mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a fuel cell system comprising: a fuel cell stack ; and an accessory group constituted of, at least, a fuel gas supply blower for supplying a fuel gas to the fuel cell stack , an air supply blower for supplying air to the fuel cell stack , a cooling water pump for supplying a cooling water to the fuel cell stack , and a radiator for performing heat exchange with the cooling water, the method characterized by comprising: when a current output current is increased to a target output current , a step of increasing an output current while leaving at least one accessory power of the accessory group in a state lower than accessory power according to the target output current ; and a step of thereafter increasing the accessory power in the state lower than the accessory power according to the target output current to the accessory power according to the target output current , wherein a voltage of the fuel cell stack is monitored, and after the step of increasing the output current , the voltage of the fuel cell stack is stabilized , thereafter the accessory power is increased to an accessory power value corresponding to the target output current value. a fuel cell stack ; and an accessory group constituted of, at least, a fuel gas supply blower for supplying a fuel gas to the fuel cell stack , an air supply blower for supplying air to the fuel cell stack , a cooling water pump for supplying a cooling water to the fuel cell stack , and a radiator for performing heat exchange with the cooling water, the method characterized by comprising: when a current output current is increased to a target output current , a step of increasing an output current while leaving at least one accessory power of the accessory group in a state lower than accessory power according to the target output current ; and a step of thereafter increasing the accessory power in the state lower than the accessory power according to the target output current to the accessory power according to the target output current , wherein a voltage of the fuel cell stack is monitored, and after the step of increasing the output current , the voltage of the fuel cell stack is stabilized , thereafter the accessory power is increased to an accessory power value corresponding to the target output current value. when a current output current is increased to a target output current , a step of increasing an output current while leaving at least one accessory power of the accessory group in a state lower than accessory power according to the target output current ; and a step of thereafter increasing the accessory power in the state lower than the accessory power according to the target output current to the accessory power according to the target output current , wherein a voltage of the fuel cell stack is monitored, and after the step of increasing the output current , the voltage of the fuel cell stack is stabilized , thereafter the accessory power is increased to an accessory power value corresponding to the target output current value.
A method of making a superconducting cable comprising: providing a former ; winding a plurality of superconducting tape conductors in at least one layer around the former in a helical fashion, each superconducting tape conductor having at least one superconducting layer; comprising providing solder that is configured to be melted after the cable is assembled so that the cable is flexible after the cable is assembled and prior to melting the solder, wherein providing this solder comprises either of: a) coating a layer of solder on at least one of the plurality of superconducting tape conductors such that the at least one superconducting tape conductor with the layer of solder is wound around the former, or b) winding a solder material between adjacent winds of the superconducting tape conductors, or c) providing as the at least one layer a plurality of layers of superconducting tape conductors and arranging a solder sheath between at least two of the plurality of layers; characterised by bending the cable into a desired shape after the cable is assembled and prior to melting the solder; and melting the solder so that a rigid structure is formed. providing a former ; winding a plurality of superconducting tape conductors in at least one layer around the former in a helical fashion, each superconducting tape conductor having at least one superconducting layer; comprising providing solder that is configured to be melted after the cable is assembled so that the cable is flexible after the cable is assembled and prior to melting the solder, wherein providing this solder comprises either of: a) coating a layer of solder on at least one of the plurality of superconducting tape conductors such that the at least one superconducting tape conductor with the layer of solder is wound around the former, or b) winding a solder material between adjacent winds of the superconducting tape conductors, or c) providing as the at least one layer a plurality of layers of superconducting tape conductors and arranging a solder sheath between at least two of the plurality of layers; a) coating a layer of solder on at least one of the plurality of superconducting tape conductors such that the at least one superconducting tape conductor with the layer of solder is wound around the former, or b) winding a solder material between adjacent winds of the superconducting tape conductors, or c) providing as the at least one layer a plurality of layers of superconducting tape conductors and arranging a solder sheath between at least two of the plurality of layers; characterised by bending the cable into a desired shape after the cable is assembled and prior to melting the solder; and melting the solder so that a rigid structure is formed.
