mhurhangee/ep-ind-claims huggingface dataset:
A self power-acquiring quickly responsive controllable reactor, including a control unit, and a main body portion, wherein a coil in the main body portion contains a control winding, a net-side winding, the coil further contains a tertiary winding, wherein the tertiary winding, the control winding and the net-side winding are set in turn on a magnetic conductive core column of the main body portion from inside to outside; the net-side winding has power-acquiring taps; a quick switch for short-circuiting the tertiary winding, the quick switch being in parallel connected with the tertiary winding; the tertiary winding providing an impedance when being short circuited; the on/off state of the quick switch is controlled by the command transmitted by a control unit in the controllable reactor, the control unit also being provided for changing the value a DC excitation current of the control winding to control the saturation level of the magnetic conductive core column.
A composition comprising particles with an average size of 0.1-10 mm, wherein said particles comprise at least (i) 50%-90% by weight water or an aqueous solution, and (ii) 10%-50% by weight insoluble alpha-glucan or an insoluble cationic ether of said insoluble alpha-glucan, wherein the insoluble alpha-glucan comprises alpha-1,3-glycosidic linkages and has a weight-average degree of polymerization of at least 100. (i) 50%-90% by weight water or an aqueous solution, and (ii) 10%-50% by weight insoluble alpha-glucan or an insoluble cationic ether of said insoluble alpha-glucan,
Fixing element for components (P1, P2) of an assembly, comprising a rod which is formed by a cylindrical shaft and an end, the rod being a metal component which is at least partially surface-treated by means of anode oxidation, and being coated over at least a portion of the cylindrical shaft with a lubricating coating, the said lubricating coating being applied to just part of the cylindrical shaft and the said lubricating coating being applied to at least one annular portion extending over the entire circumference of the cylindrical shaft.
Mixing tap for dispensing water, comprising a tap body having a fitting end for fitting the tap body in or on a fitting opening, a spout fitted in or on the tap body and provided with a dispensing end, a mixing device arranged in the tap body, in which the mixing device comprises a first inlet for cold water, a second inlet for hot water and an outlet for mixed water, and an at least partly flexible hose, in which the flexible hose comprises a first water conduit with an inflow end and an outflow end, in which the inflow end is connected to the outlet and in which the outflow end ends in a nozzle provided near the dispensing end of the spout for dispensing the mixed water, wherein the mixing tap has an accommodation duct which runs from the fitting end to the dispensing end for receiving at least a portion of the hose, wherein the hose with nozzle is displaceable with respect to the spout between a pulled-out position, in which the hose protrudes with respect to the dispensing end, and a normal position, in which the hose does not extend with respect to the dispensing end or to a lesser degree, wherein the hose has a second water conduit with a second inflow end and a second outflow end, in which the second inflow end is connected to a connection for connecting a water supply conduit coming from a water source, and the second outflow end ends in the nozzle, characterized in that the mixing tap is configured to dispense water from the water source only when the hose is in the normal position. a tap body having a fitting end for fitting the tap body in or on a fitting opening, a spout fitted in or on the tap body and provided with a dispensing end, a mixing device arranged in the tap body, in which the mixing device comprises a first inlet for cold water, a second inlet for hot water and an outlet for mixed water, and an at least partly flexible hose, in which the flexible hose comprises a first water conduit with an inflow end and an outflow end, in which the inflow end is connected to the outlet and in which the outflow end ends in a nozzle provided near the dispensing end of the spout for dispensing the mixed water, wherein the mixing tap has an accommodation duct which runs from the fitting end to the dispensing end for receiving at least a portion of the hose, wherein the hose with nozzle is displaceable with respect to the spout between a pulled-out position, in which the hose protrudes with respect to the dispensing end, and a normal position, in which the hose does not extend with respect to the dispensing end or to a lesser degree, wherein the hose has a second water conduit with a second inflow end and a second outflow end, in which the second inflow end is connected to a connection for connecting a water supply conduit coming from a water source, and the second outflow end ends in the nozzle, characterized in that the mixing tap is configured to dispense water from the water source only when the hose is in the normal position.
