mhurhangee/ep-ind-claims huggingface dataset:
Electronic air supply device in particular for utility vehicles, having a compressed air supply part which has a compressor and an air dryer, and a compressed air consumer part with a plurality of compressed air consumer circuits which comprise service brake circuits (26, 28) having compressed air containers (90, 92), and which are supplied with compressed air via valves (16, 18, 20, 22, 24) which can be electrically activated directly or indirectly, wherein at least the pressure in the service brake circuits is monitored by pressure sensors (72, 74) whose electrical signals are evaluated by an electric control unit which controls the valves which can be electrically activated directly or indirectly, wherein in the event of failure of a service brake circuit (26 or 28) the electric control device switches the valve (16 or 18), which is connected upstream of the failed service brake circuit, into the off state which prevents the further supply of compressed air to the failed service brake circuit (26 or 28), characterized in that the electric control unit simultaneously shifts the lower threshold value of a pressure band, stored in the electric control device of the intact service brake circuit (28 or 26) to a higher value with respect to the lower threshold of a normal pressure band.
A method implemented in a stereo sound signal encoding system for time domain down mixing right and left channels of an input stereo sound signal into primary and secondary channels, comprising: determining a normalized correlation of the left channel in relation to a monophonic signal version of the sound and a normalized correlation of the right channel in relation to the monophonic signal version of the sound; determining a long-term correlation difference on the basis of the normalized correlation of the left channel and the normalized correlation of the right channel; converting the long-term correlation difference into a factor β; and mixing the left and right channels to produce the primary and secondary channels using the factor β, wherein the factor β determines respective contributions of the left and right channels upon production of the primary and secondary channels. determining a normalized correlation of the left channel in relation to a monophonic signal version of the sound and a normalized correlation of the right channel in relation to the monophonic signal version of the sound; determining a long-term correlation difference on the basis of the normalized correlation of the left channel and the normalized correlation of the right channel; converting the long-term correlation difference into a factor β; and mixing the left and right channels to produce the primary and secondary channels using the factor β, wherein the factor β determines respective contributions of the left and right channels upon production of the primary and secondary channels.
A belt-tensioning device for a rock crusher or a screening machine for tensioning at least one revolving drive belt which is deflected around a pulley of a drive and has a tight side and a slack side (21, 22), wherein by means of the drive belt the drive is drivable together with a breaking aggregate, a screening unit, a generator or the like of the rock crusher, the belt-tensioning device has two tensioning rollers, each of which is rotatably mounted on a holder (41, 51) of a tensioning part (40, 50), wherein one tensioning roller is assignable to the slack side of belt and the other to the tight side of the belt, and the two tensioning parts (40, 50) are adjustable with respect to each other between an opening and a tensioning position and in the tensioning position are supported against each other, in particular are blockable against each other, at least counter to the tensioning direction, characterised in that one of the tensioning parts bears a guide element, in that the guide element forms a sliding guide (42.4) which cooperates with a sliding guide of the other tensioning part, in that the guide element is fixedly connected to the tensioning part or integrally formed thereon, and in that two sliding guides (42.4) are angled away from the guide element and engage over the edges (55.1) of the second tensioning part opposite the sliding guides (42.4) to form the linear guide.
