mhurhangee/ep-ind-claims huggingface dataset:
A system for providing endoluminal delivery of a deliverable device through vasculature of a patient to a delivery site within the patient, comprising: an outer delivery sheath including a distal section, wherein at least a portion of the outer delivery sheath is sized for insertion into the vasculature of the patient; a carrier segment located at a distal portion of a catheter shaft, the carrier segment having an outer surface sized to temporarily hold the deliverable device in the distal section of the outer delivery sheath, wherein at least a portion of the catheter shaft is located within and coaxial to the outer delivery sheath; and a delivery segment located coaxial to the outer delivery sheath, the delivery segment having an outer surface sized to radially fit within the deliverable device after detaching the deliverable device from the carrier segment when the deliverable device resides within the distal section of the outer delivery sheath, wherein the delivery segment is configured to deploy the deliverable device at the delivery site, characterized in that: the carrier segment is an expandable balloon having an expanded diameter smaller than an expanded diameter for the delivery segment; and the delivery segment is an expandable balloon having an expanded diameter larger than an expanded diameter for the carrier segment. an outer delivery sheath including a distal section, wherein at least a portion of the outer delivery sheath is sized for insertion into the vasculature of the patient; a carrier segment located at a distal portion of a catheter shaft, the carrier segment having an outer surface sized to temporarily hold the deliverable device in the distal section of the outer delivery sheath, wherein at least a portion of the catheter shaft is located within and coaxial to the outer delivery sheath; and a delivery segment located coaxial to the outer delivery sheath, the delivery segment having an outer surface sized to radially fit within the deliverable device after detaching the deliverable device from the carrier segment when the deliverable device resides within the distal section of the outer delivery sheath, wherein the delivery segment is configured to deploy the deliverable device at the delivery site, characterized in that: the carrier segment is an expandable balloon having an expanded diameter smaller than an expanded diameter for the delivery segment; and the delivery segment is an expandable balloon having an expanded diameter larger than an expanded diameter for the carrier segment. the carrier segment is an expandable balloon having an expanded diameter smaller than an expanded diameter for the delivery segment; and the delivery segment is an expandable balloon having an expanded diameter larger than an expanded diameter for the carrier segment.
A printing system comprising a printing apparatus and a foil transfer apparatus; the printing apparatus comprising: a first liquid discharger configured to form an image layer with a first liquid on a first surface of a base material, the image layer including an image of a first shape; a second liquid discharger configured to form an adhesive layer of a second shape with a second liquid on a second surface of the base material opposite to the first surface on which the image layer is formed; the foil transfer apparatus comprising: a foil transfer apparatus configured to transfer a foil having the second shape onto the adhesive layer; wherein the first shape and the second shape are different from each other. the printing apparatus comprising: a first liquid discharger configured to form an image layer with a first liquid on a first surface of a base material, the image layer including an image of a first shape; a second liquid discharger configured to form an adhesive layer of a second shape with a second liquid on a second surface of the base material opposite to the first surface on which the image layer is formed; a first liquid discharger configured to form an image layer with a first liquid on a first surface of a base material, the image layer including an image of a first shape; a second liquid discharger configured to form an adhesive layer of a second shape with a second liquid on a second surface of the base material opposite to the first surface on which the image layer is formed; the foil transfer apparatus comprising: a foil transfer apparatus configured to transfer a foil having the second shape onto the adhesive layer; wherein the first shape and the second shape are different from each other. a foil transfer apparatus configured to transfer a foil having the second shape onto the adhesive layer; wherein the first shape and the second shape are different from each other.
