mhurhangee/ep-ind-claims huggingface dataset:
A seatbelt retractor mounting structure, comprising: a vehicle body mounting portion that structures a portion of a bracket that mounts a seatbelt retractor to a vehicle body panel of a vehicle body side portion, and that is superposed on and mounted to the vehicle body panel; a retractor mounting portion that structures a portion of the bracket, and that is disposed further toward a vehicle transverse direction inner side than the vehicle body mounting portion, and to which the seatbelt retractor is mounted; characterized by a bead (40, 42, 44) that is formed at the bracket, and that extends substantially in a vehicle longitudinal direction adjacent to a mounting position (P1-P7) of the vehicle body mounting portion to the vehicle body panel; wherein the vehicle body mounting portion structures an end portion at a vehicle front side of the bracket; and at least a portion of a superposed portion of the vehicle body panel on the vehicle body mounting portion is disposed at a vehicle transverse direction inner side with respect to the vehicle body mounting portion, and outlines (L1,L2,L3) of a vehicle rear side of the superposed portion are set substantially along a vehicle vertical direction. a vehicle body mounting portion that structures a portion of a bracket that mounts a seatbelt retractor to a vehicle body panel of a vehicle body side portion, and that is superposed on and mounted to the vehicle body panel; a retractor mounting portion that structures a portion of the bracket, and that is disposed further toward a vehicle transverse direction inner side than the vehicle body mounting portion, and to which the seatbelt retractor is mounted; characterized by a bead (40, 42, 44) that is formed at the bracket, and that extends substantially in a vehicle longitudinal direction adjacent to a mounting position (P1-P7) of the vehicle body mounting portion to the vehicle body panel; wherein the vehicle body mounting portion structures an end portion at a vehicle front side of the bracket; and at least a portion of a superposed portion of the vehicle body panel on the vehicle body mounting portion is disposed at a vehicle transverse direction inner side with respect to the vehicle body mounting portion, and outlines (L1,L2,L3) of a vehicle rear side of the superposed portion are set substantially along a vehicle vertical direction.
A hair feeding device configured to perform a feeding operation for pulling out flocking hairs one by one from a bundle of flocking hairs, characterized in that the device comprises: a feeder configured to hold the bundle of flocking hairs and separate hair ends of a plurality of the flocking hairs in a direction different from that of the bundle; a detector configured to detect three-dimensional positions of the separated hair ends of the plurality of flocking hairs; a head for capturing the hair ends of the flocking hairs; a conveyance mechanism configured to convey the head to any three-dimensional position; and a control device configured to perform an operation control of the feeding operation, wherein the control device controls the conveyance mechanism so that the head captures the hair ends of the flocking hairs at three-dimensional positions of the hair ends of one flocking hair among the plurality of hairs detected by the detector. a feeder configured to hold the bundle of flocking hairs and separate hair ends of a plurality of the flocking hairs in a direction different from that of the bundle; a detector configured to detect three-dimensional positions of the separated hair ends of the plurality of flocking hairs; a head for capturing the hair ends of the flocking hairs; a conveyance mechanism configured to convey the head to any three-dimensional position; and a control device configured to perform an operation control of the feeding operation, wherein the control device controls the conveyance mechanism so that the head captures the hair ends of the flocking hairs at three-dimensional positions of the hair ends of one flocking hair among the plurality of hairs detected by the detector.
A leadless pacemaker for pacing a heart of a human comprising: a hermetic housing; at least two electrodes on or near the hermetic housing, the at least two electrodes are configured to deliver energy to stimulate the heart and to transfer an information-encoded pulse to or from at least one external device and to sense electrical activity from the heart; circuit configured to sense cardiac activity from the at least two electrodes; and a controller in the hermetic housing, characterized in that the controller is configured to communicate with the external device by transferring the information-encoded pulse through the at least two electrodes outside of both a refractory period and a pacing pulse. a hermetic housing; at least two electrodes on or near the hermetic housing, the at least two electrodes are configured to deliver energy to stimulate the heart and to transfer an information-encoded pulse to or from at least one external device and to sense electrical activity from the heart; circuit configured to sense cardiac activity from the at least two electrodes; and a controller in the hermetic housing, characterized in that the controller is configured to communicate with the external device by transferring the information-encoded pulse through the at least two electrodes outside of both a refractory period and a pacing pulse.
Method of machining a bi-material mechanical workpiece including cylindrical orifices lined internally with a material of greater hardness than its own flush with its exterior face using a rotary milling tool, characterized in that the tool produces in a single pass plunging axially into the cylindrical orifice on the one hand a bi-material counterbore uncovering at the top of the orifice a roughed bore in the mass of the workpiece and that of the lining and on the other hand a chamfer at the upper end of the lining that is oriented toward the center of the cylindrical orifice.