A moisture-curing silane-reactive functionalized hot melt composition formed by combining the components of a composition comprising: a.) at least one polyacrylate containing active hydrogen groups; b.) at least one polyether polyol; c.) at least one polyisocyanate; d.) at least one moisture-curable end-capping isocyanato silane; wherein the polyether polyol number average molecular weight is less than or equal to 2000. a.) at least one polyacrylate containing active hydrogen groups; b.) at least one polyether polyol; c.) at least one polyisocyanate; d.) at least one moisture-curable end-capping isocyanato silane;
A method of determining potentially fraudulent records in a database comprising: providing a graphical user interface (100; 210) to a user to display multiple inputs, to receive inputs from the user and to display results, defining a detection strategy targeted to detect existing records from the database, the detection strategy comprising multiple inputs, wherein the multiple inputs comprise at least one threshold, at least one detection method, at least one weighting factor (124; 134; 144), and at least one parameter (120-140; 122-142); wherein the multiple inputs can be individually set for each of the at least one detection method; executing the detection strategy on existing records and displaying results for review by a user; dynamically calibrating the detection strategy as desired based on the inputs received from the user and displaying any modified results, wherein the calibrated detection strategy produces results that were not previously known, due to changes in the at least one parameter (120-140; 122-142), the at least one weighting factor (124; 134; 144) and/or the at least one threshold; setting the calibrated detection strategy; and executing the calibrated detection strategy on new records to detect potentially fraudulent records warranting investigation. providing a graphical user interface (100; 210) to a user to display multiple inputs, to receive inputs from the user and to display results, defining a detection strategy targeted to detect existing records from the database, the detection strategy comprising multiple inputs, wherein the multiple inputs comprise at least one threshold, at least one detection method, at least one weighting factor (124; 134; 144), and at least one parameter (120-140; 122-142); wherein the multiple inputs can be individually set for each of the at least one detection method; executing the detection strategy on existing records and displaying results for review by a user; dynamically calibrating the detection strategy as desired based on the inputs received from the user and displaying any modified results, wherein the calibrated detection strategy produces results that were not previously known, due to changes in the at least one parameter (120-140; 122-142), the at least one weighting factor (124; 134; 144) and/or the at least one threshold; setting the calibrated detection strategy; and executing the calibrated detection strategy on new records to detect potentially fraudulent records warranting investigation.
An exhaust purification system of an internal combustion engine which is provided inside an engine exhaust passage with a hydrocarbon feed valve for feeding hydrocarbons, arranges an exhaust purification catalyst for causing NO X which is contained in exhaust gas and reformed hydrocarbons to react downstream of the hydrocarbon feed valve in the engine exhaust passage, carries precious metal catalysts (51, 52) on an exhaust gas flow surface of the exhaust purification catalyst, and forms basic exhaust gas flow surface parts around the precious metal catalysts (51, 52), wherein the exhaust purification catalyst has a property of reducing the NO X which is contained in the exhaust gas if making a concentration of hydrocarbons which flow into the exhaust purification catalyst vibrate by within a predetermined range of amplitude and by within a predetermined range of period and has a property of an amount of storage of NO x which is contained in the exhaust gas increasing if making a vibration period of the concentration of hydrocarbons longer than the predetermined range; wherein in said exhaust purification catalyst, NO x contained in the exhaust gas and reformed hydrocarbons react on the precious metal catalysts (51, 52) whereby reducing intermediates R-NCO and R-NH 2 containing nitrogen and hydrocarbons are produced and the produced reducing intermediates are held on the basic exhaust gas flow surface parts, and wherein the predetermined range of period is an interval of 0.3 second to 5 seconds, and, at the time of engine operation, during a time period when an amount of feed of hydrocarbons from the hydrocarbon feed valve is controlled so that the amplitude of a change of concentration of hydrocarbons which flow into the exhaust purification catalyst becomes within the above predetermined range of amplitude, while a feed interval of hydrocarbons from the hydrocarbon feed valve is controlled so that the concentration of hydrocarbons which flow into the exhaust purification catalyst vibrates by within the above predetermined range of period, an amount of adsorption of hydrocarbons in the exhaust purification catalyst is estimated and, if the estimated amount of adsorption of hydrocarbons exceeds a predetermined judgment value of the adsorption amount, at least one control of control which reduces the amount of feed of hydrocarbons and control which lengthens the feed interval of hydrocarbons is performed.
