit element (130, 1031, 2031) stretches, wherein the auxetic portion (156, 162, 1056, 2056) has a border; characterised in that the tensile strand (132, 1050, 2050) is inlaid within the knit element (130, 1031, 2031); wherein the tensile strand (132, 1050, 2050) extends across the auxetic portion (156, 162, 1056, 2056) and engages a first location and a second location of the border; and wherein the tensile strand (132, 1050, 2050) is configured for selectively moving the first location relative to the second location to change the area of the auxetic portion (156, 162, 1056, 2056).
Test tube, suitable to be immersed in a cryogenic fluid, comprising: a containing body, having a perimeter wall that defines a containing compartment and provided with an end; a bottom wall, disposed inside said containing compartment to close it at the lower part and defining the bottom of the containing compartment; and a housing seating, defined by the space inside said perimeter wall and outside the bottom wall of said containing compartment, that is the space comprised between the end of the perimeter wall and the bottom wall, into which housing seating a discoid element for an identification code being inserted, said discoid element having at least a free surface facing toward the outside of said housing seating on the opposite side with respect to said bottom wall, characterized in that in correspondence to said housing seating, said perimeter wall is discontinuous, so as to define one or more transverse through apertures (26, 126, 226) which laterally put the inside of said housing seating in communication with the outside of said test tube, discharge channels (33, 35) to discharge said cryogenic fluid are provided between said bottom wall and said discoid element and are able to communicate with said through apertures (26, 126, 226) so as to expel said cryogenic fluid from said housing seating, and in that in correspondence to said housing seating for said discoid element, mechanical constraint means (25, 31) are provided, in cooperation with said perimeter wall of said containing body and with a peripheral portion of said free surface of said discoid element, in order to constrain the latter in a defined axial position with respect to said containing body, said discoid element directly abutting against said bottom wall.
An image processing apparatus for generating a multi-dimensional lookup table for correcting a luminance and a saturation of an image, comprising: a boundary point setting unit configured to set a plurality of boundary points (Sl,Yl;Su,Yu) which have a same saturation as that of a predetermined lattice point(S,Y) in a color space and exist at a boundary of a color reproduction space at a hue of the lattice point; a luminance correction unit configured to make a luminance correction on the plurality of boundary points set by the boundary point setting unit; a line setting unit configured to set a saturation correction line by connecting the plurality of boundary points (Su,Y'u;Sl', Yl') corrected by the luminance correction unit with a line; a saturation setting unit configured to set a saturation (S') on the saturation correction line set by the line setting unit having a luminance (Y') the same as that of the lattice point after luminance correction; and a generating unit configured to generate the multi-dimensional lookup table based on the luminance of the lattice point after correction and the saturation set by the saturation setting unit. a boundary point setting unit configured to set a plurality of boundary points (Sl,Yl;Su,Yu) which have a same saturation as that of a predetermined lattice point(S,Y) in a color space and exist at a boundary of a color reproduction space at a hue of the lattice point; a luminance correction unit configured to make a luminance correction on the plurality of boundary points set by the boundary point setting unit; a line setting unit configured to set a saturation correction line by connecting the plurality of boundary points (Su,Y'u;Sl', Yl') corrected by the luminance correction unit with a line; a saturation setting unit configured to set a saturation (S') on the saturation correction line set by the line setting unit having a luminance (Y') the same as that of the lattice point after luminance correction; and a generating unit configured to generate the multi-dimensional lookup table based on the luminance of the lattice point after correction and the saturation set by the saturation setting unit.