A solvent composition, comprising: trans-1,2-dichloroethylene; at least one hydrofluoroether selected from a group consisting of 1,1-difluoroethyl-2,2,2-trifluoroethyl ether, 1,1,2,2-tetrafluoroethyl-2,2,2-trifluoroethyl ether, and 1,1-difluoroethyl-2,2,3,3,3-pentafluoropropyl ether; and at least one hydrofluorocarbon selected from a group consisting of 1,1,2,2,3,3,4-heptafluorocyclopentane, and 1,1,1,2,2,3,3,4,4,5,5,6,6-tridecafluorohexane, wherein a ratio of trans-1,2-dichloroethylene with respect to a total amount of trans-1,2-dichloroethylene, the hydrofluoroether, and the hydrofluorocarbon is 65 to 80 mass%, a ratio of the hydrofluoroether with respect to the total amount is 5 to 25 mass%, and a ratio of the hydrofluorocarbon with respect to the total amount is 5 to 25 mass%. trans-1,2-dichloroethylene; at least one hydrofluoroether selected from a group consisting of 1,1-difluoroethyl-2,2,2-trifluoroethyl ether, 1,1,2,2-tetrafluoroethyl-2,2,2-trifluoroethyl ether, and 1,1-difluoroethyl-2,2,3,3,3-pentafluoropropyl ether; and at least one hydrofluorocarbon selected from a group consisting of 1,1,2,2,3,3,4-heptafluorocyclopentane, and 1,1,1,2,2,3,3,4,4,5,5,6,6-tridecafluorohexane, wherein a ratio of trans-1,2-dichloroethylene with respect to a total amount of trans-1,2-dichloroethylene, the hydrofluoroether, and the hydrofluorocarbon is 65 to 80 mass%, a ratio of the hydrofluoroether with respect to the total amount is 5 to 25 mass%, and a ratio of the hydrofluorocarbon with respect to the total amount is 5 to 25 mass%.
An apparatus comprising: an elongated shaft comprising a proximal portion and a distal portion, the elongated shaft configured to be manipulated at the proximal portion to position the distal portion into a heart of a patient; an end effector disposed proximate the distal portion of the elongated shaft and comprising spines (1A, 1B, 2A, 2B, 3A, 3B) each carrying at least one spine electrode configured to contact cardiovascular tissue and receive electrical potentials from the tissue; and a reference electrode comprising an inner surface and an outer surface disposed about a longitudinal axis (A-A) extending along the elongated shaft, the reference electrode being disposed in the elongated shaft such that the electrode does not protrude beyond the elongated shaft such that the elongated shaft prevents the reference electrode from contacting the tissue, the inner surface of the reference electrode being configured to receive electrical potentials from fluids that act as a referential signal for the electrical potentials of the at least one spine electrode. an elongated shaft comprising a proximal portion and a distal portion, the elongated shaft configured to be manipulated at the proximal portion to position the distal portion into a heart of a patient; an end effector disposed proximate the distal portion of the elongated shaft and comprising spines (1A, 1B, 2A, 2B, 3A, 3B) each carrying at least one spine electrode configured to contact cardiovascular tissue and receive electrical potentials from the tissue; and a reference electrode comprising an inner surface and an outer surface disposed about a longitudinal axis (A-A) extending along the elongated shaft, the reference electrode being disposed in the elongated shaft such that the electrode does not protrude beyond the elongated shaft such that the elongated shaft prevents the reference electrode from contacting the tissue, the inner surface of the reference electrode being configured to receive electrical potentials from fluids that act as a referential signal for the electrical potentials of the at least one spine electrode.
AIR FRESHENER HAVING A STEM STRUCTURE WITH STOPS, characterised in that it comprises a stem closed at its ends by a first stop and a second stop, wherein at least the first stop is removable and wherein the first stop, the second stop and the stem are coaxially aligned, and in that it comprises, arranged between both stops, an impregnated body with a through hole crossed by the stem. Wherein the Air Freshener further comprises a clamp with an annular head said annular head being arranged between the first stop and the second stop and crossed by the stem.