A beverage brewing apparatus having a water heating portion and a brewing portion, the water heating portion comprising: a three heating element tank having a fluid inlet and a fluid outlet and first, second and third heating elements (40, H1, H2, H3) therein for heating water in the three heating element tank, wherein each heating element (40, H1, H2, H3) is constructed with a three-phase circuit and has a different heating capacity; a switch associated with each heating element (40, H1, H2, H3), said switch controlled by a processor; a temperature sensor configured to continuously sense a temperature (T, T1, T2, T3) at stages of heating of the water in the three heating element tank and to send a signal to the processor corresponding to the temperature of the water in the three heating element tank; first, second, and third current sources (200a, 200b, 200c); wherein each heating element (40, H1, H2, H3) is powered by each current source (200a, 200b, 200c); wherein the processor is configured to actuate said associated switch for each heating element (40, H1, H2, H3) to activate, deactivate and reactivate each of said first, second and third heating elements (40, H1, H2, H3) in the stages of heating (T1, T2, T3) of the water until a final target temperature (Tf) is reached. a three heating element tank having a fluid inlet and a fluid outlet and first, second and third heating elements (40, H1, H2, H3) therein for heating water in the three heating element tank, wherein each heating element (40, H1, H2, H3) is constructed with a three-phase circuit and has a different heating capacity; a switch associated with each heating element (40, H1, H2, H3), said switch controlled by a processor; a temperature sensor configured to continuously sense a temperature (T, T1, T2, T3) at stages of heating of the water in the three heating element tank and to send a signal to the processor corresponding to the temperature of the water in the three heating element tank; first, second, and third current sources (200a, 200b, 200c); wherein each heating element (40, H1, H2, H3) is powered by each current source (200a, 200b, 200c); wherein the processor is configured to actuate said associated switch for each heating element (40, H1, H2, H3) to activate, deactivate and reactivate each of said first, second and third heating elements (40, H1, H2, H3) in the stages of heating (T1, T2, T3) of the water until a final target temperature (Tf) is reached.
A pharmaceutical composition comprising a soft dosage form comprising a shell encapsulating a liquid matrix, wherein the shell comprises: (a) about 10% to about 50% gelatin, 150 Bloom; (b) about 1% to about 20% gelatin, 100 Bloom; (c) about 1% to about 10% hydrolyzed collagen; (d) about 10% to about 20% maltitol syrup (lycasin®); (e) about 10% to about 50% glycerin; (f) about 0.1% to about 2% citric acid; (g) about 0.1% to about 5% xylitol; (h) about 0.1% to about 1% sucralose; and (i) about 10% to about 50% water; and the matrix comprises: (j) about 10% to about 40% polyethylene glycol 400; (k) about 1% to about 15% propylene glycol; (l) about 0.1% to about 5% polyvinylpyrrolidone K30; (m) about 25% to about 75% maltitol syrup (lycasin®); (n) about 0.1% to about 5% citric acid; (o) about 0.1% to about 5% lactic acid; (p) about 0.1% to about 5% sucralose; (q) about 0.1% to about 5% acesulfame potassium; (r) about 1% to about 10% water; (s) about 0.1% to about 5% dextromethorphan hydrobromide; and (t) about 0.05% to about 1% menthol. (a) about 10% to about 50% gelatin, 150 Bloom; (b) about 1% to about 20% gelatin, 100 Bloom; (c) about 1% to about 10% hydrolyzed collagen; (d) about 10% to about 20% maltitol syrup (lycasin®); (e) about 10% to about 50% glycerin; (f) about 0.1% to about 2% citric acid; (g) about 0.1% to about 5% xylitol; (h) about 0.1% to about 1% sucralose; and (i) about 10% to about 50% water; and (j) about 10% to about 40% polyethylene glycol 400; (k) about 1% to about 15% propylene glycol; (l) about 0.1% to about 5% polyvinylpyrrolidone K30; (m) about 25% to about 75% maltitol syrup (lycasin®); (n) about 0.1% to about 5% citric acid; (o) about 0.1% to about 5% lactic acid; (p) about 0.1% to about 5% sucralose; (q) about 0.1% to about 5% acesulfame potassium; (r) about 1% to about 10% water; (s) about 0.1% to about 5% dextromethorphan hydrobromide; and (t) about 0.05% to about 1% menthol.
