mhurhangee/ep-ind-claims huggingface dataset:
Prourokinase (proUK) for use in facilitated percutaneous coronary intervention in patients with acute myocardial infarction, said use comprising within 6 hrs after a patient is afflicted with AMI, firstly, performing thrombolytic therapy with proUK, and then, performing a PCI operation, to dredge the infarction related artery as soon as possible, and re-establish an effective forward blood flow, such that an ischemic myocardium is reperfused, wherein in said use the thrombolytic therapy with proUK is performed in a manner of intravenous bolus and intravenous drip infusion in combination, comprising first administrating in the manner of intravenous bolus of 20% of the total dose of proUK to each patient, and then in the manner of intravenous drip infusion for 90 min at 50,000 units-200,000 units/min for the rest, in which the total dose of proUK is not greater than 6,000,000 units, and wherein in said use the PCI operation is performed at half an hour to 24 hrs after the thrombolytic therapy with proUK.
A biometrics authentication device for authenticating a subject comprising: an image obtaining unit configured to obtain an image of a hand of the subject; a region specifying unit configured to specify a region of interest, ROI, of the image, the ROI corresponding to a palm of the subject; a set of filters that each has a high filter response to linear dark portions in a respective direction θ in the ROI, and that is configured to extract directional features g θ (i,j) at each location of the ROI respectively corresponding to the respective direction θ of each filter; a Principal-Line Dependent Index, PLDI, generating unit configured to generate a PLDI obtained by dividing the difference between a maximum directional feature MAX θ (i,j) and a minimum directional feature MIN θ (i,j) from among the plurality of directional features g θ (i,j) by an average value AVE θ (i,j) of the directional features g θ (i,j); a PLDI matching processing unit configured to determine a first degree of similarity between the PLDI and a registered PLDI stored in a storing unit; and a determining unit configured to authenticate the subject when the first degree of similarity is greater than or equal to a threshold. an image obtaining unit configured to obtain an image of a hand of the subject; a region specifying unit configured to specify a region of interest, ROI, of the image, the ROI corresponding to a palm of the subject; a set of filters that each has a high filter response to linear dark portions in a respective direction θ in the ROI, and that is configured to extract directional features g θ (i,j) at each location of the ROI respectively corresponding to the respective direction θ of each filter; a Principal-Line Dependent Index, PLDI, generating unit configured to generate a PLDI obtained by dividing the difference between a maximum directional feature MAX θ (i,j) and a minimum directional feature MIN θ (i,j) from among the plurality of directional features g θ (i,j) by an average value AVE θ (i,j) of the directional features g θ (i,j); a PLDI matching processing unit configured to determine a first degree of similarity between the PLDI and a registered PLDI stored in a storing unit; and a determining unit configured to authenticate the subject when the first degree of similarity is greater than or equal to a threshold.
A filter medium comprising: a melt-blown filter layer comprising melt-blown fibers having an average diameter of greater than 1.5 microns; wherein the melt-blown filter layer has a compressibility of greater than 40% at a pressure of 1.24 kg/cm 2; a high-efficiency glass-containing filter layer comprising glass fibers having an average diameter of less than 2 μm and multi-component binder fibers; and a spunbond support layer and wherein the melt-blown filter layer is the most upstream layer. a melt-blown filter layer comprising melt-blown fibers having an average diameter of greater than 1.5 microns; wherein the melt-blown filter layer has a compressibility of greater than 40% at a pressure of 1.24 kg/cm 2; a high-efficiency glass-containing filter layer comprising glass fibers having an average diameter of less than 2 μm and multi-component binder fibers; and a spunbond support layer and wherein the melt-blown filter layer is the most upstream layer.
A glenoid implant (500, 600, 700), comprising: a bearing component (506, 606, 706) defining an articulating surface, wherein the bearing component is comprised of a polymer; an augment component (508, 608, 708), wherein the augment component is comprised of a metal, the augment component forming at least a first portion of a bone contacting surface (504, 604, 704); and at least one projection (510, 512, 514, 610, 612, 614, 710, 712, 714) extending from the bone contacting surface, the glenoid implant characterized in that the bearing component is overmolded on the augment component or the augment component is a modular component of the glenoid implant. a bearing component (506, 606, 706) defining an articulating surface, wherein the bearing component is comprised of a polymer; an augment component (508, 608, 708), wherein the augment component is comprised of a metal, the augment component forming at least a first portion of a bone contacting surface (504, 604, 704); and at least one projection (510, 512, 514, 610, 612, 614, 710, 712, 714) extending from the bone contacting surface, the glenoid implant characterized in that the bearing component is overmolded on the augment component or the augment component is a modular component of the glenoid implant.
