mhurhangee/ep-ind-claims huggingface dataset:
A method of authenticating a security document comprising: capturing an image of at least a portion of the security document, wherein the portion of the security document includes an image having a first security feature and a second security feature; and calculating a modified normalized cross-correlation between a reference image associated with the first security feature and the captured image using a masking image generated from the captured image, wherein calculating the modified normalized cross-correlation between the reference image and the captured image comprises: generating a masking image from the captured image; applying the masking image to the captured image to obtain a masked image; calculating a normalized cross-correlation between the masked image and the reference image; and outputting indicia of one or more matches between the reference image and the captured image. capturing an image of at least a portion of the security document, wherein the portion of the security document includes an image having a first security feature and a second security feature; and calculating a modified normalized cross-correlation between a reference image associated with the first security feature and the captured image using a masking image generated from the captured image, wherein calculating the modified normalized cross-correlation between the reference image and the captured image comprises: generating a masking image from the captured image; applying the masking image to the captured image to obtain a masked image; calculating a normalized cross-correlation between the masked image and the reference image; and outputting indicia of one or more matches between the reference image and the captured image. generating a masking image from the captured image; applying the masking image to the captured image to obtain a masked image; calculating a normalized cross-correlation between the masked image and the reference image; and outputting indicia of one or more matches between the reference image and the captured image.
A composition comprising a heterophasic propylene copolymer and a nucleating composition, wherein the heterophasic propylene copolymer consists of (a) a propylene-based matrix, wherein the propylene-based matrix consists of a propylene homopolymer and wherein the propylene-based matrix is present in an amount of 83 to 88 wt%, preferably 84 to 88 wt%, based on the total heterophasic propylene copolymer and (b) a dispersed ethylene-α-olefin copolymer, wherein the dispersed ethylene-α-olefin copolymer is present in an amount of 12 to 17 wt%, preferably of 12 to 16 wt%, based on the total heterophasic propylene copolymer and wherein the sum of the total amount of propylene-based matrix and total amount of the dispersed ethylene-α-olefin copolymer in the heterophasic propylene copolymer is 100 wt%, wherein the amount of ethylene in the ethylene-α-olefin copolymer is 40 to 60 wt% and wherein the heterophasic propylene copolymer has a melt flow index of 35 to 50 g/10min as determined according to ISO1133 at 230 °C and 2.16 kg and wherein the nucleating composition comprises (i) a first nucleating agent, which comprises a cyclic dicarboxylate salt compound; and (ii) a second nucleating agent, which comprises talc, wherein the cyclic dicarboxylate salt compound has the formula: (a) a propylene-based matrix, wherein the propylene-based matrix consists of a propylene homopolymer and wherein the propylene-based matrix is present in an amount of 83 to 88 wt%, preferably 84 to 88 wt%, based on the total heterophasic propylene copolymer and (b) a dispersed ethylene-α-olefin copolymer, (i) a first nucleating agent, which comprises a cyclic dicarboxylate salt compound; and (ii) a second nucleating agent, which comprises talc,
Glass microbubbles consisting essentially of: from 25.0 to 37.4 percent by weight of silicon present as an oxide; from 5.7 to 8.6 percent by weight of calcium present as an oxide; from 5.2 to 14.9 percent by weight, on a total combined weight basis, of at least one of sodium or potassium present as oxides; from 0.3 to 0.9 percent of boron present in form of B 2 O 3; and from 0.9 to 2.6 percent of phosphorus included as phosphoric acid, wherein the weight ratio of phosphorus to boron is in the range of from 1.4 to 4.2, wherein the glass microbubbles comprise no more than 5 percent by weight of the glass microbubbles, based on the theoretical oxide equivalent basis, of other components, wherein the glass microbubbles comprise less than 0.4 percent by weight of zinc, and wherein the microbubbles have a size distribution with a D 90 of less than 1 mm. from 25.0 to 37.4 percent by weight of silicon present as an oxide; from 5.7 to 8.6 percent by weight of calcium present as an oxide; from 5.2 to 14.9 percent by weight, on a total combined weight basis, of at least one of sodium or potassium present as oxides; from 0.3 to 0.9 percent of boron present in form of B 2 O 3; and from 0.9 to 2.6 percent of phosphorus included as phosphoric acid, wherein the weight ratio of phosphorus to boron is in the range of from 1.4 to 4.2, wherein the glass microbubbles comprise no more than 5 percent by weight of the glass microbubbles, based on the theoretical oxide equivalent basis, of other components, wherein the glass microbubbles comprise less than 0.4 percent by weight of zinc, and wherein the microbubbles have a size distribution with a D 90 of less than 1 mm.