Method for the production of 5-hydroxymethylfurfural in a continuous process comprising the following steps: a) providing of an aqueous fructose-containing starting solution and at least one homogeneous acid catalyst, b) mixing of the aqueous fructose-containing starting solution and the at least one homogeneous acid catalyst to obtain a reaction solution having a carbohydrate content ranging from 5 wt-% to 50 wt-% (dry matter carbohydrate relative to the total weight of the reaction solution) and a fructose content ranging from 40 wt-% to 100 wt- % (dry matter fructose relative to the dry matter of the carbohydrates), c) feeding in of the reaction solution obtained in step b) into a continuous reactor system and conversion of the fructose present in the reaction solution to HMF at a temperature ranging from 80 °C to 165 °C to obtain an HMF-containing product mixture while adjusting for a fructose conversion ranging from 1 mol-% to 40 mol-%, d) adjusting of the product mixture to a temperature ranging from 20 °C to 80 °C, e) purificating of the product mixture obtained in step d) by using chromatography to separate at least four fractions comprising an HMF fraction, a carbohydrate/acid fraction, a fructose fraction and a levulinic and formic acid fraction. a) providing of an aqueous fructose-containing starting solution and at least one homogeneous acid catalyst, b) mixing of the aqueous fructose-containing starting solution and the at least one homogeneous acid catalyst to obtain a reaction solution having a carbohydrate content ranging from 5 wt-% to 50 wt-% (dry matter carbohydrate relative to the total weight of the reaction solution) and a fructose content ranging from 40 wt-% to 100 wt- % (dry matter fructose relative to the dry matter of the carbohydrates), c) feeding in of the reaction solution obtained in step b) into a continuous reactor system and conversion of the fructose present in the reaction solution to HMF at a temperature ranging from 80 °C to 165 °C to obtain an HMF-containing product mixture while adjusting for a fructose conversion ranging from 1 mol-% to 40 mol-%, d) adjusting of the product mixture to a temperature ranging from 20 °C to 80 °C, e) purificating of the product mixture obtained in step d) by using chromatography to separate at least four fractions comprising an HMF fraction, a carbohydrate/acid fraction, a fructose fraction and a levulinic and formic acid fraction.
A method performed by a unified data management, UDM, entity (1600, 1700), comprising: transmitting an HTTP request to unified data repository, UDR, entity (1600, 1800) to maintain a short message service, SMS, waiting context for a terminal device, at the UDR entity, wherein the SMS waiting context is information related to a re-attempt of a mobile terminating, MT, SMS delivery from at least one SMS service center, SMS-SC, to the terminal device due to a failure of the MT SMS delivery, wherein the SMS waiting context is maintained by at least one of the following steps: - querying the UDR entity for an SMS waiting context for the terminal device, by sending a hypertext transfer protocol, HTTP, GET request to the UDR entity; - creating an SMS waiting context for the terminal device, by sending an HTTP PUT request to the UDR entity; and - updating the SMS waiting context for the terminal device, by sending an HTTP PUT or PATCH request to the UDR entity, and wherein the HTTP PUT request comprises the SMS waiting context for the terminal device, and/or wherein the HTTP PATCH request comprises an indication indicating at least one of the SMS waiting context for the terminal device. transmitting an HTTP request to unified data repository, UDR, entity (1600, 1800) to maintain a short message service, SMS, waiting context for a terminal device, at the UDR entity, wherein the SMS waiting context is information related to a re-attempt of a mobile terminating, MT, SMS delivery from at least one SMS service center, SMS-SC, to the terminal device due to a failure of the MT SMS delivery, wherein the SMS waiting context is maintained by at least one of the following steps: - querying the UDR entity for an SMS waiting context for the terminal device, by sending a hypertext transfer protocol, HTTP, GET request to the UDR entity; - creating an SMS waiting context for the terminal device, by sending an HTTP PUT request to the UDR entity; and - updating the SMS waiting context for the terminal device, by sending an HTTP PUT or PATCH request to the UDR entity, and - querying the UDR entity for an SMS waiting context for the terminal device, by sending a hypertext transfer protocol, HTTP, GET request to the UDR entity; - creating an SMS waiting context for the terminal device, by sending an HTTP PUT request to the UDR entity; and - updating the SMS waiting context for the terminal device, by sending an HTTP PUT or PATCH request to the UDR entity, and wherein the HTTP PUT request comprises the SMS waiting context for the terminal device, and/or wherein the HTTP PATCH request comprises an indication indicating at least one of the SMS waiting context for the terminal device.
