mhurhangee/patent-ind-claim-en huggingface dataset:
A power supply system comprising: an AC input to receive input power; an AC output to provide output power; a battery that provides battery power; power circuitry that receives the input power and the battery power and provides the output power from at least one of the battery power and the input power; and a controller coupled to the input, to the output, to the power circuitry, and to the battery and configured to control the power supply system; wherein the controller includes a storage device that stores operational settings for the power supply system, wherein the controller is configured to sense an output voltage at a plurality of measurement points of an output voltage waveform per line cycle at the output, characterised by that the controller is configured to compare the output voltage waveform at each of the plurality of measurement points of the output voltage waveform with upper and lower threshold levels derived from the operational settings contained in the storage device to determine if the output voltage is within a predetermined range. an AC input to receive input power; an AC output to provide output power; a battery that provides battery power; power circuitry that receives the input power and the battery power and provides the output power from at least one of the battery power and the input power; and a controller coupled to the input, to the output, to the power circuitry, and to the battery and configured to control the power supply system; wherein the controller includes a storage device that stores operational settings for the power supply system, wherein the controller is configured to sense an output voltage at a plurality of measurement points of an output voltage waveform per line cycle at the output, characterised by that the controller is configured to compare the output voltage waveform at each of the plurality of measurement points of the output voltage waveform with upper and lower threshold levels derived from the operational settings contained in the storage device to determine if the output voltage is within a predetermined range.
A hollow device for treating a biological sample (A; B), for separating at least a particle (C) and at least part of a liquid (D) from each other; the hollow device comprises an inner chamber , which has a volume up to 2mL; a first end ; a wall , which delimits the inner chamber ; a first opening , which is arranged in the area of the first end , establishes a communication between the outside and the inner chamber and has an area of at least 9mm 2 ; and a second end ; the hollow device is characterised in that it comprises a filter , which is arranged in the area of the second end , separates the inner chamber from the outside, has pores with diameters ranging from 2nm to 1pm, an area (S) facing the inner chamber up to 12.6mm 2 , and a thickness up to 500pm; the filter does not have pores with diameters greater than 1pm and has the majority of pores with diameters of at least 2nm; the pores diameter is determined by means of the method described in ASTM F316 - 03 ; said wall has a further opening , which is arranged in the area of the second end ; said filter is arranged in order to substantially completely cover said further opening . the hollow device is characterised in that it comprises a filter , which is arranged in the area of the second end , separates the inner chamber from the outside, has pores with diameters ranging from 2nm to 1pm, an area (S) facing the inner chamber up to 12.6mm 2 , and a thickness up to 500pm; the filter does not have pores with diameters greater than 1pm and has the majority of pores with diameters of at least 2nm; the pores diameter is determined by means of the method described in ASTM F316 - 03 ; said wall has a further opening , which is arranged in the area of the second end ; said filter is arranged in order to substantially completely cover said further opening .
A building door comprising a door frame , a door leaf as well as a door hinge , whereby the door hinge has a first and a second fastening part , whereby the first fastening part is fastened to a narrow side of the door leaf and the second fastening part to a soffit side of the door frame , and whereby the door hinge has a pivot arm , which connects the fastening parts to one another in a pivotably movable manner in an axis of rotation (D), whereby the pivot arm is formed in a rotationally fixed manner with the first fastening part and whereby the second fastening part has a receiving section , which receives the pivot arm during a closing movement, whereby the pivot arm is connected in a pivotably movable manner to the second fastening part via bearing pins , whereby the bearing pins are formed as separate components and in each case engage with a cylindrical bearing section with a receptacle of the second fastening part , and whereby the pivot arm has, in a vertical direction (Z) running parallel to the axis of rotation, holding lugs , which are each arranged in a rotationally fixed manner in a recess of a bearing pin , characterized in that , on an underside, the bearing pins have a support surface , via which the bearing pins each abut against a front-side end of the pivot arm , and that, on the underside, the bearing pins have a groove-shaped depression, whereby the support surface is arranged in the groove-shaped depression and whereby side walls of the groove-shaped depression enclose the pivot arm at least in sections.
