mhurhangee/patent-ind-claim-en huggingface dataset:
Device for blowing out an electric arc between an accumulator output terminal and a busbar (B1, B2), comprising: - an output terminal of the accumulator comprising: • an electrically conductive part , • a magnetic lock comprising a permanent magnet , characterized in that the device for blowing out the electric arc further comprises: • an electrically conductive crinkle or tooth-lock washer , ensuring electrical contact between the output terminal and the busbar, • a part of low melting point, preferably lower than 250°C, arranged inside the washer ; - a first ferromagnetic part secured to the busbar, forming a closure plate of a magnetic circuit with the magnetic lock, the closed magnetic circuit ensuring mechanical connection between the output terminal and the busbar while allowing the electrical contact between them; the device being configured such that when electric arcs occur between the output terminal and the busbar, the heat given off by the arcs vaporizes the part of low melting point, this generating a pressurized gas which elongates the arcs outwards from the part of low melting point and thus cools them in the ambient medium until they are blown out. - an output terminal of the accumulator comprising: • an electrically conductive part , • a magnetic lock comprising a permanent magnet , characterized in that the device for blowing out the electric arc further comprises: • an electrically conductive crinkle or tooth-lock washer , ensuring electrical contact between the output terminal and the busbar, • a part of low melting point, preferably lower than 250°C, arranged inside the washer ; • an electrically conductive part , • a magnetic lock comprising a permanent magnet , • an electrically conductive crinkle or tooth-lock washer , ensuring electrical contact between the output terminal and the busbar, • a part of low melting point, preferably lower than 250°C, arranged inside the washer ; - a first ferromagnetic part secured to the busbar, forming a closure plate of a magnetic circuit with the magnetic lock, the closed magnetic circuit ensuring mechanical connection between the output terminal and the busbar while allowing the electrical contact between them;
Method for producing a grooved drum for a textile machine that produces cross-wound packages, the grooved drum having grooves for displacing a thread on a cross-wound package, the grooves having crossing points and reversal points , characterised in that a ceramic coating is applied only at the crossing points and at the reversal points by means of a thermal spraying method or an electrochemical method and, for the application of the ceramic coating , the grooved drum is positioned in a cylindrical auxiliary device , the auxiliary device having openings at the reversal points and at the crossing points .
A composition for detecting VEFGR1 autoantibody, comprising the following three antigen polypeptides: H-DEGVYHCKATNQKGSVESSAYLTVQGTSDKSNLE-OH; H-DLKLSCTVNKFLYRDVTWILLRTVNNRTMHYSI-OH; H-ESGLSDVSRPSFCHSSCGHVSEGKRRFTYDHAEL-OH. H-DEGVYHCKATNQKGSVESSAYLTVQGTSDKSNLE-OH; H-DLKLSCTVNKFLYRDVTWILLRTVNNRTMHYSI-OH; H-ESGLSDVSRPSFCHSSCGHVSEGKRRFTYDHAEL-OH.
Fire protection device for sealing through-openings in wall or ceiling elements made of wood or a similar material, in particular for sealing line or pipe feedthroughs, comprising a main body having a through-opening , and at least one expansion body which is attached to an end face of the main body and contains an intumescent material, the end face being a front face of the main body which faces the wall or ceiling element, characterized in that the expansion body extends radially between the through-opening and an outer face of the main body when viewed in the axial direction A.
A method for operating an internal combustion engine system , wherein the internal combustion engine system is provided with an air intake duct , an exhaust gas duct and an exhaust gas recirculation (EGR) system , wherein the EGR system comprises an EGR conduit that fluidly connects the exhaust duct and the intake duct , and wherein a gas feeding device configured to feed exhaust gas from the exhaust duct to the intake duct is arranged in the EGR conduit , characterized in that the gas feeding device is configured to feed exhaust gas by means of a displacement pump, preferably a Roots type blower having a pair of rotors provided with meshing lobes , and in that the method comprises the step of: - detecting an indication of accumulated deposits of soot, hydrocarbons or other contaminants in the gas feeding device by determining whether a rotational friction of a rotary member of the gas feeding device exceeds a threshold value. wherein the internal combustion engine system is provided with an air intake duct , an exhaust gas duct and an exhaust gas recirculation (EGR) system , wherein the EGR system comprises an EGR conduit that fluidly connects the exhaust duct and the intake duct , and wherein a gas feeding device configured to feed exhaust gas from the exhaust duct to the intake duct is arranged in the EGR conduit , characterized in that the gas feeding device is configured to feed exhaust gas by means of a displacement pump, preferably a Roots type blower having a pair of rotors provided with meshing lobes , and in that the method comprises the step of: - detecting an indication of accumulated deposits of soot, hydrocarbons or other contaminants in the gas feeding device by determining whether a rotational friction of a rotary member of the gas feeding device exceeds a threshold value. - detecting an indication of accumulated deposits of soot, hydrocarbons or other contaminants in the gas feeding device by determining whether a rotational friction of a rotary member of the gas feeding device exceeds a threshold value.