An apparatus for generating a hologram, the apparatus comprising: a receiving unit arranged to receive 3D point data related to a plurality of 3D points which form an object whose hologram is to be generated in a hologram plane; a pattern setting unit configured to set a size of a Fresnel zone plate, FZP, pattern, wherein the FZP is intended to diffractively reconstruct one 3D point of said plurality of 3D points, and to select a partial area from the entire area, the partial area of the FZP corresponding to a portion of an entire area of the FZP; a calculation unit, comprising a plurality of processors, said calculation unit arranged to calculate, in said hologram plane, FZP pattern values at a plurality of reference points in the partial area of the FZP; wherein the calculation unit is further arranged to generate the remaining values in the partial area of the FZP by parallel recurrent interpolation from said plurality of calculated reference points; a pattern duplicating unit arranged to complete the FZP pattern for the entire area by concentric symmetrically duplicating the values of the partial area of the FZP to thereby generate a complete Fresnel zone plate; a scheduling unit to perform scheduling for the parallel recurrent interpolation with respect to the plurality of processors to increase a computing rate by reducing a number of idle processors. a receiving unit arranged to receive 3D point data related to a plurality of 3D points which form an object whose hologram is to be generated in a hologram plane; a pattern setting unit configured to set a size of a Fresnel zone plate, FZP, pattern, wherein the FZP is intended to diffractively reconstruct one 3D point of said plurality of 3D points, and to select a partial area from the entire area, the partial area of the FZP corresponding to a portion of an entire area of the FZP; to set a size of a Fresnel zone plate, FZP, pattern, wherein the FZP is intended to diffractively reconstruct one 3D point of said plurality of 3D points, and to select a partial area from the entire area, the partial area of the FZP corresponding to a portion of an entire area of the FZP; a calculation unit, comprising a plurality of processors, said calculation unit arranged to calculate, in said hologram plane, FZP pattern values at a plurality of reference points in the partial area of the FZP; wherein the calculation unit is further arranged to generate the remaining values in the partial area of the FZP by parallel recurrent interpolation from said plurality of calculated reference points; a pattern duplicating unit arranged to complete the FZP pattern for the entire area by concentric symmetrically duplicating the values of the partial area of the FZP to thereby generate a complete Fresnel zone plate; a scheduling unit to perform scheduling for the parallel recurrent interpolation with respect to the plurality of processors to increase a computing rate by reducing a number of idle processors.
A nano capsule liquid crystal layer, comprising: a buffer layer; a plurality of nano capsules disposed in the buffer layer and having a size less than the wavelength of visible light, an inside of each of the nano capsules including: liquid crystal molecules, and additives each having a center molecular portion and at least two first peripheral molecular portions connected to the center molecular portion and spaced apart from each other, and that are mixed with the liquid crystal molecules, wherein the additives are dispersed apart from each other in the nano capsule, wherein the first peripheral molecular portions have the same phase and property as the liquid crystal molecules. a buffer layer; a plurality of nano capsules disposed in the buffer layer and having a size less than the wavelength of visible light, an inside of each of the nano capsules including: liquid crystal molecules, and additives each having a center molecular portion and at least two first peripheral molecular portions connected to the center molecular portion and spaced apart from each other, and that are mixed with the liquid crystal molecules, wherein the additives are dispersed apart from each other in the nano capsule, wherein the first peripheral molecular portions have the same phase and property as the liquid crystal molecules. liquid crystal molecules, and additives each having a center molecular portion and at least two first peripheral molecular portions connected to the center molecular portion and spaced apart from each other, and that are mixed with the liquid crystal molecules, wherein the additives are dispersed apart from each other in the nano capsule, wherein the first peripheral molecular portions have the same phase and property as the liquid crystal molecules.
A computer-implemented method for automatic determination of the change of a hollow organ comprising the steps: - providing a first medical image of the organ recorded at a first point of time, - computing a first representation of the organ in the first image, - computing a first reference-line of the organ based on the first representation of the organ, - providing a second medical image of the organ recorded at a second point of time, - computing a second representation of the organ in the second image, - computing a second reference-line of the organ based on the second representation of the organ, - registering of the first reference-line and the second reference-line to obtain a matching of the two representations (R1, R2) of the organ and/or features (D1, D2) derived from the representations (R1, R2), - comparing the matched representations (R1, R2) of the organ and/or the features (D1, D2) derived from these representations (R1, R2), wherein the reference-lines (L1, L2) are centerlines (L1, L2) of the hollow organ, wherein the reference-lines (L1, L2) are determined by an iterative calculation of the next point d of a centerline (L1, L2) based on a known or predefined point d prev on the centerline (L1, L2) with a predefined distance between points d and d prev and points p on the surface S of the hollow organ by solving the optimization problem min d max p∈S ||d-p||, wherein the hollow organ is an aorta, a vessel, an airway or a trachea. - providing a first medical image of the organ recorded at a first point of time, - computing a first representation of the organ in the first image, - computing a first reference-line of the organ based on the first representation of the organ, - providing a second medical image of the organ recorded at a second point of time, - computing a second representation of the organ in the second image, - computing a second reference-line of the organ based on the second representation of the organ, - registering of the first reference-line and the second reference-line to obtain a matching of the two representations (R1, R2) of the organ and/or features (D1, D2) derived from the representations (R1, R2), - comparing the matched representations (R1, R2) of the organ and/or the features (D1, D2) derived from these representations (R1, R2), wherein the reference-lines (L1, L2) are centerlines (L1, L2) of the hollow organ, wherein the reference-lines (L1, L2) are determined by an iterative calculation of the next point d of a centerline (L1, L2) based on a known or predefined point d prev on the centerline (L1, L2) with a predefined distance between points d and d prev and points p on the surface S of the hollow organ by solving the optimization problem min d max p∈S ||d-p||, wherein the hollow organ is an aorta, a vessel, an airway or a trachea.