A computer program causing a computer to perform processing of: generating a plurality of medical images based on signals detected by a catheter inserted into a lumen organ while the catheter is moving a sensor along a longitudinal direction of the lumen organ, the lumen organ including a main trunk, a side branch branched from the main trunk, and a bifurcated portion of the main trunk and the side branch; and recognizing a main trunk cross-section, a side branch cross-section, and a bifurcated portion cross-section by inputting the acquired medical images into a learning model configured to recognize the main trunk cross-section, the side branch cross-section, and the bifurcated portion cross-section, characterized by recognizing at least the main trunk cross-section or the side branch cross-section by inputting an acquired first medical image into the learning model; recognizing the bifurcated portion cross-section by inputting an acquired second medical image into the learning model; and discriminating between a main trunk portion and a side branch portion constituting the bifurcated portion cross-section based on a recognition result based on the first medical image. generating a plurality of medical images based on signals detected by a catheter inserted into a lumen organ while the catheter is moving a sensor along a longitudinal direction of the lumen organ, the lumen organ including a main trunk, a side branch branched from the main trunk, and a bifurcated portion of the main trunk and the side branch; and recognizing a main trunk cross-section, a side branch cross-section, and a bifurcated portion cross-section by inputting the acquired medical images into a learning model configured to recognize the main trunk cross-section, the side branch cross-section, and the bifurcated portion cross-section, characterized by recognizing at least the main trunk cross-section or the side branch cross-section by inputting an acquired first medical image into the learning model; recognizing the bifurcated portion cross-section by inputting an acquired second medical image into the learning model; and discriminating between a main trunk portion and a side branch portion constituting the bifurcated portion cross-section based on a recognition result based on the first medical image.
A system comprising an apparatus and a substrate, the apparatus comprising: a substrate holder configured to hold a substrate and rotate the substrate, the substrate holder including a plurality of rollers which can contact a periphery of the substrate and are rotatable about their respective own axes; and a polishing head configured to rub a polishing surface of a polishing tool against a first surface of the substrate to polish the first surface, characterized in that a sum of a distance from an axis of the polishing head to an outermost edge of the polishing tool and a distance from an axis of the substrate holder to the axis of the polishing head is longer than a radius of the substrate. a substrate holder configured to hold a substrate and rotate the substrate, the substrate holder including a plurality of rollers which can contact a periphery of the substrate and are rotatable about their respective own axes; and a polishing head configured to rub a polishing surface of a polishing tool against a first surface of the substrate to polish the first surface, characterized in that a sum of a distance from an axis of the polishing head to an outermost edge of the polishing tool and a distance from an axis of the substrate holder to the axis of the polishing head is longer than a radius of the substrate.
Method for producing a cage bar for forming a strainer cage for the limitation of a compression space of an apparatus for extraction of liquids by pressing, wherein the cage bar has a base body on which a reinforcement plating with at least one wear surface is fixed and for which at least one spacer is positioned laterally in relation to a longitudinal extent of the cage bar in such a way that said spacer is elevated above a side surface of the cage bar and for which the at least one spacer is connected in a materially bonded manner to the base element of the cage bar, wherein the at least one spacer is connected in a materially bonded manner to the base element of the cage bar by way of electrical pulsed spot welding, so that the input of heat into the base body of the cage bar during welding is minimized, characterized in that, after the welding of the at least one spacer to the base element, the at least one spacer is brought to the desired dimension by way of a chip-removing cutting process.
A method comprising: receiving input audio and target audio having a target audio characteristic, wherein the input audio and the target audio are received as separate signals; estimating key parameters that represent the target audio characteristic based on one or more of the target audio and the input audio; and configuring a neural network, trained to be configured by the key parameters, with the key parameters to cause the neural network to perform a signal transformation of the input audio, to produce output audio having an output audio characteristic corresponding to and that matches the target audio characteristic, wherein the estimating includes performing a temporal analysis to produce, as the key parameters, temporal key parameters that represent a target temporal characteristic of the target audio; and the configuring includes configuring the neural network with the temporal key parameters to cause the neural network to perform the signal transformation as a transformation of a temporal characteristic of the input audio to a temporal characteristic of the output audio that matches the target temporal characteristic. receiving input audio and target audio having a target audio characteristic, wherein the input audio and the target audio are received as separate signals; estimating key parameters that represent the target audio characteristic based on one or more of the target audio and the input audio; and configuring a neural network, trained to be configured by the key parameters, with the key parameters to cause the neural network to perform a signal transformation of the input audio, to produce output audio having an output audio characteristic corresponding to and that matches the target audio characteristic, wherein the estimating includes performing a temporal analysis to produce, as the key parameters, temporal key parameters that represent a target temporal characteristic of the target audio; and the configuring includes configuring the neural network with the temporal key parameters to cause the neural network to perform the signal transformation as a transformation of a temporal characteristic of the input audio to a temporal characteristic of the output audio that matches the target temporal characteristic.