Method for operating a vehicle having a vehicle drivetrain and having a vehicle brake while shifting down in an automatic transmission in the coasting operation of the vehicle, during which at least one friction-fitting shifting element (C; B) is to be opened and one form-fitting shifting element (A; F) is to be closed, wherein in the region of a drive machine installation a drive torque which bears on an output is at least partially supported at the point in time of requesting the coasting downshift, characterized in that the drive machine installation , prior to carrying out the coasting downshift, is activated for reducing that part of the drive torque that is capable of being supported in the region of the drive machine installation , and part of the drive torque in the region of the vehicle brake is supported by a corresponding activation of the vehicle brake , and in that the friction-fitting shifting element (C; B), as from the point in time (T6) when that part of the drive torque that is capable of being supported in the region of the drive machine installation is substantially equal to zero, is transferred to an operating state in which the transmission capability of the friction-fitting shifting element (C; B) is equal to zero, and increasing the activation force causes an immediate increase in the transmission capability of the friction-fitting shifting element (C; B).
A secondary battery, comprising: an electrode assembly including a first electrode , a second electrode , and a separator interposed between the first and second electrodes ,; a first lead tab electrically connected to the first electrode ; a second lead tab electrically connected to the second electrode ; a case configured to accommodate the electrode assembly , the first lead tab and the second lead tab therein, with an opening formed in a top of the case ;and a cap plate configured to close the opening of the case ; wherein the first electrode , the second electrode , and the separator are wound together to have a jelly-roll shape; and characterized in that the secondary battery comprises a plate-shaped bottom retainer disposed on a bottom in the case , wherein the bottom retainer comprises a plate shaped body portion and a groove shaped non-contact portion , wherein the non-contact portion is formed at a middle region of the body portion in a longitudinal direction of the body portion , wherein the bottom retainer has a smaller width at the non-contact portion than at other parts of the bottom retainer . an electrode assembly including a first electrode , a second electrode , and a separator interposed between the first and second electrodes ,; a first lead tab electrically connected to the first electrode ; a second lead tab electrically connected to the second electrode ; a case configured to accommodate the electrode assembly , the first lead tab and the second lead tab therein, with an opening formed in a top of the case ;and a cap plate configured to close the opening of the case ; wherein the first electrode , the second electrode , and the separator are wound together to have a jelly-roll shape; and characterized in that the secondary battery comprises a plate-shaped bottom retainer disposed on a bottom in the case , wherein the bottom retainer comprises a plate shaped body portion and a groove shaped non-contact portion , wherein the non-contact portion is formed at a middle region of the body portion in a longitudinal direction of the body portion , wherein the bottom retainer has a smaller width at the non-contact portion than at other parts of the bottom retainer .
A polymer solution for use in the therapeutic viscosupplementation, containing at least one at least partially water-soluble polysaccharide, which is selected from the group consisting of alkali salts of the hyaluronic acid, alkali salts of the carboxymethyl cellulose, methylcellulose, and hydroxyethyl cellulose, and water, characterised in that it further contains at least one water-soluble alkali salt or alkaline earth salt of the polystyrene sulfonic acid, and the solution is visually clear.
Screen profile assembly for holding a lateral side of a screen for covering windows , comprising a base profile for fitting the screen profile assembly against the windows and one or more additional profiles which, together with the base profile , delimit an installation opening in a front wall of the screen profile assembly through which the screen can extend in the installed position, wherein this base profile comprises a supporting wall which forms a side wall of the screen profile assembly and extends transversely to the front wall , wherein the front wall is a first front wall , the installation opening is a first installation opening which is provided so that a first screen can extend through the latter in the installed position for covering this first glazing unit , and wherein the base profile comprises a second supporting wall which forms a second side wall of the screen profile assembly and which connects to the first supporting wall at an angle (α), characterised in that the assembly is provided in order to bear against the windows in order to attach the base profile to the windows , in that the supporting wall is a first supporting wall which is provided to bear against a first glazing unit of the windows , in that the second supporting wall is provided to bear against a second glazing unit of the windows which connects to the first glazing unit at this angle (α) in a frameless manner, in that the second supporting wall extends transversely to a second front wall of the screen profile assembly , in which a second installation opening is delimited by the base profile and the one or more additional profiles of the screen profile assembly , wherein this second installation opening is provided so that a second screen can extend through the latter in the installed position in order to cover this second glazing unit , and in that the base profile is to this end designed as a single part.
