mhurhangee/ep-ind-claims huggingface dataset:
Crawler vehicle with a body and at least one left and one right crawler track (5, 6), wherein the crawler tracks (5, 6) are connected to the body via a machine axis and each have a first and a second deflection roller (8, 9), as well as a first and a second support arm (22, 23) on which the deflection rollers (8, 9) are mounted, characterized in that an axle, about which the first and second support arms (22, 23) of each track (5, 6) are pivotably mounted independently of each other, coincides with the machine axis, wherein at least one support roller is arranged between the two deflection rollers (8, 9) of one of the crawler tracks (5, 6) and in that a bearing of the support roller is held by a connecting rod which is hinged to one of the support arms.
A superheated steam generator, comprising: an induction heating type or electrically heating type superheated steam generation section (10, 10A, 10B) configured to generate superheated steam by heating steam; and an informing section configured to transmit maintenance information by employing, as a parameter, an operating temperature of the superheated steam generation section (10, 10A, 10B) and an operating time at the operating temperature, wherein the informing section acquires operating temperature data indicating the operating temperature of the superheated steam generation section (10, 10A, 10B), and operating time data indicating the operating time at the operating temperature, the informing section converts the operating time to an operating time at a predetermined temperature and integrates converted values, and the informing section transmits the maintenance information when an integration value exceeds a predetermined integration threshold value. an induction heating type or electrically heating type superheated steam generation section (10, 10A, 10B) configured to generate superheated steam by heating steam; and an informing section configured to transmit maintenance information by employing, as a parameter, an operating temperature of the superheated steam generation section (10, 10A, 10B) and an operating time at the operating temperature, wherein the informing section acquires operating temperature data indicating the operating temperature of the superheated steam generation section (10, 10A, 10B), and operating time data indicating the operating time at the operating temperature, the informing section converts the operating time to an operating time at a predetermined temperature and integrates converted values, and the informing section transmits the maintenance information when an integration value exceeds a predetermined integration threshold value.
A delivery catheter for a cardiac stent-valve, comprising a tubing carrying a stent holder, the stent holder having a crimp connection to the tubing.
A method for producing a sensor board for detecting a gas or liquid by means of a change in the sensor resistance, comprising the steps of: preparing an insulating layer; and forming at least a pair of electrodes on the insulating layer; characterized by: forming a conductive layer by spraying a conductive component-containing liquid onto the insulating layer by an ultrasonic spray method so as to cover the electrodes, wherein the conductive component-containing liquid contains an organic solvent. preparing an insulating layer; and forming at least a pair of electrodes on the insulating layer; characterized by: forming a conductive layer by spraying a conductive component-containing liquid onto the insulating layer by an ultrasonic spray method so as to cover the electrodes, wherein the conductive component-containing liquid contains an organic solvent. forming a conductive layer by spraying a conductive component-containing liquid onto the insulating layer by an ultrasonic spray method so as to cover the electrodes, wherein the conductive component-containing liquid contains an organic solvent.
Straightening head comprising a steam distribution circuit and a front wall provided with a treatment face intended to face a garment to be straightened, the treatment face comprising at least one steam outlet hole, the steam distribution circuit comprising an inlet channel comprising an inlet port intended to be connected to a steam duct, the steam distribution circuit further comprising an internal chamber, the inlet channel comprising an outlet port opening into the internal chamber, the internal chamber comprising a condensate drainage port communicating with a condensate return circuit, characterised in that the condensate return circuit opens into the steam duct or into the inlet channel.