Front structure of a motor vehicle which has a passenger compartment and an engine compartment which extends in continuation of the passenger compartment, the front structure comprising: - a bulkhead which extends transversely between the engine compartment and the passenger compartment and which is suitable for supporting a steering column; - two substantially parallel front side members which are connected to the bulkhead and which extend longitudinally in the engine compartment; - a steering ball joint which is arranged in the bulkhead substantially in line with the steering column and which protrudes into the engine compartment between the two side members close to the connection between the bulkhead and one of the side members , the steering ball joint having a base and an oblong hole which is provided in the base and which defines an edge which extends around the oblong hole opposite the engine compartment and; - a rack which is installed in the engine compartment and a rack joint which is capable of engaging between the rack and the steering ball joint when the steering column is connected to the rack via the oblong hole ; characterized in that it further comprises an annular planar component which is installed in a state applied to the edge and which extends around the oblong hole in order to be able to widen the receiving bearing of the rack joint . - a bulkhead which extends transversely between the engine compartment and the passenger compartment and which is suitable for supporting a steering column; - two substantially parallel front side members which are connected to the bulkhead and which extend longitudinally in the engine compartment; - a steering ball joint which is arranged in the bulkhead substantially in line with the steering column and which protrudes into the engine compartment between the two side members close to the connection between the bulkhead and one of the side members , the steering ball joint having a base and an oblong hole which is provided in the base and which defines an edge which extends around the oblong hole opposite the engine compartment and; - a rack which is installed in the engine compartment and a rack joint which is capable of engaging between the rack and the steering ball joint when the steering column is connected to the rack via the oblong hole ;
A body composition analyzing apparatus comprising: a main body comprising: a first electrode part composed of a pair of an input electrode and an output electrode and configured to come into contact with a first portion of a half of an upper human body, wherein the half of the upper body is a left half or a right half of the upper body based on a left-right symmetric point of the upper body, the first portion being at least one of a face, an ear, a nose and a neck of the half of the upper human body; a second electrode part composed of a pair of an input electrode and an output electrode and configured to come into contact with a second portion of the half of the upper body, the second portion being a hand of the half of the upper human body; a measurer configured to apply an alternating current between the input electrode of the first electrode part and the input electrode of the second electrode part , and to measure an impedance between the first portion of the half of the upper human body and the second portion of the half of the upper human body based on measuring a voltage produced between the output electrode of the first electrode part and the output electrode of the second electrode part ; an analyzer configured to correct the measured impedance of the half of the upper body by removing an additional impedance based on a pre-stored impedance of a whole body or the half of the upper body and to analyze a body composition based on the measured impedance of the half of the upper human body. a first electrode part composed of a pair of an input electrode and an output electrode and configured to come into contact with a first portion of a half of an upper human body, wherein the half of the upper body is a left half or a right half of the upper body based on a left-right symmetric point of the upper body, the first portion being at least one of a face, an ear, a nose and a neck of the half of the upper human body; a second electrode part composed of a pair of an input electrode and an output electrode and configured to come into contact with a second portion of the half of the upper body, the second portion being a hand of the half of the upper human body; a measurer configured to apply an alternating current between the input electrode of the first electrode part and the input electrode of the second electrode part , and to measure an impedance between the first portion of the half of the upper human body and the second portion of the half of the upper human body based on measuring a voltage produced between the output electrode of the first electrode part and the output electrode of the second electrode part ; an analyzer configured to correct the measured impedance of the half of the upper body by removing an additional impedance based on a pre-stored impedance of a whole body or the half of the upper body and to analyze a body composition based on the measured impedance of the half of the upper human body.
A pharmaceutical composition comprising midodrine or a pharmaceutically acceptable salt thereof as an active ingredient, for use in treating or preventing diabetic cataract.
A method of manufacturing a base oil, comprising: providing an unconverted oil having a viscosity index (VI) of 145 or more; subjecting the unconverted oil to vacuum distillation, thus separating a distillate having D5wt% of 410 to 430°C and D95wt% of 450 to 470°C; and subjecting the distillate separated through vacuum distillation to catalytic dewaxing, thus obtaining a base oil comprising 85 to 92 wt% of a paraffinic hydrocarbon and 8 to 15 wt% of a naphthenic hydrocarbon; wherein unconverted oil is an oil that has been fed to a hydrocracking process for fuel oil production but has not been converted into light fuel oil wherein contents of the paraffinic hydrocarbon and the naphthenic hydrocarbon are measured according to ASTM D2140. providing an unconverted oil having a viscosity index (VI) of 145 or more; subjecting the unconverted oil to vacuum distillation, thus separating a distillate having D5wt% of 410 to 430°C and D95wt% of 450 to 470°C; and subjecting the distillate separated through vacuum distillation to catalytic dewaxing, thus obtaining a base oil comprising 85 to 92 wt% of a paraffinic hydrocarbon and 8 to 15 wt% of a naphthenic hydrocarbon; wherein unconverted oil is an oil that has been fed to a hydrocracking process for fuel oil production but has not been converted into light fuel oil wherein contents of the paraffinic hydrocarbon and the naphthenic hydrocarbon are measured according to ASTM D2140.