A laser welding device configured to weld two overlapping workpieces by emitting a laser beam (L) to the workpieces , the laser welding device comprising: an irradiation unit configured to emit, to the workpieces , the laser beam (L) and a measurement beam (S) having a wavelength different from a wavelength of the laser beam (L); a measurement unit configured to measure a depth from a predetermined reference surface based on the measurement beam (S) emitted by the irradiation unit and reflected from the workpieces ; and an irradiation position switching part configured to switch an irradiation position of the measurement beam (S) between a keyhole position coaxial with an optical axis of the laser beam (L) and a position of a weld bead behind a center of the optical axis of the laser beam (L) in a welding direction, wherein the weld bead has a surface that has a recess, and characterized in that the laser welding device further comprises a determination unit configured to determine an amount of a gap between the two workpieces based on a measured value of a recess depth measured at the position of the weld bead by comparing the measured value with a recess depth measured in advance while no gap is formed between the two workpieces , wherein the laser welding device further comprises a correction unit configured to correct, based on the amount of the gap, a measured value of a penetration depth measured at the keyhole position. an irradiation unit configured to emit, to the workpieces , the laser beam (L) and a measurement beam (S) having a wavelength different from a wavelength of the laser beam (L); a measurement unit configured to measure a depth from a predetermined reference surface based on the measurement beam (S) emitted by the irradiation unit and reflected from the workpieces ; and an irradiation position switching part configured to switch an irradiation position of the measurement beam (S) between a keyhole position coaxial with an optical axis of the laser beam (L) and a position of a weld bead behind a center of the optical axis of the laser beam (L) in a welding direction, wherein the weld bead has a surface that has a recess, and characterized in that the laser welding device further comprises a determination unit configured to determine an amount of a gap between the two workpieces based on a measured value of a recess depth measured at the position of the weld bead by comparing the measured value with a recess depth measured in advance while no gap is formed between the two workpieces , wherein the laser welding device further comprises a correction unit configured to correct, based on the amount of the gap, a measured value of a penetration depth measured at the keyhole position.
Method to improve a radiography acquisition workflow for an acquisition study for a patient on a radiography system, wherein said acquisition study comprises at least one ordered image in at least one image series for which an acquisition protocol is defined, said acquisition protocol comprising a target structure, a patient positioning instruction and an acquisition geometry, the method comprising the steps of: - displaying said at least one ordered image as an item on an order list on a display means, - positioning said patient on said radiography system according to said patient positioning instructions of said acquisition protocol of one of said ordered images, - positioning said radiography system according to said acquisition geometry of said acquisition protocol of said one of said ordered images, - capturing a reference image from a camera device, said reference image comprising a beam entry area on a surface of said patient defined by said acquisition protocol for said ordered image, - identifying a body part and a location of said beam entry area on said body part on said reference image by means of a body part identification algorithm, - matching said identified body part to a body part comprising said target structure defined in the acquisition protocol of any of the ordered images in said acquisition study, and - matching said identified beam entry area to a beam entry area corresponding to an acquisition geometry and a patient positioning that is defined in the acquisition protocol of any of the ordered images in said acquisition study, - displaying said ordered image as a marked item in said order list on said display means, in case of a positive match for said body part and said beam area. - displaying said at least one ordered image as an item on an order list on a display means, - positioning said patient on said radiography system according to said patient positioning instructions of said acquisition protocol of one of said ordered images, - positioning said radiography system according to said acquisition geometry of said acquisition protocol of said one of said ordered images, - capturing a reference image from a camera device, said reference image comprising a beam entry area on a surface of said patient defined by said acquisition protocol for said ordered image, - identifying a body part and a location of said beam entry area on said body part on said reference image by means of a body part identification algorithm, - matching said identified body part to a body part comprising said target structure defined in the acquisition protocol of any of the ordered images in said acquisition study, and - matching said identified beam entry area to a beam entry area corresponding to an acquisition geometry and a patient positioning that is defined in the acquisition protocol of any of the ordered images in said acquisition study, - displaying said ordered image as a marked item in said order list on said display means, in case of a positive match for said body part and said beam area.