An AC-DC power converter comprising: - an AC rectification circuit (D B) configured to convert an AC line voltage into a rectified line voltage (V B), - a rectifying element (D p) connected between the rectified line voltage (V B) and a DC supply voltage (V DC) of a resonant DC-DC converter; said resonant DC-DC converter comprising: - a resonant inverter configured to convert the DC supply voltage (V DC) into a resonant inverter voltage (V REC) at a fixed or controllable switching frequency, and - an output rectification circuit configured to generate a DC output voltage (V OUT) or DC output current from the resonant voltage for supply to a converter load (R L), - a charge pump circuit connected to the rectified line voltage (V B) and the resonant inverter voltage, where said charge pump circuit comprises a smoothing capacitor (C DC) connected to the DC supply voltage (V DC) and a pump or flying capacitor (C P) connected between the resonant inverter voltage (V REC) and the rectified line voltage (V B); characterized in that a capacitance of the smoothing capacitor (C DC) and a capacitance of the pump or flying capacitor (C P) are selected such that the DC supply voltage (V DC) is higher than the AC line voltage across an entire cycle of the AC line voltage, and wherein said charge pump circuit is configured to draw current pulses at a fixed or controllable switching frequency from the AC line voltage, wherein electrical charges of the current pulses vary proportionally to instantaneous amplitude of the AC line voltage. - an AC rectification circuit (D B) configured to convert an AC line voltage into a rectified line voltage (V B), - a rectifying element (D p) connected between the rectified line voltage (V B) and a DC supply voltage (V DC) of a resonant DC-DC converter; said resonant DC-DC converter comprising: - a resonant inverter configured to convert the DC supply voltage (V DC) into a resonant inverter voltage (V REC) at a fixed or controllable switching frequency, and - an output rectification circuit configured to generate a DC output voltage (V OUT) or DC output current from the resonant voltage for supply to a converter load (R L), - a charge pump circuit connected to the rectified line voltage (V B) and the resonant inverter voltage, where said charge pump circuit comprises a smoothing capacitor (C DC) connected to the DC supply voltage (V DC) and a pump or flying capacitor (C P) connected between the resonant inverter voltage (V REC) and the rectified line voltage (V B); characterized in that a capacitance of the smoothing capacitor (C DC) and a capacitance of the pump or flying capacitor (C P) are selected such that the DC supply voltage (V DC) is higher than the AC line voltage across an entire cycle of the AC line voltage, and wherein said charge pump circuit is configured to draw current pulses at a fixed or controllable switching frequency from the AC line voltage, wherein electrical charges of the current pulses vary proportionally to instantaneous amplitude of the AC line voltage.
An antifungal agent for external use, comprising: 1) luliconazole represented by the formula; 2) 50 to 95 mass % of an alcohol; 3) 0.1 to 35 mass % of water and/or an anionic surfactant; 4) 0.01 to 5 mass% of a cellulose-based thickener, wherein the cellulose-based thickener is selected from hydroxypropylmethyl cellulose and hydroxypropyl cellulose; and 5) 1 mass% or less of a flammable solvent comprising N-methyl-2-pyrrolidone and/or methyl ethyl ketone and excluding an alcohol, with respect to the total amount of the antifungal agent for external use. 1) luliconazole represented by the formula; 2) 50 to 95 mass % of an alcohol; 3) 0.1 to 35 mass % of water and/or an anionic surfactant; 4) 0.01 to 5 mass% of a cellulose-based thickener, wherein the cellulose-based thickener is selected from hydroxypropylmethyl cellulose and hydroxypropyl cellulose; and 5) 1 mass% or less of a flammable solvent comprising N-methyl-2-pyrrolidone and/or methyl ethyl ketone and excluding an alcohol, with respect to the total amount of the antifungal agent for external use.
An axle box suspension positioning device for a railway vehicle, comprising a guide column assembly and an elastic positioner connected between the guide column assembly and an axle box of the railway vehicle, wherein the guide column assembly comprises a fixed end connected to a frame of the railway vehicle, and a free end which is extendable and retractable from an opening of the axle box, and an elastic positioning component located under the elastic positioner is provided in the opening, and the elastic positioning component limits a movement of the free end along a running direction of the vehicle with respect to the frame; and a predetermined gap is provided between the elastic positioning component and the guide column assembly.
A wheel rotation detection component, at least a part of which is connected to a main body of a supported object, wherein the wheel rotation detection component comprises a support frame, a wheel, wherein the wheel rotation detection component further comprises a magnet and at least one detection element for detecting a change of a magnetic field of the magnet so as to detect a rotation information of the wheel, the wheel is movably connected to the support frame, the magnet is fixed on the wheel, the wheel rotation detection component further comprises a magnetic conduction shaft capable of being magnetized by the magnet so as to conduct the magnetic field to the at least one detection element, one end of the magnetic conduction shaft is connected to the support frame, the other end of the magnetic conduction shaft is connected to the main body, and the detection element is connected to the main body, wherein the support frame is configured to be rotatable around the magnetic conduction shaft as a rotating center to allow the support frame with the wheel to rotate relative to the main body so as to achieve direction adjustment and wherein by virtue of the connection of the magnetic conduction shaft, movable connection between the support frame and the main body is achieved.