A pharmaceutical composition for use in preventing or treating brain cancer, containing an LRRK2 (leucine-rich repeat kinase-2) protein inhibitor selected from the following compound group as an active ingredient: 5-chloro-N4-(2-(isopropylsulfonyl)phenyl)-N2-(2-methoxy-4-(4-(4-methylpiperazin-1-yl)piperidin-1-yl)phenyl)pyrimidine-2,4-diamine; 2-[(2-methoxy-4-[[4-(4-methylpiperazin-1-yl)piperidin-1-yl]carbonyl]phenyl)amino]-5,11-dimethyl-5,11-dihydro-6H-pyrimido[4,5-b] benzodiazepin-6-one; (4-(4-(ethylamino)-5-(trifluoromethyl)pyrimidin-2-ylamino)-2-fluoro-5-methoxyphenyl)(morpholino)methanone; (3-methoxy-4-(4-(methylamino)-5-(trifluoromethyl)pyrimidin-2-ylamino)phenyl)(morpholino)methanone; -2,6-dimethyl-4-(6-(5-(1-methylcyclopropoxy)-1H-indazol-3-yl)pyrimidin-4-yl)morpholine; 3-(4-morpholino-1H-pyrrolo[2,3-b]pyridin-3-yl)benzonitrile; and 1-methyl-4-(4-morpholino-7H-pyrrolo[2,3-d]pyrimidin-5-yl)-1H-pyrrole-2-carbonitrile.
A pharmaceutical composition comprising a dose of at least 2x10 7 TCID 50 of a modified vaccinia Ankara (MVA) virus in an oil and water emulsion, wherein the composition induces at least a 2-fold higher level of vaccinia neutralizing antibodies at 26 days after immunization when compared to the same composition in the absence of the emulsion in an animal.
Method for operating a surface treatment installation , in which method overspray which is formed in one or more coating booths is taken up by an air stream and carried to one or more disposable separating units , in which overspray is separated out and which are in each case exchanged, as a laden disposable separating unit , with an empty disposable separating unit after a limit loading with overspray has been reached, characterized in that a processed material (100; 102) which makes subsequent utilization possible is produced from laden disposable separating units , wherein, during the production of the processed material from laden disposable separating units , the laden disposable separating units are dried.
A method of improving data quality using GNSS, the method comprising: automatically analyzing a stream of GNSS messages from a GNSS receiver for a preconfigured condition; automatically filtering the GNSS data received via the GNSS receiver as a function of the preconfigured condition; and automatically providing the filtered GNSS data to a GIS system , wherein the method further comprises automatically locking onto a location point reading of the GNSS receiver when the preconfigured condition is met; and wherein the filtering comprises repeating the GNSS message of the single locked location point reading determined as a function of the preconfigured condition to the GIS system . automatically analyzing a stream of GNSS messages from a GNSS receiver for a preconfigured condition; automatically filtering the GNSS data received via the GNSS receiver as a function of the preconfigured condition; and automatically providing the filtered GNSS data to a GIS system , wherein the method further comprises automatically locking onto a location point reading of the GNSS receiver when the preconfigured condition is met; and wherein the filtering comprises repeating the GNSS message of the single locked location point reading determined as a function of the preconfigured condition to the GIS system .
Method for automatically determining a suitable angulation or inclination of a recording system for a visualisation of a guide wire during a navigation of the guide wire through a vascular system of a patient from a vessel into a branch of the vessel, whereby the guide wire has a curvature and a first proximal section on the first side of the curvature and a second distal section having the tip of the guide wire on the second side of the curvature, with the following steps: • Recording of a sequence of live X-ray images of the guide wire and presentation of the X-ray images on a display unit, the method characterised in that during this process the following steps are carried out: • Identifying the guide wire on at least some of the X-ray images, • Applying a first virtual tangent to the first section and a second virtual tangent to the second section of the guide wire, • Determining a point of intersection of the virtual tangents, • Determining a triangle, the three corners of which are the point of intersection and a first point on the first section and a second point on the second section, • Determining the area of the triangle, and • Determining the suitable angulation or inclination of the recording system by maximising the area of the triangle by means of movement of the recording system. • Recording of a sequence of live X-ray images of the guide wire and presentation of the X-ray images on a display unit, the method characterised in that during this process the following steps are carried out: • Identifying the guide wire on at least some of the X-ray images, • Applying a first virtual tangent to the first section and a second virtual tangent to the second section of the guide wire, • Determining a point of intersection of the virtual tangents, • Determining a triangle, the three corners of which are the point of intersection and a first point on the first section and a second point on the second section, • Determining the area of the triangle, and • Determining the suitable angulation or inclination of the recording system by maximising the area of the triangle by means of movement of the recording system.