Internal combustion engine comprising an electronic fuel injection control system for an internal combustion engine, said internal combustion engine being equipped with at least one fuel feeding line provided with a fuel tank, at least one throttle valve capable of regulating the air flow, at least one injector, at least one fuel pump (17; 18), at least one fuel return line comprising at least one solenoid valve, at least one first fuel return duct that connects said injector to said solenoid valve, at least one overpressure valve, at least one second return conduit adapted to connect said overpressure valve and said solenoid valve with said tank, wherein said fuel return line is provided with at least one calibration means, where said calibration means: - is sized and designed so as to simulate a specific fuel consumption of the said engine; - comprises narrowings or section shrinkages, holes; - allows at least verifying the state of said fuel pump (17; 18) and the related performance thereof; wherein said calibration means has geometries capable of simulating, with said solenoid valve substantially totally open, the consumption of the said engine at maximum speed, i.e., the fuel maximum operating flow rate (Qmax) required by said engine at maximum speed; and wherein said system comprises at least one fuel pressure sensor means and at least one control unit provided with at least one microcontroller, memory means and at least one processing and/or control software, where said system, by means of said calibration means and said control unit, performs a check test adapted to identify and define the values of the number of revolutions of said fuel pump necessary to obtain the fuel minimum (Pmin) and maximum (Pmax) pressure values, respectively, i.e. the pressure values capable of delivering the fuel minimum operating flow rate (Qmin) and the fuel maximum operating flow rate (Qmax) so as to meet the operating limit conditions of the said engine. - is sized and designed so as to simulate a specific fuel consumption of the said engine; - comprises narrowings or section shrinkages, holes; - allows at least verifying the state of said fuel pump (17; 18) and the related performance thereof; wherein said calibration means has geometries capable of simulating, with said solenoid valve substantially totally open, the consumption of the said engine at maximum speed, i.e., the fuel maximum operating flow rate (Qmax) required by said engine at maximum speed; and wherein said system comprises at least one fuel pressure sensor means and at least one control unit provided with at least one microcontroller, memory means and at least one processing and/or control software, where said system, by means of said calibration means and said control unit, performs a check test adapted to identify and define the values of the number of revolutions of said fuel pump necessary to obtain the fuel minimum (Pmin) and maximum (Pmax) pressure values, respectively, i.e. the pressure values capable of delivering the fuel minimum operating flow rate (Qmin) and the fuel maximum operating flow rate (Qmax) so as to meet the operating limit conditions of the said engine.
System for producing hot water, comprising: - at least one water-type solar thermal collector; - at least one hot water tank; - intermediate means which are connected, on the one hand, to the said solar thermal collector or collectors and, on the other hand, to the said hot water tank so as to supply the said tank with hot water, the intermediate means comprising a chamber delimiting a volume which brings at least four conduits into communication: - a first conduit for discharging water to the hot water tank, which conduit leading up to the upper part of the said chamber; - a second water inlet conduit leading up to the lower part of the said chamber; - a third conduit for admitting water coming from the collector or collectors, which conduit leading up to an intermediate inlet zone situated between the upper part and the lower part; - a fourth conduit for discharging water to the solar thermal collector or collectors, which conduit leadin up between the lower part and the intermediate inlet zone; characterised in that it comprises a mechanical stratification means comprising a thermostatic valve located on the outlet of the first conduit. - at least one water-type solar thermal collector; - at least one hot water tank; - intermediate means which are connected, on the one hand, to the said solar thermal collector or collectors and, on the other hand, to the said hot water tank so as to supply the said tank with hot water, - a first conduit for discharging water to the hot water tank, which conduit leading up to the upper part of the said chamber; - a second water inlet conduit leading up to the lower part of the said chamber; - a third conduit for admitting water coming from the collector or collectors, which conduit leading up to an intermediate inlet zone situated between the upper part and the lower part; - a fourth conduit for discharging water to the solar thermal collector or collectors, which conduit leadin up between the lower part and the intermediate inlet zone;
A multilayer structure, having an overall thickness of between 1.5 and 3.3 mm, preferably between 1.7 and 3.0 mm, comprising: (a) a support layer formed by - an organic polymer foam having an open porosity between 0.50 and 0.995, preferably between 0.80 and 0.97, in particular between 0.83 and 0.96, and more particularly still between 0.87 and 0.95, or by - a viscose fiber nonwoven having a mass per unit area of between 150 g/m 2 and 500 g/m 2, preferably between 200 and 400 g/m 2, and in particular between 200 and 300 g/m 2, (b) a surface layer formed by a glass textile, having a static air flow resistance, measured according to the standard ISO 9053, of between 10 5 N.s.m -4 and 10 6 N.s.m -4, preferably between 5 × 10 5 N.s.m -4 and 8.5 × 10 5 N.s.m -4, in particular between 7 × 10 5 N.s.m -4 and 8 × 10 5 N.s.m -4, (c) at the interface between the support layer (a) and the surface layer (b), a discontinuous adhesive layer having a mass per unit area of between 17 and 60 g/m 2, preferably between 20 and 40 g/m 2, in particular between 21 and 30 g/m 2, and ideally between 22 and 27 g/m 2. (a) a support layer formed by - an organic polymer foam having an open porosity between 0.50 and 0.995, preferably between 0.80 and 0.97, in particular between 0.83 and 0.96, and more particularly still between 0.87 and 0.95, or by - a viscose fiber nonwoven having a mass per unit area of between 150 g/m 2 and 500 g/m 2, preferably between 200 and 400 g/m 2, and in particular between 200 and 300 g/m 2, - an organic polymer foam having an open porosity between 0.50 and 0.995, preferably between 0.80 and 0.97, in particular between 0.83 and 0.96, and more particularly still between 0.87 and 0.95, or by - a viscose fiber nonwoven having a mass per unit area of between 150 g/m 2 and 500 g/m 2, preferably between 200 and 400 g/m 2, and in particular between 200 and 300 g/m 2, (b) a surface layer formed by a glass textile, having a static air flow resistance, measured according to the standard ISO 9053, of between 10 5 N.s.m -4 and 10 6 N.s.m -4, preferably between 5 × 10 5 N.s.m -4 and 8.5 × 10 5 N.s.m -4, in particular between 7 × 10 5 N.s.m -4 and 8 × 10 5 N.s.m -4, (c) at the interface between the support layer (a) and the surface layer (b), a discontinuous adhesive layer having a mass per unit area of between 17 and 60 g/m 2, preferably between 20 and 40 g/m 2, in particular between 21 and 30 g/m 2, and ideally between 22 and 27 g/m 2.