An assembly including: a) a connection part comprising at least one region of weakness (3a, 3b), and b) a disconnection device said disconnection device being intended to disconnect two electrochemical cells (1, 2) connected together by said connection part, said disconnection device comprising: i) microparticles capable of expanding when their temperature reaches a threshold value, said threshold value being less than 150°C, ii) a capsule (4a, 4b) surrounding all of the microparticles, said capsule being arranged so that, when the temperature of the microparticles reaches said threshold value, the expansion of the microparticles causes a deformation of the capsule, this deformation exerting a pressure in the vicinity of said at least one region of weakness, the pressure causing a tear in said at least one region of weakness, the tear leading to a break in the connection between said two electrochemical cells. a) a connection part comprising at least one region of weakness (3a, 3b), and b) a disconnection device said disconnection device being intended to disconnect two electrochemical cells (1, 2) connected together by said connection part, said disconnection device comprising: i) microparticles capable of expanding when their temperature reaches a threshold value, said threshold value being less than 150°C, ii) a capsule (4a, 4b) surrounding all of the microparticles, i) microparticles capable of expanding when their temperature reaches a threshold value, said threshold value being less than 150°C, ii) a capsule (4a, 4b) surrounding all of the microparticles,
A pharmaceutical composition for pulmonary delivery comprising particles containing levodopa, wherein the particles have a geometric size of 8 μm to 12 μm, a tap density of 0.025 g/cm 3 to 0.050 g/cm 3, and a water content between 1.90 and 2.90 weight percent, and wherein tap density is determined using the method of USP Bulk Density and Tapped Density, United States Pharmacopia Convention, Rockville, Md., 10th Supplement, 4950-4951, 1999 and geometric size is measured using a laser diffraction instrument.
A method for producing a forged crankshaft including journals (J, J1-J5) serving as a center of rotation, pins (P, P1-P4) decentered from the journals (J, J1-J5), crank arms (A, A1-A8) connecting the journals (J, J1-J5) and the pins (P, P1-P4), and counterweights (W, W1-W8) integrated with all or some of the crank arms (A, A1-A8), the method comprising: (i) a die forging step of obtaining a forged blank (30, 30a) with flash having a crankshaft shape, wherein the forged blank (30, 30a) includes rough journals (J'), rough pins (P'), rough crank arms (A'), and rough counterweights (W'), which correspond to the journals (J, J1-J5), the pins (P, P1-P4), the crank arms (A, A1-A8), and the counterweights (W, W1-W8)of the forged crankshaft, respectively; and wherein at least one of the rough crank arms (A') has, in a region near an adjacent one of the rough pins (P'), a first excess portion (Aaa, Aba) protruding from an outer periphery of a side portion of the rough crank arm (Aa', Ab'); and (ii) a trimming step of removing the flash from the forged blank (30, 30a) while nipping the forged blank (30, 30a) with a pair of holding dies, wherein when the forged blank (30, 30a) is nipped with the pair of holding dies in the trimming step, the first excess portion (Aaa, Aba) is deformed by the pair of holding dies to bulge toward an adjacent one of the rough journals (J'), characterised in that in the trimming step, the first excess portion (Aaa, Aba) is deformed by the pair of holding dies to bulge toward the adjacent rough journal (J') while a holder is holding a lower surface of the flash; and the holder moves along with a movement of the pair of holding dies while keeping holding the lower surface of the flash. (i) a die forging step of obtaining a forged blank (30, 30a) with flash having a crankshaft shape, wherein the forged blank (30, 30a) includes rough journals (J'), rough pins (P'), rough crank arms (A'), and rough counterweights (W'), which correspond to the journals (J, J1-J5), the pins (P, P1-P4), the crank arms (A, A1-A8), and the counterweights (W, W1-W8)of the forged crankshaft, respectively; and wherein at least one of the rough crank arms (A') has, in a region near an adjacent one of the rough pins (P'), a first excess portion (Aaa, Aba) protruding from an outer periphery of a side portion of the rough crank arm (Aa', Ab'); and (ii) a trimming step of removing the flash from the forged blank (30, 30a) while nipping the forged blank (30, 30a) with a pair of holding dies,
A drink supply apparatus comprising: a drink cooling unit configured to store cooling water inside thereof; a cooling unit housing disposed on a lower portion of the drink cooling unit, wherein a cooling device is installed within the housing; a drink storage configured to store a plurality of drink supply cans (131, 132); a sterilizing module formed in a dry area disposed on an upper portion of the drink cooling unit, wherein each of the drink cooling unit, the cooling unit housing, the drink storage, and the sterilizing module is installed by having an independent structure detachable from one another, and wherein the sterilizing module includes: an electrolyzing device; an original water supply port configured to supply original water to the electrolyzing device; an original water cooling pipe positioned in the cooling water of the drink cooling unit made of a metallic material in a shape of coil, having one end thereof connected to the original water supply port and another end thereof connected to the electrolyzing device; a sterilizing water supply pipe configured to eject sterilizing water generated in the electrolyzing device; a valve member configured to branch into a first flow path and a second flow path, one end of the first flow path connected to the sterilizing water supply pipe and another end of the first flow path connected to a sterilizing water outlet configured to inject sterilizing water into the drink cooling unit