A coaxial cable, comprising; a center conductor, an insulator coated around the center conductor; and an outer conductor provided around the insulator, wherein the outer conductor is formed by mixing and laterally winding strands in the same direction, the strands having an outer diameter difference of not less than 10% between a strand having a maximum outer diameter (large-diameter strand) and a strand having a minimum outer diameter (small-diameter strand), wherein a outer conductor density of the outer conductor being represented by the ratio of the conductor shielding area, which is a sum of shielding area of large-diameter strands and strands other than the large-diameter strands, to the outer conductor surface area, is (conductor shielding area)/(outer conductor surface area)=1.0 or more, wherein the conductor shielding area is obtained by the following equation: conductor shielding area = n × d w πD 2 + P 2 wherein the outer conductor surface area is obtained by the following equation: outer conductor surface area = P × πD wherein the outer conductor density is obtained by the following equation: outer conductor density = n × d w πD 2 + P 2 P × πD where n is the number of lateral winding strands, d w is the outer diameter of the lateral winding strands, D is the mean diameter of the outer conductor, and P is the length of the coaxial cable, wherein the outer conductor density of the outer conductor of the coaxial cable is obtained by calculating outer conductor densities for the large-diameter strands and the small-diameter strands, respectively, and then summing them. a center conductor, an insulator coated around the center conductor; and an outer conductor provided around the insulator, wherein the outer conductor is formed by mixing and laterally winding strands in the same direction, the strands having an outer diameter difference of not less than 10% between a strand having a maximum outer diameter (large-diameter strand) and a strand having a minimum outer diameter (small-diameter strand), wherein a outer conductor density of the outer conductor being represented by the ratio of the conductor shielding area, which is a sum of shielding area of large-diameter strands and strands other than the large-diameter strands, to the outer conductor surface area, is (conductor shielding area)/(outer conductor surface area)=1.0 or more, wherein the conductor shielding area is obtained by the following equation: conductor shielding area = n × d w πD 2 + P 2 wherein the outer conductor surface area is obtained by the following equation: outer conductor surface area = P × πD wherein the outer conductor density is obtained by the following equation: outer conductor density = n × d w πD 2 + P 2 P × πD where n is the number of lateral winding strands, d w is the outer diameter of the lateral winding strands, D is the mean diameter of the outer conductor, and P is the length of the coaxial cable, wherein the outer conductor density of the outer conductor of the coaxial cable is obtained by calculating outer conductor densities for the large-diameter strands and the small-diameter strands, respectively, and then summing them.
System for respiration-controlled application of aerosol in powder form during ventilation or respiratory support of a patient, comprising an interface which can be brought into contact with the airways of the patient to be ventilated or to receive respiratory support, a device for generating a respiratory gas stream , the respiratory gas stream having a first pressure that is higher than or equal to the ambient pressure, at least one inspiration line through which the respiratory gas flow is directed to the interface , an aerosol generator , at least one aerosol line through which the aerosol in powder form produced is conducted from the aerosol generator to the interface , and a respiratory sensor which detects the respiratory signal of the patient to be ventilated or to receive respiratory support, a valve being arranged in said at least one aerosol line between the interface and the aerosol generator , which valve is controlled as a function of the respiratory signal detected, characterised in that an intermediate reservoir for storing generated aerosol in powder form is arranged between the valve and the aerosol generator , wherein a controller is provided and arranged to preset a second pressure which is greater than or equal to the first pressure and to cause aerosol to be generated in the aerosol generator and to be supplied to the intermediate reservoir until the pressure present in the intermediate reservoir corresponds to the second pressure preset by the controller , wherein, due to the control of the valve , the aerosol in powder form stored in the intermediate storage can be mixed directly with the respiratory gas flow.