An imaging device comprising: an imaging substrate which is provided with an imaging element ; a signal processing substrate which processes a signal from the imaging element ; a housing ; and a belt-shaped cable which connects the imaging substrate and the signal processing substrate , wherein relative positions of the imaging substrate and the signal processing substrate can be adjusted, a securing part to which an end of the belt-shaped cable is secured is provided on at least one of the imaging substrate and the signal processing substrate , and the belt-shaped cable has a bent part to which a bending tendency is given and which is provided in at least a portion between the both ends, characterized in that Ltd. an insulator is disposed between the belt-shaped cable and an electronic component on the signal processing substrate and the belt-shaped cable and a cover of the housing . an imaging substrate which is provided with an imaging element ; a signal processing substrate which processes a signal from the imaging element ; a housing ; and a belt-shaped cable which connects the imaging substrate and the signal processing substrate , wherein relative positions of the imaging substrate and the signal processing substrate can be adjusted, a securing part to which an end of the belt-shaped cable is secured is provided on at least one of the imaging substrate and the signal processing substrate , and the belt-shaped cable has a bent part to which a bending tendency is given and which is provided in at least a portion between the both ends, characterized in that Ltd. an insulator is disposed between the belt-shaped cable and an electronic component on the signal processing substrate and the belt-shaped cable and a cover of the housing .
A device for estimating central aortic pulse pressure by a pressure pulse wave oscillation signal of a cuff, comprising: - means for regulating a pressure of the cuff, which is used to control the proceeding of pressurization, maintenance and decompression in a measured location of the cuff; - means for recording and storing the pressure pulse wave oscillation signal of the cuff; and - means for analyzing the central aortic pulse pressure, comprising storing means for storing an equation for estimating the central aortic pulse pressure to calculate in real-time an estimate of the central aortic pulse pressure by a value of a predicting variable, wherein the equation comprises a plurality of predicting variables and predicting coefficients, and wherein the predicting variables comprise: end-systolic pressure (ESP), areas under a pressure tracing in systole (As), areas under a pressure tracing in diastole (Ad), diastolic blood pressure (DBP) and heart rate (HR), wherein the equation for estimating central aortic pulse pressure is: -88.2 + 0.79 ∗ ESP + 1.41 ∗ As + 0.68 ∗ Ad - 1.16 ∗ DBP + 0.84 ∗ HR. - means for regulating a pressure of the cuff, which is used to control the proceeding of pressurization, maintenance and decompression in a measured location of the cuff; - means for recording and storing the pressure pulse wave oscillation signal of the cuff; and - means for analyzing the central aortic pulse pressure, comprising storing means for storing an equation for estimating the central aortic pulse pressure to calculate in real-time an estimate of the central aortic pulse pressure by a value of a predicting variable, wherein the equation comprises a plurality of predicting variables and predicting coefficients, and wherein the predicting variables comprise: end-systolic pressure (ESP), areas under a pressure tracing in systole (As), areas under a pressure tracing in diastole (Ad), diastolic blood pressure (DBP) and heart rate (HR), wherein the equation for estimating central aortic pulse pressure is: -88.2 + 0.79 ∗ ESP + 1.41 ∗ As + 0.68 ∗ Ad - 1.16 ∗ DBP + 0.84 ∗ HR.