A method for producing a structured surface on an object, wherein the total area of the structured surface is divided into sub-surfaces (1, 2, 3,..., n) and a periodic structure having a structure period Λ(d) is formed in the individual sub-surfaces (1, 2, 3,..., n) of the structural elements formed by way of laser radiation so that, from an observation position, a plurality of sub-surfaces (1, 2, 3,..., n), which are arranged at differing distances and angles with respect to the observation position discretely with respect to one another, in each case an image having the same color effect with the same wavelength λ is detectable or identifiable during an irradiation of the structured surface with white light and, in the process the structure period Λ(d) of the individual sub-surfaces (1, 2, 3,..., n) is determined according to the equation Λ d = mλ / ( sin θ i − sin θ obs d, with θi being the angle of incidence of the white light on the structured surface; λi being the particular predefined wavelength of the particular color of the color effect of the particular sub-surface (1, 2, 3,...., n); θobsn(d=0) being the angle, proceeding from the observation position, to the particular sub-surface (n), which is calculated according to equation θ obsn d = 0 = arctan L / h, L being the distance of the particular sub-surface (1, 2, 3..., n) in the horizontal direction from the observation position, and h being the distance of the particular sub-surface (1, 2, 3,..., n) in the vertical direction from the observation position. a periodic structure having a structure period Λ(d) is formed in the individual sub-surfaces (1, 2, 3,..., n) of the structural elements formed by way of laser radiation so that, from an observation position, a plurality of sub-surfaces (1, 2, 3,..., n), which are arranged at differing distances and angles with respect to the observation position discretely with respect to one another, in each case an image having the same color effect with the same wavelength λ is detectable or identifiable during an irradiation of the structured surface with white light and, in the process the structure period Λ(d) of the individual sub-surfaces (1, 2, 3,..., n) is determined according to the equation Λ d = mλ / ( sin θ i − sin θ obs d, with θi being the angle of incidence of the white light on the structured surface; λi being the particular predefined wavelength of the particular color of the color effect of the particular sub-surface (1, 2, 3,...., n); θobsn(d=0) being the angle, proceeding from the observation position, to the particular sub-surface (n), which is calculated according to equation θ obsn d = 0 = arctan L / h, L being the distance of the particular sub-surface (1, 2, 3..., n) in the horizontal direction from the observation position, and h being the distance of the particular sub-surface (1, 2, 3,..., n) in the vertical direction from the observation position.
A mobile transformer test device for testing a power transformer, comprising connectors configured for a detachable connection of the mobile transformer test device to the power transformer, a source configured for generating a test signal for the power transformer, wherein the test signal is a current or a voltage, and an evaluation circuit configured to determine, based on the test signal and a test response of the power transformer, information regarding a B-H characteristic curve (50, 60) of the power transformer, which defines a dependence of a magnetic flux density on a magnetic field strength in the power transformer, wherein the test response is a voltage, wherein the evaluation circuit is configured to determine at least one of the following parameters of the B-H characteristic curve (50, 60): a gradient of the B-H characteristic curve (50, 60) at a zero crossing (55, 65), a gradient of the B-H characteristic curve (50, 60) at a saturation point, a knee point of the B-H characteristic curve (50, 60). connectors configured for a detachable connection of the mobile transformer test device to the power transformer, a source configured for generating a test signal for the power transformer, wherein the test signal is a current or a voltage, and an evaluation circuit configured to determine, based on the test signal and a test response of the power transformer, information regarding a B-H characteristic curve (50, 60) of the power transformer, which defines a dependence of a magnetic flux density on a magnetic field strength in the power transformer, wherein the test response is a voltage, wherein the evaluation circuit is configured to determine at least one of the following parameters of the B-H characteristic curve (50, 60): a gradient of the B-H characteristic curve (50, 60) at a zero crossing (55, 65), a gradient of the B-H characteristic curve (50, 60) at a saturation point, a knee point of the B-H characteristic curve (50, 60). a gradient of the B-H characteristic curve (50, 60) at a zero crossing (55, 65), a gradient of the B-H characteristic curve (50, 60) at a saturation point, a knee point of the B-H characteristic curve (50, 60).