A snow compression and removal device, comprising: a. a concave snow plow; b. a horizontal auger supported within said concave snow plow; c. a pump, wherein an input of said pump is disposed at a first end of said horizontal auger, wherein an opening is disposed at a second end of said horizontal auger; d. a compression module, wherein a first end of said compression module is disposed at an output of said pump, wherein said compression module comprises: i. a tubular casing, wherein said tubular casing comprises a snow inlet at a first end and a snow outlet at a second end, wherein said snow outlet comprises a converging or straight cross-section tubular shape, wherein said tubular casing is perforated with air holes; and ii. a conveyor screw, wherein said conveyor screw rotates on an axis that is disposed concentric to said tubular casing, wherein said conveyor screw spans from said snow inlet to said snow outlet, wherein said conveyor screw is powered to move snow from said snow inlet to said snow outlet and compacts said snow to a compressed state at said snow outlet, wherein air from said snow is exhausted through said air holes, wherein said compressed snow is output from said snow outlet. a. a concave snow plow; b. a horizontal auger supported within said concave snow plow; c. a pump, wherein an input of said pump is disposed at a first end of said horizontal auger, wherein an opening is disposed at a second end of said horizontal auger; d. a compression module, wherein a first end of said compression module is disposed at an output of said pump, wherein said compression module comprises: i. a tubular casing, wherein said tubular casing comprises a snow inlet at a first end and a snow outlet at a second end, wherein said snow outlet comprises a converging or straight cross-section tubular shape, wherein said tubular casing is perforated with air holes; and ii. a conveyor screw, wherein said conveyor screw rotates on an axis that is disposed concentric to said tubular casing, wherein said conveyor screw spans from said snow inlet to said snow outlet, wherein said conveyor screw is powered to move snow from said snow inlet to said snow outlet and compacts said snow to a compressed state at said snow outlet, wherein air from said snow is exhausted through said air holes, wherein said compressed snow is output from said snow outlet. i. a tubular casing, wherein said tubular casing comprises a snow inlet at a first end and a snow outlet at a second end, wherein said snow outlet comprises a converging or straight cross-section tubular shape, wherein said tubular casing is perforated with air holes; and ii. a conveyor screw, wherein said conveyor screw rotates on an axis that is disposed concentric to said tubular casing, wherein said conveyor screw spans from said snow inlet to said snow outlet, wherein said conveyor screw is powered to move snow from said snow inlet to said snow outlet and compacts said snow to a compressed state at said snow outlet, wherein air from said snow is exhausted through said air holes, wherein said compressed snow is output from said snow outlet.
Real-time method for dynamic state variable determination, comprising: predicting an a priori probability density function, PDF, for a state variable vector as a function of a last a posteriori PDF and a non-linear stochastic process equation that characterises the state variable vector; generating a measured value vector that has observations about the state variable vector as measurement signals that are sampled by a sensor system; converting the measured value vector and the a priori PDF into a measured density function and discretizing the measured density function on a thin Cartesian grid; iterative step-by-step tracking of the a priori PDF of the measurement density function taking into account an affin linear transformation of the grid; and estimating, after each step of the iterative tracking, an updated a posteriori PDF as a product of the a priori PDF on the affine linearly transformed grid with a weighting coefficient that is formed from the ratio between the measurement density function on the non-transformed grid and the tracked measurement density function; wherein the state variable vector has spatial coordinates, velocity vectors and ballistic coefficients of a moving object to be observed in real time. predicting an a priori probability density function, PDF, for a state variable vector as a function of a last a posteriori PDF and a non-linear stochastic process equation that characterises the state variable vector; generating a measured value vector that has observations about the state variable vector as measurement signals that are sampled by a sensor system; converting the measured value vector and the a priori PDF into a measured density function and discretizing the measured density function on a thin Cartesian grid; iterative step-by-step tracking of the a priori PDF of the measurement density function taking into account an affin linear transformation of the grid; and estimating, after each step of the iterative tracking, an updated a posteriori PDF as a product of the a priori PDF on the affine linearly transformed grid with a weighting coefficient that is formed from the ratio between the measurement density function on the non-transformed grid and the tracked measurement density function; wherein the state variable vector has spatial coordinates, velocity vectors and ballistic coefficients of a moving object to be observed in real time.
A method of dehydrating a mixture of organic liquid and water, the method comprising: feeding the mixture to a membrane of a membrane separation module, wherein the mixture comprises a minimum of 85 wt. % water and a maximum of 15 wt. % organic liquid; soaking the membrane with a soaking liquid; subjecting the mixture in the membrane to process conditions sufficient to cause pervaporation, wherein the process conditions comprise a temperature in a range of 85 to 160 °C; recovering a permeate comprising a higher wt. % of water than the wt. % of water in the mixture and a retentate comprising a higher wt. % of organic liquid than the wt. % of the organic liquid in the mixture. feeding the mixture to a membrane of a membrane separation module, wherein the mixture comprises a minimum of 85 wt. % water and a maximum of 15 wt. % organic liquid; soaking the membrane with a soaking liquid; subjecting the mixture in the membrane to process conditions sufficient to cause pervaporation, wherein the process conditions comprise a temperature in a range of 85 to 160 °C; recovering a permeate comprising a higher wt. % of water than the wt. % of water in the mixture and a retentate comprising a higher wt. % of organic liquid than the wt. % of the organic liquid in the mixture.