A method for manufacturing a wiring substrate comprising: forming a plating film comprising a film comprising at least Pd on an electrode comprising Cu or a Cu alloy; bonding a solder having a melting point of lower than 140°C onto the plating film by heating, to dissolve the Pd in the solder to prevent forming a Pd concentrated layer remaining on an interface of an intermetallic compound layer formed by solder bonding between the plating film and the solder by heating under a predetermined thermal condition, wherein the predetermined thermal condition is one of the following that: reflow treatment at the time of bonding the solder is performed under a condition where a peak temperature is 139°C or higher, and the time of maintaining the temperature at 139°C or higher is shorter than 90 seconds, and the reflow treatment is repeated at least once under the same condition, and after bonding the solder, heating treatment of maintaining the temperature at 139°C or higher for 90 seconds or longer is performed. forming a plating film comprising a film comprising at least Pd on an electrode comprising Cu or a Cu alloy; bonding a solder having a melting point of lower than 140°C onto the plating film by heating, to dissolve the Pd in the solder to prevent forming a Pd concentrated layer remaining on an interface of an intermetallic compound layer formed by solder bonding between the plating film and the solder by heating under a predetermined thermal condition, wherein the predetermined thermal condition is one of the following that: reflow treatment at the time of bonding the solder is performed under a condition where a peak temperature is 139°C or higher, and the time of maintaining the temperature at 139°C or higher is shorter than 90 seconds, and the reflow treatment is repeated at least once under the same condition, and after bonding the solder, heating treatment of maintaining the temperature at 139°C or higher for 90 seconds or longer is performed. reflow treatment at the time of bonding the solder is performed under a condition where a peak temperature is 139°C or higher, and the time of maintaining the temperature at 139°C or higher is shorter than 90 seconds, and the reflow treatment is repeated at least once under the same condition, and after bonding the solder, heating treatment of maintaining the temperature at 139°C or higher for 90 seconds or longer is performed.
A biplanar X-ray imaging device, comprising a first C-shaped arm , a second C-shaped arm , a sliding and rotating seat , a first X-ray generation device , a first image receiving device , a second X-ray generation device and a second image receiving device ; the first C-shaped arm is slidably disposed outside the second C-shaped arm ; the second C-shaped arm is slidably disposed on the sliding and rotating seat ; the first X-ray generation device is fixed on one end in the peripheral direction of the first C-shaped arm ; the first image receiving device is disposed on the other end in the peripheral direction of the first C-shaped arm or slidably disposed on the inner side of the second C-shaped arm ; the second X-ray generation device and the second image receiving device are respectively fixed on the two ends in the peripheral direction of the second C-shaped arm,the intersecting line between the X-ray emission plane of the first X-ray generation device and the X-ray emission plane of the second X-ray generation device is a rotating axis; the rotating axis is on a connecting line of the first X-ray generation device and the first image receiving device, in addition, the second X-ray generation device and the second image receiving device rotate along the rotating axis under the drive of the second C-shaped arm; characterized in that the first C-shaped arm consists of two C-shaped beams and a chute is disposed on the second C-shaped arm , which matches the C-shaped beam of the first C-shaped arm.
A method for analyzing a polymer membrane having a block copolymer which is formed in trenches disposed at regular intervals and self-assembled, the method comprising: a step of blurring an original image of the polymer membrane, characterized in that the step of blurring the original image of the polymer membrane is to separate the region corresponding to the trenches and the region corresponding to the self-assembled block copolymer from the original image of the polymer membrane, and characterized in that the method further comprises: a step of Fourier-transforming the original image and the blurring-processed image, and a step of removing noise from the image generated by the Fourier transformation of the original image, wherein the step of removing noise is a step of removing the overlapping range of the Fourier transformation result of the original image and the Fourier transformation result of the blurring-processed image. a step of blurring an original image of the polymer membrane, characterized in that the step of blurring the original image of the polymer membrane is to separate the region corresponding to the trenches and the region corresponding to the self-assembled block copolymer from the original image of the polymer membrane, and characterized in that the method further comprises: a step of Fourier-transforming the original image and the blurring-processed image, and a step of removing noise from the image generated by the Fourier transformation of the original image, wherein the step of removing noise is a step of removing the overlapping range of the Fourier transformation result of the original image and the Fourier transformation result of the blurring-processed image. a step of Fourier-transforming the original image and the blurring-processed image, and a step of removing noise from the image generated by the Fourier transformation of the original image, wherein the step of removing noise is a step of removing the overlapping range of the Fourier transformation result of the original image and the Fourier transformation result of the blurring-processed image.