A pharmaceutical formulation comprising at least one urushiol ester for use in desensitizing a subject against contact dermatitis caused by allergens contained in plants of the Anacardiaceae and Ginkgoaceae families of the following formula wherein R 1 is an alkyl radical having 11 to 19 carbon atoms; and R 2 and R 3 are each independently a mono-amino acid ester radical or a di- or tripeptide ester radical of an amino acid or a dicarboxylic acid or a dicarboxylic acid anhydride, in sesame seed oil and about 2 to 12% by volume benzyl alcohol and about 5 to 10% by volume ethyl alcohol.
An information processing device, comprising: a corrected vibration data generating unit configured to generate corrected vibration data obtained by correcting a strength of vibration data for a vibrating device including a vibrator on a basis of information provided from a detecting unit (104, 114) configured to detect a contact state of the vibrating device; and a vibration signal generating unit configured to generate a vibration signal from the corrected vibration data, wherein the detecting unit is a pressure sensor, and the corrected vibration data generating unit is configured to generate the corrected vibration data on a basis of information related to pressure detected by the pressure sensor, characterized in that the corrected vibration data generating unit is configured to generate the corrected vibration data to strengthen the strength of the vibration data in a case in which the pressure detected by the pressure sensor is weak. a corrected vibration data generating unit configured to generate corrected vibration data obtained by correcting a strength of vibration data for a vibrating device including a vibrator on a basis of information provided from a detecting unit (104, 114) configured to detect a contact state of the vibrating device; and a vibration signal generating unit configured to generate a vibration signal from the corrected vibration data, wherein the detecting unit is a pressure sensor, and the corrected vibration data generating unit is configured to generate the corrected vibration data on a basis of information related to pressure detected by the pressure sensor, characterized in that the corrected vibration data generating unit is configured to generate the corrected vibration data to strengthen the strength of the vibration data in a case in which the pressure detected by the pressure sensor is weak.
A polynucleotide encoding a chimeric antigen receptor, wherein said chimeric antigen receptor comprises an antigen binding domain, a transmembrane domain and a costimulatory signal transduction region, wherein the antigen binding domain specifically binds to the tumor specific antigen ROBO1, and activates natural killer cells through the transmembrane domain and the costimulatory signal transduction region, wherein said antigen binding domain is an ScFv which specifically binds to the FN3 domain of ROBO1; wherein said chimeric antigen receptor is a fusion protein with the structure of ScFV-CD8-4-1BB-CD3ζ, and the amino acid sequence of said ScFV-CD8-4-1BB-CD3ζ fusion protein is shown in SEQ ID NO: 3.
A method of controlling a load wrapping apparatus of the type configured to wrap a load on a load support with packaging material dispensed from a packaging material dispenser through relative rotation between the packaging material dispenser and the load support, the method comprising: monitoring a wrap force applied to the load by the packaging material during the relative rotation; determining a wrap force proximate an initial contact between the packaging material and a corner of the load or determining an average wrap force, a minimum wrap force or a maximum wrap force over a full revolution of the load relative to the packaging material dispenser based on monitoring the wrap force; characterized in that the method further comprises: calculating an incremental containment force from the determined wrap force, average wrap force, minimum wrap force or maximum wrap force, the incremental containment force being defined by the amount of containment force added to the load in a single revolution of the load relative to the packaging material dispenser; and controlling a dispense rate of the packaging material dispenser based upon the calculated incremental containment force. monitoring a wrap force applied to the load by the packaging material during the relative rotation; determining a wrap force proximate an initial contact between the packaging material and a corner of the load or determining an average wrap force, a minimum wrap force or a maximum wrap force over a full revolution of the load relative to the packaging material dispenser based on monitoring the wrap force; characterized in that the method further comprises: calculating an incremental containment force from the determined wrap force, average wrap force, minimum wrap force or maximum wrap force, the incremental containment force being defined by the amount of containment force added to the load in a single revolution of the load relative to the packaging material dispenser; and controlling a dispense rate of the packaging material dispenser based upon the calculated incremental containment force.