A noise suppressing member, comprising: a noise suppressing member main body formed from a sheet-shaped member, that is configured to be disposed at an inner portion of a pneumatic tire, and that has convex portions, which are convex from an inner surface side of the pneumatic tire toward an inner side in a tire radial direction, configured to suppress cavity resonance of the pneumatic tire; and magnets provided at the noise suppressing member main body, the magnets configured to generate attractive force with respect to a belt layer provided at an outer peripheral surface of a crown portion of the pneumatic tire, and the belt layer is structured by a steel cord, which is covered by a resin and which is wound in a spiral form in a tire circumferential direction, wherein: a plurality of magnet mounting portions are formed at both ends in a tire width direction of the noise suppressing member main body, at intervals along a tire circumferential direction, the magnet mounting portions have convex portions, which are annular-shaped and project-out toward a tire radial direction inner side, and the magnets are fit into concave portions within the convex portions. a noise suppressing member main body formed from a sheet-shaped member, that is configured to be disposed at an inner portion of a pneumatic tire, and that has convex portions, which are convex from an inner surface side of the pneumatic tire toward an inner side in a tire radial direction, configured to suppress cavity resonance of the pneumatic tire; and magnets provided at the noise suppressing member main body, the magnets configured to generate attractive force with respect to a belt layer provided at an outer peripheral surface of a crown portion of the pneumatic tire, and the belt layer is structured by a steel cord, which is covered by a resin and which is wound in a spiral form in a tire circumferential direction, wherein: a plurality of magnet mounting portions are formed at both ends in a tire width direction of the noise suppressing member main body, at intervals along a tire circumferential direction, the magnet mounting portions have convex portions, which are annular-shaped and project-out toward a tire radial direction inner side, and the magnets are fit into concave portions within the convex portions. a plurality of magnet mounting portions are formed at both ends in a tire width direction of the noise suppressing member main body, at intervals along a tire circumferential direction, the magnet mounting portions have convex portions, which are annular-shaped and project-out toward a tire radial direction inner side, and the magnets are fit into concave portions within the convex portions.
Ceramic carrier body comprising cooling elements and sintered metallization regions which are arranged one above the other in at least two metallization planes, the carrier body having a surface on which sintered metallization regions are arranged in a first metallization plane, these metallization regions being covered by a ceramic plate and, on the ceramic plate, sintered metallization regions being arranged in a top metallization plane for receiving circuit elements and metallization planes being made of tungsten, the metallization regions sintered in the first metallization plane being structured in such a way that they form resistors or coils and these metallization regions together with the formed resistors or coils being covered by the ceramic plate and, optionally on the ceramic plate, more of these sintered metallization regions being arranged in further metallization planes and each being covered by a ceramic plate and, on the top ceramic plate facing away from the cooling elements, the sintered metallization regions being arranged in a top metallization plane for receiving circuit elements and the inner metallization planes being made of tungsten, characterized in that the top metallization plane for receiving the circuit elements is made of copper and in that lateral metallizations made of copper are arranged on the lateral face of the carrier body, which metallizations connect the inner tungsten metallization planes to the top copper metallization plane.
A downhole tubular cutting system comprising: a cutter comprising an explosive material configured to cut a tubular; a generator body coupled to the cutter on an end of the cutter such that the generator body will be oriented uphole or downhole of the cutter when the cutter is positioned within the tubular; and a detonating cord or igniter fuse disposed around the generator body. a cutter comprising an explosive material configured to cut a tubular; a generator body coupled to the cutter on an end of the cutter such that the generator body will be oriented uphole or downhole of the cutter when the cutter is positioned within the tubular; and a detonating cord or igniter fuse disposed around the generator body.