A poppet for use with a valve, comprising: a first body having: a first seating surface to sealingly engage a second body of the valve; a second seating surface opposite the first seating surface to sealingly engage a plug of the valve; an aperture to receive a stem of the valve; and at least one fluid flow channel to fluidly couple a chamber of the valve to another chamber, wherein the at least one fluid flow channel has an opening positioned between the aperture and the second seating surface; characterized in that the poppet further comprises: a sliding member having an exterior surface to slidably and sealingly engage a bore defined in the first body, wherein the bore is coaxially aligned with the aperture and surrounded by the first seating surface; and a plate coupled to the first body to position the sliding member within the bore. a first body having: a first seating surface to sealingly engage a second body of the valve; a second seating surface opposite the first seating surface to sealingly engage a plug of the valve; an aperture to receive a stem of the valve; and at least one fluid flow channel to fluidly couple a chamber of the valve to another chamber, wherein the at least one fluid flow channel has an opening positioned between the aperture and the second seating surface; a first seating surface to sealingly engage a second body of the valve; a second seating surface opposite the first seating surface to sealingly engage a plug of the valve; an aperture to receive a stem of the valve; and at least one fluid flow channel to fluidly couple a chamber of the valve to another chamber, wherein the at least one fluid flow channel has an opening positioned between the aperture and the second seating surface; characterized in that the poppet further comprises: a sliding member having an exterior surface to slidably and sealingly engage a bore defined in the first body, wherein the bore is coaxially aligned with the aperture and surrounded by the first seating surface; and a plate coupled to the first body to position the sliding member within the bore. a sliding member having an exterior surface to slidably and sealingly engage a bore defined in the first body, wherein the bore is coaxially aligned with the aperture and surrounded by the first seating surface; and a plate coupled to the first body to position the sliding member within the bore.
A method for improving the uniformity of a tire (320, 410), comprising: identifying a tire (320, 410) having a tread for uniformity correction; identifying at least one localized tire surface anomaly attributable to a tread joint on the tread of the tire (320, 410), the localized tire surface anomaly comprising a local peak (502, 522, 542, 562) of a radial run out, the local peak (502, 522, 542, 562) of radial run out being identified from a plurality of radial run out measurements obtained for the tire (320, 410); determining, by one or more computing devices, at least one identifiable characteristic of the tire surface anomaly, the at least one identifiable characteristic comprising a size of the tire surface anomaly and a shape of the tire surface anomaly; determining, by the one or more computing devices, a material removal pattern to correct for the localized tire surface anomaly based at least in part on the at least one identifiable characteristic, the material removal pattern specifying a material removal depth for removing material from the tread of the tire (320, 410) at one or more azimuthal locations associated with the localized tire surface anomaly, the material removal pattern being determined based at least in part on the shape of the tire surface anomaly, the material removal depth being determined based at least in part on the size of the tire surface anomaly; and removing tire material from the tread of the tire (320, 410) according to the material removal pattern. identifying a tire (320, 410) having a tread for uniformity correction; identifying at least one localized tire surface anomaly attributable to a tread joint on the tread of the tire (320, 410), the localized tire surface anomaly comprising a local peak (502, 522, 542, 562) of a radial run out, the local peak (502, 522, 542, 562) of radial run out being identified from a plurality of radial run out measurements obtained for the tire (320, 410); determining, by one or more computing devices, at least one identifiable characteristic of the tire surface anomaly, the at least one identifiable characteristic comprising a size of the tire surface anomaly and a shape of the tire surface anomaly; determining, by the one or more computing devices, a material removal pattern to correct for the localized tire surface anomaly based at least in part on the at least one identifiable characteristic, the material removal pattern specifying a material removal depth for removing material from the tread of the tire (320, 410) at one or more azimuthal locations associated with the localized tire surface anomaly, the material removal pattern being determined based at least in part on the shape of the tire surface anomaly, the material removal depth being determined based at least in part on the size of the tire surface anomaly; and removing tire material from the tread of the tire (320, 410) according to the material removal pattern.