A device for human medical or veterinary treatment comprising a gas discharge generator designed to generate reactive gases that can be used in plasma therapy in a gas discharge zone, a flow generator designed to generate a flow of gas from the gas discharge zone through a reaction chamber in the direction of an outlet opening of the reaction chamber , and an application device coupled to the outlet opening for discharging the reactive gases from the reaction chamber to the application location, wherein the ratio of the opening area of an inlet opening of the reaction chamber to the opening area of the outlet opening is greater than 5, and the ratio of the opening area of the inlet opening of the reaction chamber to the opening area of the outlet opening is less than 90, the flow generator and the reaction chamber are designed to generate a turbulent flow in the reaction chamber and/or the gas discharge zone wherein the diameter of the reaction chamber is smaller than 20 mm, and greater than 5 mm, and in that the application device has a gas-tight plastic tube wherein the ratio of the length to the internal diameter of the tube is more than 7 and less than 30, and the tube has an internal diameter in the range between 2 and 8 mm.
A roller bearing , having a sleeve by means of which a rolling element raceway is formed, and a cover held on the sleeve by means of a latching connection , wherein the cover has outwardly directed securing means which protrude beyond the sleeve in the radial direction and are provided for the axial fixing of the cover in a housing surrounding the sleeve , characterised in that the securing means are formed at the transition between an annular disk-shaped section and a rim of the cover and each securing means is arranged within a closed wall of the cover .
Absorbent article comprising a topsheet forming a wearer-facing surface of the absorbent article, a backsheet forming a garment-facing surface of the absorbent article and an absorbent core interposed between the topsheet and the backsheet, wherein the absorbent article comprises a nonwoven web, the nonwoven web being a carded nonwoven web, the nonwoven web comprises at least 50% by weight of the nonwoven web, of staple fibers and at least 10%, by weight of the nonwoven web, of a latex binder, wherein the latex binder has an opacity of at least 20%, as measured according to the test method set out herein; the staple fibers have an a* value of unequal zero and a b* value of unequal zero, as measured according to the test method set out herein, and comprise at least 10 %, by weight of the staple fibers, of polyethylene terephthalate (PET), the PET comprising less than 150 ppm of antimony, as measured according to the test method set out herein in the Summary of the Invention.
A method of controlling a refrigerator, the method comprising: starting (S2) a first cooling cycle that cools a first storage compartment by operating a compressor , a condenser , an expansion member , an evaporator for the first compartment and a first fan : then determining (S3) whether a start condition of a second cooling cycle that cools a second storage compartment by operating an evaporator for the second compartment and a second fan is satisfied; operating (S4) the second fan for the second storage compartment when the start condition of the second cooling cycle is satisfied; determining (S6) whether an speed change condition for control of the second fan is satisfied while the second fan operates; changing (S7) a speed of the second fan when speed change condition for control of the second fan is satisfied; determining (S9) whether a normal stop condition of the second cooling cycle is satisfied; and stopping (S10) the second cooling cycle when the normal stop condition (S9) of the second cooling cycle is satisfied, wherein the method further comprises: determining (S8) whether a forced termination condition of the second cooling cycle is satisfied and, when forced termination condition of the second cooling cycle is not satisfied, determining if the normal stop condition (S9) of the second cooling cycle is satisfied; and stopping the second cooling cycle when the forced termination condition of the second cooling cycle is satisfied. then determining (S3) whether a start condition of a second cooling cycle that cools a second storage compartment by operating an evaporator for the second compartment and a second fan is satisfied; operating (S4) the second fan for the second storage compartment when the start condition of the second cooling cycle is satisfied; determining (S6) whether an speed change condition for control of the second fan is satisfied while the second fan operates; changing (S7) a speed of the second fan when speed change condition for control of the second fan is satisfied; determining (S9) whether a normal stop condition of the second cooling cycle is satisfied; and stopping (S10) the second cooling cycle when the normal stop condition (S9) of the second cooling cycle is satisfied, wherein the method further comprises: determining (S8) whether a forced termination condition of the second cooling cycle is satisfied and, when forced termination condition of the second cooling cycle is not satisfied, determining if the normal stop condition (S9) of the second cooling cycle is satisfied; and stopping the second cooling cycle when the forced termination condition of the second cooling cycle is satisfied. determining (S8) whether a forced termination condition of the second cooling cycle is satisfied and, when forced termination condition of the second cooling cycle is not satisfied, determining if the normal stop condition (S9) of the second cooling cycle is satisfied; and stopping the second cooling cycle when the forced termination condition of the second cooling cycle is satisfied.