A method for producing a steel structure for hydrogen gas, the steel structure being a hydrogen line pipe having a fatigue crack propagation rate of 1.0 × 10 -6 m/cycle or less in 90-MPa high-pressure hydrogen gas at a stress intensity factor range ΔK of 25 MPa·m 1/2 and comprising a steel microstructure, wherein: 30% to 70% of bainite on an area-ratio basis with the balance being ferrite in such a manner that the total area ratio of bainite and ferrite is 98% or more, with a steel composition consisting of, by mass, C: 0.05% to 0.20%, Si: 0.05% to 0.50%, Mn: 0.5% to 2.0%, Al: 0.01% to 0.10%, N: 0.0005% to 0.008%, P: 0.05% or less, S: 0.01% or less, and O: 0.01% or less, optionally one or more elements selected from Cu: 0.05% to 1.0%, Ni: 0.05% to 2.0%, Cr: 0.1% to 2.5%, Mo: 0.05% to 2.0%, Nb: 0.005% to 0.1%, V: 0.005% to 0.2%, Ti: 0.005% to 0.1%, W: 0.05% to 2.0%, and B: 0.0005% to 0.005%, and optionally one or more elements selected from Nd: 0.005% to 1.0%, Ca: 0.0005% to 0.005%, Mg: 0.0005% to 0.005%, and REM: 0.0005% to 0.005%, with the balance being Fe and inevitable impurities, the method comprising heating a steel material having the said steel composition to an Acs transformation temperature or more, followed by hot rolling; performing quenching from an Ar 3 transformation temperature or more to 250°C or less at a cooling rate of 5°C/sec. or more and less than 20°C/sec; and subsequently performing tempering at an Ac 1 transformation temperature or less, wherein the temperatures are measured at the center of a steel material, that is the center of the steel material in the thickness direction and the cooling rate is an average cooling rate measured at the center of the steel plate or the steel pipe in the thickness direction, and wherein the fatigue crack propagation rate and microstructure are determined utilizing the methods described in the description.
Guide device comprising a guide rail and a sliding body which is displaceable in sliding manner on the guide rail along a guide direction, wherein the sliding body comprises at least one pair of mutually oppositely located sliding surfaces with which the sliding body rests on at least one pair of mutually oppositely located contact surfaces of the guide rail, wherein the sliding body comprises a pressing device by means of which the at least one pair of sliding surfaces of the sliding body is pressable onto the at least one pair of contact surfaces of the guide rail, wherein one or more pairs of sliding surfaces are arranged on a base body of the sliding body which is formed in one-piece manner, wherein the guide rail comprises two seating sections and a rail back which connects the seating sections to one another, wherein the seating sections have a substantially C-shaped cross section and form contact surfaces for a sliding body of the guide device, characterized in that the base body comprises the sliding surfaces with which the base body rests on the contact surfaces of the seating sections of the guide rail.
A user apparatus for use in a mobile communication system that supports device-to-device, D2D, communication, comprising: a signal transmission unit configured to transmit a plurality of D2D signals; and a resource selection unit configured to select, from a predetermined resource pool, a radio resource having a time resource and a frequency resource for transmitting the plurality of D2D signals, characterized by the resource selection unit is configured to select the radio resource such that the plurality of D2D signals are transmitted by using a plurality of continuous frequency resources in a same time resource. a signal transmission unit configured to transmit a plurality of D2D signals; and a resource selection unit configured to select, from a predetermined resource pool, a radio resource having a time resource and a frequency resource for transmitting the plurality of D2D signals, characterized by the resource selection unit is configured to select the radio resource such that the plurality of D2D signals are transmitted by using a plurality of continuous frequency resources in a same time resource.
Method for computerized determination of the position in which an ISO container is to be placed on a carrier vehicle by means of a crane, using a cloud of measurement points representing the upper side of the carrier vehicle, which measurement points are obtained by sweeping the carrier vehicle from above with a 3D laser scanner, characterized in that a) the cloud of measurement points is swept with at least one virtual test piece which at least partially has a shape approximating the shape of the part of twistlocks on the carrier vehicle which protrudes above the upper side of the carrier vehicle; b) all locations are determined where the shape of the virtual test piece, approximating a twistlock, corresponds to the local shape of the cloud of measurement points at least to a predefined degree; c) the locations determined in this manner are defined to be eligible locations for twistlocks; d) eligible locations having predefined distances from one another are defined to be actual twistlock locations; and e) from the twistlock locations defined in this manner, container target position data (40; 42) for the container to be placed on the carrier vehicle are calculated. a) the cloud of measurement points is swept with at least one virtual test piece which at least partially has a shape approximating the shape of the part of twistlocks on the carrier vehicle which protrudes above the upper side of the carrier vehicle; b) all locations are determined where the shape of the virtual test piece, approximating a twistlock, corresponds to the local shape of the cloud of measurement points at least to a predefined degree; c) the locations determined in this manner are defined to be eligible locations for twistlocks; d) eligible locations having predefined distances from one another are defined to be actual twistlock locations; and e) from the twistlock locations defined in this manner, container target position data (40; 42) for the container to be placed on the carrier vehicle are calculated.
A bariatric apparatus, comprising: an ingestable magnetic, space-filling portion, wherein said portion includes a magnetic component having plural magnetic axes, which portion is configured to magnetically come together within the stomach of a human patient with other such ingestible, magnetic, space-filling portions to form a resulting structure that provides therapeutic bariatric benefit to the patient, wherein the space-filling portion is provided with a predetermined amount of protein/peptide so as to induce closure of the pylorus of the stomach and thereby retain such space-filling portions within the stomach to promote magnetic assembly of the plurality of magnetic, space-filling portions; wherein the space-filling portion has plural faces and each face is associated with a different magnet. an ingestable magnetic, space-filling portion, wherein said portion includes a magnetic component having plural magnetic axes, which portion is configured to magnetically come together within the stomach of a human patient with other such ingestible, magnetic, space-filling portions to form a resulting structure that provides therapeutic bariatric benefit to the patient, wherein the space-filling portion is provided with a predetermined amount of protein/peptide so as to induce closure of the pylorus of the stomach and thereby retain such space-filling portions within the stomach to promote magnetic assembly of the plurality of magnetic, space-filling portions; wherein the space-filling portion has plural faces and each face is associated with a different magnet.