A medical instrument, comprising: a shaft for insertion into a body of a patient; multiple flexible spines, having respective first ends that are connected to a distal end of the shaft and respective second ends that are free-standing and unanchored, wherein the spines are bent proximally such that the second ends are more proximal than the first ends, and wherein each of the flexible spines comprises a tensile layer configured to cause the flexible spine to bend proximally; and multiple electrodes disposed over the flexible spines, wherein the flexible spines and the electrodes comprise circuit board substrates and metallic elements disposed on the circuit board substrates, respectively, and wherein the circuit board substrates are folded so that the multiple electrodes are disposed over diametrically opposing facets of the circuit board substrates. a shaft for insertion into a body of a patient; multiple flexible spines, having respective first ends that are connected to a distal end of the shaft and respective second ends that are free-standing and unanchored, wherein the spines are bent proximally such that the second ends are more proximal than the first ends, and wherein each of the flexible spines comprises a tensile layer configured to cause the flexible spine to bend proximally; and multiple electrodes disposed over the flexible spines, wherein the flexible spines and the electrodes comprise circuit board substrates and metallic elements disposed on the circuit board substrates, respectively, and wherein the circuit board substrates are folded so that the multiple electrodes are disposed over diametrically opposing facets of the circuit board substrates.
A method of operating a mobile network comprising one or more end devices operable therein, wherein at least one end device has at least one characteristics module having a local memory, with a bidirectional data comparison taking place over the mobile network between data stored in the local memory of at least one characteristics module and data stored in at least one central unit; wherein the data to be compared are safety-specific data for a payment system that characterize account balances, transactions or similar financial procedures; and wherein the data comparison by the characteristics module is initiated by an application executed on the characteristics module on a first putting into operation of the characteristics module and subsequent to an executed transaction of the used payment service that effects a change of the associated safety-specific data in the local memory of the characteristics module, with the data comparison triggered by the first putting into operation providing a replication of the safety-specific data stored in the central unit in the local memory of the characteristics module and with the data comparison triggered by a transaction comprising a replication of the safety-specific data stored in the local memory of the characteristics module into the memory of the central unit.
A digital filter (Fx) configured to receive a sequence of digital samples, said digital filter (Fx) being configured to receive in parallel N digital samples (X k) of said sequence at each clock cycle of a clock signal suitable for synchronizing operation of said digital filter (Fx), N being an integer higher than 1, and to calculate a sum (XAV k) of L consecutive digital samples of said sequence, L being an odd integer equal to or higher than 3 and lower than N, said digital filter (Fx) comprising: - an integrating circuit (CS, S1, REG1, D) configured to calculate a first integral (Int k-((L-1)/2)) of said sequence up to a first digital sample (X k-((L-1)/2)) of said L consecutive digital samples and a last integral (Int k+((L-1)/2)) of said sequence up to a last digital sample (X k+((L-1)/2)) of said L consecutive digital samples; and - a differentiating circuit (REG1, REG2, MUX1, MUX2, S2) configured to calculate said sum (XAV k) as a difference between said last integral (Int k+((L-1)/2)) and said first integral (Int k-((L-1)/2)), wherein said integrating circuit (CS, S1, REG1, D) comprises a cumulative sum module, an addition module connected to said cumulative sum module and a first register retroactively connected to said addition module, wherein: - said cumulative sum module is configured to calculate a last cumulative sum (S k+((L-1)/2)) of said last digital sample (X k+((L-1)/2)) and preceding digital samples of said sequence received within a same clock cycle as said last digital sample (X k+((L-1)/2)); - said first register is configured to store a delayed integral (Int k-1) calculated on digital samples of said sequence received before said same clock cycle; and - said addition module is configured to calculate said last integral (Int k+((L-1)/2)) by adding said last cumulative sum (S k+((L-1)/2)) and said delayed integral (Int k-1). - an integrating circuit (CS, S1, REG1, D) configured to calculate a first integral (Int k-((L-1)/2)) of said sequence up to a first digital sample (X k-((L-1)/2)) of said L consecutive digital samples and a last integral (Int k+((L-1)/2)) of said sequence up to a last digital sample (X k+((L-1)/2)) of said L consecutive digital samples; and - a differentiating circuit (REG1, REG2, MUX1, MUX2, S2) configured to calculate said sum (XAV k) as a difference between said last integral (Int k+((L-1)/2)) and said first integral (Int k-((L-1)/2)), - said cumulative sum module is configured to calculate a last cumulative sum (S k+((L-1)/2)) of said last digital sample (X k+((L-1)/2)) and preceding digital samples of said sequence received within a same clock cycle as said last digital sample (X k+((L-1)/2)); - said first register is configured to store a delayed integral (Int k-1) calculated on digital samples of said sequence received before said same clock cycle; and - said addition module is configured to calculate said last integral (Int k+((L-1)/2)) by adding said last cumulative sum (S k+((L-1)/2)) and said delayed integral (Int k-1).