for use as cooling water, and the second flow path connected to a sterilizing water supply port suitable for connection to a drink supply pipe. a drink cooling unit configured to store cooling water inside thereof; a cooling unit housing disposed on a lower portion of the drink cooling unit, wherein a cooling device is installed within the housing; a drink storage configured to store a plurality of drink supply cans (131, 132); a sterilizing module formed in a dry area disposed on an upper portion of the drink cooling unit, wherein each of the drink cooling unit, the cooling unit housing, the drink storage, and the sterilizing module is installed by having an independent structure detachable from one another, and an electrolyzing device; an original water supply port configured to supply original water to the electrolyzing device; an original water cooling pipe positioned in the cooling water of the drink cooling unit made of a metallic material in a shape of coil, having one end thereof connected to the original water supply port and another end thereof connected to the electrolyzing device; a sterilizing water supply pipe configured to eject sterilizing water generated in the electrolyzing device; a valve member configured to branch into a first flow path and a second flow path, one end of the first flow path connected to the sterilizing water supply pipe and another end of the first flow path connected to a sterilizing water outlet configured to inject sterilizing water into the drink cooling unit for use as cooling water, and the second flow path connected to a sterilizing water supply port suitable for connection to a drink supply pipe.
An aircraft fuselage comprising cross-members intended for the formation of a floor, at least one of said cross-members comprising an upper part, a lower part, means for linking the lower part to the upper part, and at least one opening for the passage of systems which is delimited between the lower part and the upper part, characterised in that in that only the upper part of said cross-member is fastened to the fuselage and is dimensioned so as to bear the stresses to which said cross-member may be subjected when the aircraft remains on the ground, and in that the lower part of said cross-member is fastened just to the upper part thereof so as to reinforce it such that when assembled, the upper part and the lower part are able to bear the stresses to which said cross-member may be subjected in flight conditions of the aircraft.
A coil for electromagnetic pump, comprising a winding consisting of a conductive wire wound around a hollow cylindrical support; a frame made of ferromagnetic material for creating a magnetic path around the winding, said frame comprising, on the one hand, a core having a longitudinal axis, two axial ends and being provided with a cylindrical opening able to accommodate a mobile piston of an electromagnetic pump and said core passing through said winding, and, on the other hand, a loop around the winding to close the magnetic circuit between the two axial ends of this core; said core passing through the winding along the longitudinal axis (a) of the coil; and an overmolding of synthetic material around the winding characterized by the fact that the outer surface of the overmolding forms radial cooling fins. a winding consisting of a conductive wire wound around a hollow cylindrical support; a frame made of ferromagnetic material for creating a magnetic path around the winding, said frame comprising, on the one hand, a core having a longitudinal axis, two axial ends and being provided with a cylindrical opening able to accommodate a mobile piston of an electromagnetic pump and said core passing through said winding, and, on the other hand, a loop around the winding to close the magnetic circuit between the two axial ends of this core; said core passing through the winding along the longitudinal axis (a) of the coil; and an overmolding of synthetic material around the winding characterized by the fact that the outer surface of the overmolding forms radial cooling fins.
A control device comprising: an imaging unit, an acquisition unit configured to acquire a light emission state of a first light source based on an image captured by the imaging unit; and a control unit configured to: control an operation of light emission of a second light source that is different from the first light source according to the acquired light emission state of the first light source; characterized in that the control unit is further configured to: determine a degree of interference between light emission of the first light source and the second light source based on a positional relation between the first light source and the second light source; and control a light intensity of light that is emitted from the first light source and the second light source according to the determined degree of interference. an imaging unit, an acquisition unit configured to acquire a light emission state of a first light source based on an image captured by the imaging unit; and a control unit configured to: control an operation of light emission of a second light source that is different from the first light source according to the acquired light emission state of the first light source; characterized in that the control unit is further configured to: determine a degree of interference between light emission of the first light source and control an operation of light emission of a second light source that is different from the first light source according to the acquired light emission state of the first light source; characterized in that the control unit is further configured to: determine a degree of interference between light emission of the first light source and the second light source based on a positional relation between the first light source and the second light source; and control a light intensity of light that is emitted from the first light source and the second light source according to the determined degree of interference.