An insole (102a, 102b, 402a, 402b) for footwear, the insole (102a, 102b, 402a, 402b) comprising: a bottom surface having a perimeter; a peripheral sidewall that extends upward from the perimeter of the bottom surface; and a relief (116a, 116b, 416a, 416b) in the peripheral sidewall wherein the bottom surface has a hole that is positioned, sized, and dimensioned to receive a heel pad (124a, 124b, 424a, 424b), and the relief (116a, 116b, 416a, 416b) extends to the hole, wherein the bottom surface includes a bottom surface of a heel cap (1 10a, 110b, 410a, 410b), and the peripheral sidewall includes a peripheral sidewall of the heel cap (110a, 110b, 410a, 410b) and the hole extends entirely through heel cap (110a, 110b, 410a, 410b). a bottom surface having a perimeter; a peripheral sidewall that extends upward from the perimeter of the bottom surface; and a relief (116a, 116b, 416a, 416b) in the peripheral sidewall wherein the bottom surface has a hole that is positioned, sized, and dimensioned to receive a heel pad (124a, 124b, 424a, 424b), and the relief (116a, 116b, 416a, 416b) extends to the hole, wherein the bottom surface includes a bottom surface of a heel cap (1 10a, 110b, 410a, 410b), and the peripheral sidewall includes a peripheral sidewall of the heel cap (110a, 110b, 410a, 410b) and the hole extends entirely through heel cap (110a, 110b, 410a, 410b).
Method for the continuous re-processing of exhaust gas of a fusion reactor having a combustion chamber, comprising the following method steps: a) continuously withdrawing an exhaust gas volume flow from the combustion chamber of a fusion reactor with at least one metal foil pump, b) generating a plasma from the exhaust gas volume flow after entering the metal foil pump, c) separating the plasma inside the metal foil pump into gaseous hydrogen isotopologues and residual gas, c1) feeding the gaseous hydrogen isotopologues out of the metal foil pump into the fuel storage facility by means of at least one primary pump and at least one secondary pump, wherein the temperature of the hydrogen isotopologues is conditioned by at least one vapour barrier, c2) feeding the gaseous residual gas into a tritium re-processing system by means of the at least one primary pump and the at least one secondary pump, wherein the temperature of the residual gas is conditioned by the at least one vapour barrier (18, 18'), and d) feeding the gaseous hydrogen isotopologues via the fuel storage facility into the combustion chamber, e) generating a plasma from the exhaust gas volume flow in the metal foil pump by microwaves, wherein the microwaves are coupled in from outside the metal foil pump through at least one electrically conductive tube and/or at least one electrically conductive bar into the metal foil pump. a) continuously withdrawing an exhaust gas volume flow from the combustion chamber of a fusion reactor with at least one metal foil pump, b) generating a plasma from the exhaust gas volume flow after entering the metal foil pump, c) separating the plasma inside the metal foil pump into gaseous hydrogen isotopologues and residual gas, c1) feeding the gaseous hydrogen isotopologues out of the metal foil pump into the fuel storage facility by means of at least one primary pump and at least one secondary pump, wherein the temperature of the hydrogen isotopologues is conditioned by at least one vapour barrier, c2) feeding the gaseous residual gas into a tritium re-processing system by means of the at least one primary pump and the at least one secondary pump, wherein the temperature of the residual gas is conditioned by the at least one vapour barrier (18, 18'), and d) feeding the gaseous hydrogen isotopologues via the fuel storage facility into the combustion chamber, e) generating a plasma from the exhaust gas volume flow in the metal foil pump by microwaves, wherein the microwaves are coupled in from outside the metal foil pump through at least one electrically conductive tube and/or at least one electrically conductive bar into the metal foil pump.
An ophthalmic-image processing apparatus comprising: an image acquisition unit arranged to acquire volume-image data of the fundus of a subject's eye; an image-analysis unit arranged to extract data of retinal layers from the volume-image data; a display mode selection unit arranged to select a display mode; a layer-setting unit arranged to set at least one retinal layer from said acquired volume-image data based on the selected display mode; a projection setting unit arranged to set one of a maximum intensity projection effective to observe a high-brightness region or a minimum intensity projection effective to observe a low-brightness region based on the selected display mode; a projected image generating unit arranged to generate a projected image of the volume-image data of the at least one set retinal layer according to the set projection; and a display-control unit arranged to display the generated projected image on a display means. an image acquisition unit arranged to acquire volume-image data of the fundus of a subject's eye; an image-analysis unit arranged to extract data of retinal layers from the volume-image data; a display mode selection unit arranged to select a display mode; a layer-setting unit arranged to set at least one retinal layer from said acquired volume-image data based on the selected display mode; a projection setting unit arranged to set one of a maximum intensity projection effective to observe a high-brightness region or a minimum intensity projection effective to observe a low-brightness region based on the selected display mode; a projected image generating unit arranged to generate a projected image of the volume-image data of the at least one set retinal layer according to the set projection; and a display-control unit arranged to display the generated projected image on a display means.