A negative electrode for a lithium secondary battery which comprises: a negative electrode current collector; a first negative electrode mixture layer positioned on at least one surface of the negative electrode current collector and comprising a first negative electrode active material, a polymer binder and a conductive material; and a second negative electrode mixture layer positioned on the top surface of the first negative electrode mixture layer and comprising a second negative electrode active material, a polymer binder and a conductive material, wherein the second negative electrode active material has a smaller water contact angle as compared to the first negative electrode active material, and at least one of the first negative electrode active material and the second negative electrode active material is surface-modified, wherein the ratio of the water contact angle of the first negative electrode active material to the water contact angle of the second negative electrode active material is 1.5-18, and wherein the water contact angle is determined as described in the specification.
A cleaning composition for metallic surfaces of vehicles, said composition comprising based on the weight of the composition: from 80 to 90 wt.% of 2-(2-butoxyethoxy)ethanol; from 5 to 12 wt.% of said 3-(2-ethylhexoxymethoxymethyl)heptane; and, from 3 to 8 wt.% of said 2-[bis(2-hydroxyethyl)amino]ethanol. from 80 to 90 wt.% of 2-(2-butoxyethoxy)ethanol; from 5 to 12 wt.% of said 3-(2-ethylhexoxymethoxymethyl)heptane; and, from 3 to 8 wt.% of said 2-[bis(2-hydroxyethyl)amino]ethanol.
Child seat for a motor vehicle having an indicator device (5; 51, 10) for displaying a correct interaction of an Isofix catch of the child seat with an Isofix connection of the motor vehicle, wherein an actuating lever for releasing, by means of a cable pull device, an Isofix catch embodied in the child seat is configured on the child seat, wherein the actuating lever directly or indirectly pivots a cam mounted in the child seat from a locking position to a release position, the pull cable of the cable pull device being mounted to an arm of the cam, wherein the pull cable releases the Isofix catch and frees the Isofix connection to the motor vehicle when pivoting the cam by tensioning the pull cable, in the locking position, the cam acts with an arm upon a lever being configured in the child seat and rotatable about an axis, the free end of which, remote from the cam, is visible from the outside through an opening in the shell of the child seat, but is pivoted away from the opening in the release position, the actuating lever, when being pivoted from the locking position to the release position, first releases an Isofix locking arm, which is displaceably mounted in the child seat and in or on which the Isofix catch is formed, from a clamped or latched position of the preselected extension length on the child seat from a locking arm guide, wherein the locking of the Isofix catch causes a shortening of the cable pull of the cable pull device, whereby the cam actuates the lever with its cam arm, such that the remote end becomes visible in the opening of the shell. wherein the actuating lever directly or indirectly pivots a cam mounted in the child seat from a locking position to a release position, the pull cable of the cable pull device being mounted to an arm of the cam, wherein the pull cable releases the Isofix catch and frees the Isofix connection to the motor vehicle when pivoting the cam by tensioning the pull cable, in the locking position, the cam acts with an arm upon a lever being configured in the child seat and rotatable about an axis, the free end of which, remote from the cam, is visible from the outside through an opening in the shell of the child seat, but is pivoted away from the opening in the release position, the actuating lever, when being pivoted from the locking position to the release position, first releases an Isofix locking arm, which is displaceably mounted in the child seat and in or on which the Isofix catch is formed, from a clamped or latched position of the preselected extension length on the child seat from a locking arm guide, wherein the locking of the Isofix catch causes a shortening of the cable pull of the cable pull device, whereby the cam actuates the lever with its cam arm, such that the remote end becomes visible in the opening of the shell.