A device for automatic processing of an image of printed surfaces including at least one position marker (3, 4, 5, 6; 14; 17, 18) of a main zone to be extracted of a printed surface of the image, the device comprising: - acquisition means for acquiring the image of printed surfaces; - identification means for identifying the at least one position marker in the image of printed surfaces; and - extraction means for extracting the main zone located in the plane of the image as a function of the at least one position marker thus identified, characterized in that the device further includes means for identifying and decoding a microcode , associated with the zone to be extracted, in the image of printed surfaces, the microcode being placed in a predefined manner relative to the main zone to be extracted, the identification and decoding means being configured to determine, from the microcode associated with the main zone to be extracted, one or several secondary zones relative to the main zone to be extracted, the position of which is predefined relative to the main zone by the microcode, the processing device being configured to determine a part of the main zone indicated by a line in the secondary zone and to apply postprocessing to said part of the main zone as a function of the microcode. - acquisition means for acquiring the image of printed surfaces; - identification means for identifying the at least one position marker in the image of printed surfaces; and - extraction means for extracting the main zone located in the plane of the image as a function of the at least one position marker thus identified,
A method for the preparation of a permeation membrane comprising a nanoporous carrier system with pores ranging in size from 0.5 to 50 nm, said system being provided with a palladium layer by the following steps: a) application of a palladium complex dissolved in a solvent with or without alloying elements to the carrier system, b) removal of the solvent by drying, c) removal of the organic components through a thermal treatment, d) final thermal treatment under reduced conditions at an elevated temperature in the range between 300 and 900 °C. a) application of a palladium complex dissolved in a solvent with or without alloying elements to the carrier system, b) removal of the solvent by drying, c) removal of the organic components through a thermal treatment, d) final thermal treatment under reduced conditions at an elevated temperature in the range between 300 and 900 °C.
A control device for a hydraulic machine including a plurality of hydraulic actuators that are driven by oil ejected from a variable displacement type hydraulic pump driven by an engine (E), the control device being configured to: in driving each hydraulic actuator , control a flow rate of oil ejected from the hydraulic pump such that the flow rate satisfies a required flow rate (Q R ) for the hydraulic actuator ; and correct a target value (Rq) for a ratio (Q/Q R ) of a supply flow rate (Q) to the required flow rate (Q R ) for each hydraulic actuator , in accordance with a change in an engine rotation number (N), the plurality of hydraulic actuators including a hydraulic motor for traveling of the hydraulic machine , the hydraulic motor being configured such that its capacity setting is switchable between at least two different capacity settings, characterized in that the control device being configured to correct the target value (Rq) for the ratio (Q/Q R ) of the supply flow rate (Q) to the required flow rate (Q R ) for each hydraulic actuator , in accordance with not only a change in the engine rotation number (N) but also switching of the capacity of the hydraulic motor . the control device being configured to: in driving each hydraulic actuator , control a flow rate of oil ejected from the hydraulic pump such that the flow rate satisfies a required flow rate (Q R ) for the hydraulic actuator ; and correct a target value (Rq) for a ratio (Q/Q R ) of a supply flow rate (Q) to the required flow rate (Q R ) for each hydraulic actuator , in accordance with a change in an engine rotation number (N), the plurality of hydraulic actuators including a hydraulic motor for traveling of the hydraulic machine , the hydraulic motor being configured such that its capacity setting is switchable between at least two different capacity settings, characterized in that the control device being configured to correct the target value (Rq) for the ratio (Q/Q R ) of the supply flow rate (Q) to the required flow rate (Q R ) for each hydraulic actuator , in accordance with not only a change in the engine rotation number (N) but also switching of the capacity of the hydraulic motor .
A method for tracking an object in a disparity map, comprising: extracting (S101), from the disparity map, prior convex hulls in an object template of a prior frame, the prior convex hulls including at least a prior torso convex hull and prior limb convex hulls; detecting (S102) a portion corresponding to the prior torso convex hull, in a current frame so as to serve as a current torso portion; extracting (S103) current limb convex hulls from a surrounding region of the current torsos portion in the current frame; for each of the prior limb convex hulls, rotating (S104), based on principal gradient directions of the current limb convex hulls and the prior limb convex hulls computed on a grayscale image corresponding to the disparity map, each of the current limb convex hulls so as to let the principal gradient direction of the current limb convex hull be consistent with the principal gradient direction of the corresponding prior limb convex hull; seeking rotated current limb convex hulls matching the prior limb convex hulls, respectively; and determining (S105), based on the matching results, an object template in the current frame so as to achieve object tracking. extracting (S101), from the disparity map, prior convex hulls in an object template of a prior frame, the prior convex hulls including at least a prior torso convex hull and prior limb convex hulls; detecting (S102) a portion corresponding to the prior torso convex hull, in a current frame so as to serve as a current torso portion; extracting (S103) current limb convex hulls from a surrounding region of the current torsos portion in the current frame; for each of the prior limb convex hulls, rotating (S104), based on principal gradient directions of the current limb convex hulls and the prior limb convex hulls computed on a grayscale image corresponding to the disparity map, each of the current limb convex hulls so as to let the principal gradient direction of the current limb convex hull be consistent with the principal gradient direction of the corresponding prior limb convex hull; seeking rotated current limb convex hulls matching the prior limb convex hulls, respectively; and determining (S105), based on the matching results, an object template in the current frame so as to achieve object tracking.