A robotic athletic training system for assisting an individual during an athletic activity in an environment, comprising: a mobile robotic platform; a sensor module including an array of sensors coupled to the mobile robotic platform and configured to obtain data from the environment; a drive system configured to propel the mobile robotic platform; a steering system configured to steer the mobile robotic platform; a processor, the processor being configured to receive the data from the sensor module and to control one of the drive system and the steering system to follow a path based on the data, wherein the data comprises data related to variation of a surface of the environment; and a video camera configured to record video data of the individual during the athletic activity and to transmit the video data to the processor, wherein the processor is further configured to analyze physiological characteristics of the individual based on the video data, wherein the system is configured to provide coaching feedback to the individual during the athletic activity, the coaching feedback being based on the data from the sensor module and the physiological characteristics of the individual based on the video data from the video camera, and wherein analyzing the physiological characteristics of the individual comprises at least one of: analyze gait or foot strike characteristics, analyze other running form characteristics, recognize onset of fatigue, recognize perspiration levels. a mobile robotic platform; a sensor module including an array of sensors coupled to the mobile robotic platform and configured to obtain data from the environment; a drive system configured to propel the mobile robotic platform; a steering system configured to steer the mobile robotic platform; a processor, the processor being configured to receive the data from the sensor module and to control one of the drive system and the steering system to follow a path based on the data, wherein the data comprises data related to variation of a surface of the environment; and a video camera configured to record video data of the individual during the athletic activity and to transmit the video data to the processor, wherein the processor is further configured to analyze physiological characteristics of the individual based on the video data, wherein the system is configured to provide coaching feedback to the individual during the athletic activity, the coaching feedback being based on the data from the sensor module and the physiological characteristics of the individual based on the video data from the video camera, and wherein analyzing the physiological characteristics of the individual comprises at least one of: analyze gait or foot strike characteristics, analyze other running form characteristics, recognize onset of fatigue, recognize perspiration levels.
A force-feedback input device comprising: an operating unit configured to be manipulated by an operator; a detecting unit for detecting the operational state of the operating unit; a force-feedback unit for providing a force feedback to the operating unit; and a controlling unit for controlling the operation of the force-feedback unit based on detection signals output from the detecting unit, the controlling unit comprising: a returning-force-calculating subunit for calculating a returning force (Te(Θ) based on an operating position (Θ) of the operating unit; a damping-force-calculating subunit for calculating a damping force (Te(Θ)c'Θdot) based on an operation speed (Θdot) and a damping coefficient (c, Te(Θ)c') of the operating unit; and a resultant-force-calculating subunit for calculating a resultant force (Te(Θ)-Te(Θ)c'Θdot) based on the returning force (Te(Θ)) and the damping force (Te(Θ)c'Θdot), characterized in that the damping-force-calculating subunit is configured to calculate the damping coefficient (Te(Θ)c') based on the returning force (Te(Θ)). an operating unit configured to be manipulated by an operator; a detecting unit for detecting the operational state of the operating unit; a force-feedback unit for providing a force feedback to the operating unit; and a controlling unit for controlling the operation of the force-feedback unit based on detection signals output from the detecting unit, the controlling unit comprising: a returning-force-calculating subunit for calculating a returning force (Te(Θ) based on an operating position (Θ) of the operating unit; a damping-force-calculating subunit for calculating a damping force (Te(Θ)c'Θdot) based on an operation speed (Θdot) and a damping coefficient (c, Te(Θ)c') of the operating unit; and a resultant-force-calculating subunit for calculating a resultant force (Te(Θ)-Te(Θ)c'Θdot) based on the returning force (Te(Θ)) and the damping force (Te(Θ)c'Θdot), characterized in that the damping-force-calculating subunit is configured to calculate the damping coefficient (Te(Θ)c') based on the returning force (Te(Θ)). a returning-force-calculating subunit for calculating a returning force (Te(Θ) based on an operating position (Θ) of the operating unit; a damping-force-calculating subunit for calculating a damping force (Te(Θ)c'Θdot) based on an operation speed (Θdot) and a damping coefficient (c, Te(Θ)c') of the operating unit; and a resultant-force-calculating subunit for calculating a resultant force (Te(Θ)-Te(Θ)c'Θdot) based on the returning force (Te(Θ)) and the damping force (Te(Θ)c'Θdot), characterized in that the damping-force-calculating subunit is configured to calculate the damping coefficient (Te(Θ)c') based on the returning force (Te(Θ)).