A method for producing an electric wire comprising a conductor and an insulating layer containing a fluororesin and covering the surface of the conductor, which comprises a step of irradiating an electron beam to the insulating layer containing a fluororesin and covering the surface of the conductor, to modify at least part of the fluororesin to a modified fluororesin thereby to form an insulating layer containing the modified fluororesin, characterized in that the fluororesin has a crystalline melting point of at least 260°C, contains either one or both of a structural unit (a) having a carbonyl group-containing group and a main chain terminal group (a') having a carbonyl group-containing group, and a structural unit (b) based on a perfluoromonomer (but excluding the structural unit (a)) and does not contain a structural unit based on a hydrocarbon monomer (but excluding the structural unit (a)), wherein the crystalline melting point of the fluororesin is determined by a differential scanning calorimetry using a thermal analyzer "EXSTAR DSC7020" (manufactured by Seiko Instruments Inc.), the melting peak at the time of raising the temperature at a rate of 10°C/minute, was recorded, and a temperature corresponding to the maximum value which is the top peak temperature (°C) was taken as the crystalline melting point, and irradiation of the electron beam is conducted under conditions of a temperature of less than the crystalline melting point of the fluororesin and in air, to satisfy the following condition and at least one of the following conditions and: 0.5 ≦ Mb / Ma < 1.2 wherein Ma represents a melt flow rate (g/10 min) of the fluororesin prior to the electron beam irradiation, and Mb represents a melt flow rate (g/10 min) of the fluororesin after the electron beam irradiation, wherein the melt flow rate (g/10 min) is measured using the melt indexer manufactured by Techno Seven, under a load of 49N (5 kg) at 372°C, the mass (g) of the fluororesin flowing out in 10 minutes from a nozzle with a diameter of 2 mm and a length of 8 mm was measured, and the value was taken as melt flow rate (g/10 min), 1 ≦ Tb − Ta < 6.5 wherein Ta represents a crystalline melting point (°C) of the fluororesin prior to the electron beam irradiation, and Tb is a crystalline melting point (°C) of the fluororesin after the electron beam irradiation, irradiation dose of less than 30 kGy.
A cone brake no-back, comprising: an input no-back disk; an output no-back disk; a no-back ball ramp mechanism operably connected to the input no-back disk and the output no back disk; an input no-back cone operably connected to and supportive of the input no-back disk, the input no-back cone axially loaded by an input no-back spring; and an output no-back cone operably connected to and supportive of the output no-back disk, the output no-back cone axially loaded by an output no-back spring; wherein a no-back input shaft is operably connected to the input no-back disk and the output no back disk; and wherein a no-back output shaft is operably connected to the output no back disk. an input no-back disk; an output no-back disk; a no-back ball ramp mechanism operably connected to the input no-back disk and the output no back disk; an input no-back cone operably connected to and supportive of the input no-back disk, the input no-back cone axially loaded by an input no-back spring; and an output no-back cone operably connected to and supportive of the output no-back disk, the output no-back cone axially loaded by an output no-back spring; wherein a no-back input shaft is operably connected to the input no-back disk and the output no back disk; and wherein a no-back output shaft is operably connected to the output no back disk.
A computer-based method of creating a composite image of a patient, comprising the steps of a. providing a first image of a portion of a person, said first image having a first field of view the method characterized by the steps of b. providing a surface scan corresponding to the exterior of the person c. providing a second image of an outer contour of at least a part of the person based on the surface scan, said outer contour having an interior comprising an area of the patient corresponding to the first field of view and extending outside of the first field of view. d. providing approximate image data inside of the outer contour, to produce an approximate image of the interior of the person e. applying data from the first image in the area of the approximate image corresponding to the first field of view to create a composite image. a. providing a first image of a portion of a person, said first image having a first field of view the method characterized by the steps of b. providing a surface scan corresponding to the exterior of the person c. providing a second image of an outer contour of at least a part of the person based on the surface scan, said outer contour having an interior comprising an area of the patient corresponding to the first field of view and extending outside of the first field of view. d. providing approximate image data inside of the outer contour, to produce an approximate image of the interior of the person e. applying data from the first image in the area of the approximate image corresponding to the first field of view to create a composite image.