A wind turbine blade for a wind turbine, comprising a web extending along a longitudinal direction of the blade, an electrically conductive beam extending along the longitudinal direction of the blade and being connected to the web, a lightning conductor extending along the longitudinal direction of the blade and being attached to the web, and a ply, said ply being a structural element having a length, the ply comprising carbon fibers, wherein the ply is attached to both the lightning conductor and the beam to electrically connect the lightning conductor to the beam, and wherein in a cross-sectional view the ply is wrapped around the beam. a web extending along a longitudinal direction of the blade, an electrically conductive beam extending along the longitudinal direction of the blade and being connected to the web, a lightning conductor extending along the longitudinal direction of the blade and being attached to the web, and a ply, said ply being a structural element having a length, the ply comprising carbon fibers, wherein the ply is attached to both the lightning conductor and the beam to electrically connect the lightning conductor to the beam, and wherein in a cross-sectional view the ply is wrapped around the beam.
A lens, comprising a lens body, the lens body is substantially in a shape of a circular table, a small end of the lens body is provided with a concave inner light source accommodation space, the inner surface of the light source accommodation space is an incident surface of light, a surface of a large end of the lens body is an exit surface, and a side surface of the lens body is a reflecting surface, wherein a bottom of the light source accommodation space is provided with a cylindrical protrusion, cross section dimension of the light source accommodation space gradually decreases, from the small end of the lens to the large end of the lens; the cylindrical protrusion is formed by protrusion from the bottom of the light source accommodation space toward the small end of the lens body characterized in that a spherical protrusion is symmetrically disposed at both ends of the cylindrical protrusion in the axial direction, and the surface of cylindrical protrusion is transitionally connected with the surface of the spherical protrusion; a surface of the large end of the lens body is provided with a ridge; and wherein, a stepped notch is disposed between one side of the large end of the lens body and the side of the lens body; the stepped notch is formed by invagination from the outside of the lens to the solid part of the lens, and comprises a continuous first plane, a second plane, a third plane and a fourth plane; and the first plane, the second plane, the third plane 1 and the fourth plane are disposed in a direction from the surface of the large end of the lens body to the side of the lens body in sequence; the first plane intersects the second plane to form a first notch; the third plane intersects the fourth plane to form a second notch; the first notch and the second notch constitute the stepped notch; the first plane is perpendicular or nearly perpendicular to the surface of the large end of the lens.
An apparatus configured to administer microparticles of adrenalin to the lungs of a biological subject to treat anaphylaxis or cardiac arrest, the apparatus including: a) a supply of positive pressure gas; b) an inlet adapted for fluid communication with a supply of positive pressure gas; c) an outlet adapted for fluid communication with the subject's airways to deliver the positive pressure gas to the subject's lungs; d) a channel extending at least part way between the inlet and the outlet and including at least one baffle for generating turbulent gas flow within the channel; e) a medicament supply including a dose of the microparticles of adrenalin for release into the channel; and f) an actuator for selectively supplying the dose of the microparticles of adrenalin into the gas flow, the actuator including a piston for urging the dose of the microparticles of adrenalin into the channel, so that, in use, the dose of the microparticles of adrenalin is entrained in a positive pressure gas flow caused by the supply of positive pressure gas from the inlet to the outlet through the channel, wherein the apparatus is configured to deliver the dose of the microparticles of adrenalin to the subject's lungs (i) without requiring the subject to inhale and (ii) by an amount of the positive pressure gas flow corresponding to an artificial breath for the subject. a) a supply of positive pressure gas; b) an inlet adapted for fluid communication with a supply of positive pressure gas; c) an outlet adapted for fluid communication with the subject's airways to deliver the positive pressure gas to the subject's lungs; d) a channel extending at least part way between the inlet and the outlet and including at least one baffle for generating turbulent gas flow within the channel; e) a medicament supply including a dose of the microparticles of adrenalin for release into the channel; and f) an actuator for selectively supplying the dose of the microparticles of adrenalin into the gas flow, the actuator including a piston for urging the dose of the microparticles of adrenalin into the channel, so that, in use, the dose of the microparticles of adrenalin is entrained in a positive pressure gas flow caused by the supply of positive pressure gas from the inlet to the outlet through the channel,