mhurhangee/patent-ind-claim-en huggingface dataset:
Method for improving an engine brake procedure, in particular for a combustion engine installed in a commercial or industrial vehicle, the method including the preliminary steps of - providing the internal combustion engine (E) of a turbocharger (E-TCU) equipped with a first electric motor-generator (EM) operatively coupled with the turbocharger, such that a compressor (C) of the turbocharger is arranged to supercharge the internal combustion engine and a turbine (T) of the turbocharger is arranged on an engine exhaust line (EP) to extract mechanical energy from the exhaust gases produced by the internal combustion engine, - equipping the internal combustion engine (E) with a second motor-generator (EMU) operatively coupled with a crankshaft (CK) of the internal combustion engine; the method including the following steps when an engine brake operation is active: - controlling said first electric motor-generator (EM) to increase the boost produced by said compressor, and - controlling said second motor-generator (EMU) to apply its maximum possible braking torque to the combustion engine, wherein, according to a first operating condition, said first and second motor-generators are interconnected between each other and with an electric energy storage (BATT) and wherein an overall braking torque is metered by regulating said boost through said first electric motor-generator only, while said second motor-generator (EMU) is controlled to develop its maximum braking torque, such that a residual electric energy not consumed by the first motor-generator is stored in said electric energy storage. - providing the internal combustion engine (E) of a turbocharger (E-TCU) equipped with a first electric motor-generator (EM) operatively coupled with the turbocharger, such that a compressor (C) of the turbocharger is arranged to supercharge the internal combustion engine and a turbine (T) of the turbocharger is arranged on an engine exhaust line (EP) to extract mechanical energy from the exhaust gases produced by the internal combustion engine, - equipping the internal combustion engine (E) with a second motor-generator (EMU) operatively coupled with a crankshaft (CK) of the internal combustion engine; - controlling said first electric motor-generator (EM) to increase the boost produced by said compressor, and - controlling said second motor-generator (EMU) to apply its maximum possible braking torque to the combustion engine,
A cartridge for liquid chromatography separations comprising: a housing ; at least a first and a second chromatography column at least partially passing through the housing , each chromatography column comprising a first and a second end fitting operable to connect the respective chromatography column to external tubing ; characterized in that the first chromatography column comprises a cleanup column and the second chromatography column comprises an analytical column, wherein, in operation, the cleanup column isolates a subset of compounds based on their size range or molecular weight range and the analytical column separates the individual compounds of the isolated subset of compounds and wherein the cleanup and analytical columns are matched with one another so as to provide optimum chromatographic separation for a particular type of analysis, a particular analysis protocol or a particular sample type . a housing ; at least a first and a second chromatography column at least partially passing through the housing , each chromatography column comprising a first and a second end fitting operable to connect the respective chromatography column to external tubing ; characterized in that the first chromatography column comprises a cleanup column and the second chromatography column comprises an analytical column, wherein, in operation, the cleanup column isolates a subset of compounds based on their size range or molecular weight range and the analytical column separates the individual compounds of the isolated subset of compounds and wherein the cleanup and analytical columns are matched with one another so as to provide optimum chromatographic separation for a particular type of analysis, a particular analysis protocol or a particular sample type .
A device for actuating a brake system of a motor vehicle, wherein the brake system comprises disk brakes of the front axle with bearing pressure of the disk brake elements (p KB ) and drum brakes of the rear axle with bearing pressure of the drum brake elements (p BB ), wherein the device is formed by an Electronic Stability Control (ESC) unit with a pump , by a connecting brake pipeline and by at least one input transmitter connected to the ESC unit for the transmission of signals characterizing the operating state of the vehicle, characterized in that the ESC unit further comprises a logic module , which is connected to the pump , wherein the ESC unit is designed so that after the activation of the logic module the value of the bearing pressure of the drum brake elements (P BBA ) corresponding to the current operating state is higher by the difference value between the bearing pressure of the drum brake elements (p BB ) before the activation of the logic unit and the bearing pressure of the disk brake elements (p KB ) before the activation of the logic unit.
A compound of Formula (I), wherein: X is O, NH, NC(O)C 1-3 alkyl, or NS(O) 2 Me; A is E is wherein R 1 is H, halogen, or Me; n is 0, 1, 2, or 3; and Q is one of the following: and/or tautomer, optical- or stereo-isomer thereof, or pharmaceutically acceptable salt thereof. X is O, NH, NC(O)C 1-3 alkyl, or NS(O) 2 Me; A is E is wherein R 1 is H, halogen, or Me; n is 0, 1, 2, or 3; and Q is one of the following: and/or tautomer, optical- or stereo-isomer thereof, or pharmaceutically acceptable salt thereof.
A biomaterial suitable for use as a drug eluting, Magnetic Resonance Imaging (MRI) detectable implant for vascular occlusion, wherein the biomaterial is in the form of microspheres and comprises: a copolymer comprising an acrylamide and at least one of the following: sodium acrylate, vinyl sulfonate, 2-acrylamido-2-methylpropane sulfonic acid (AMPS), or 2-carboxyethyl acrylate (CEA); an iron oxide particle; and a drug.
Storage device for ceramic products and the like, comprising at least one positioning station for at least two roller boxes arranged side by side, each of which comprising a plurality of superimposed planes for the insertion or extraction of ceramic product groups, said planes being defined by respective pluralities of parallel rollers , at least one station for conveying ceramic products towards, or from, said positioning station , at least one mobile roller conveyor , interposed between said positioning station and said conveying station , comprising at least one transfer plane of the type with motor-driven rollers and at least one support structure of said transfer plane provided with vertical translation means for selectively positioning said transfer plane at a height corresponding to any one of said planes of each one of said boxes , for the insertion or the extraction of a ceramic product group towards or from each one of said planes , wherein said mobile roller conveyor comprises means for the horizontal translation of said support structure along a first direction (A) parallel to the axes of said rollers , adapted to selectively position said support structure at each one of said boxes , and wherein said conveying station comprises at least one element for sorting ceramic product groups, positioned immediately adjacent to said mobile roller conveyor , adapted to translate along a second direction (B), parallel to said first direction (A), to position itself selectively towards each one of said roller boxes . at least one station for conveying ceramic products towards, or from, said positioning station , at least one mobile roller conveyor , interposed between said positioning station and said conveying station , comprising at least one transfer plane of the type with motor-driven rollers and at least one support structure of said transfer plane provided with vertical translation means for selectively positioning said transfer plane at a height corresponding to any one of said planes of each one of said boxes , for the insertion or the extraction of a ceramic product group towards or from each one of said planes , wherein said mobile roller conveyor comprises means for the horizontal translation of said support structure along a first direction (A) parallel to the axes of said rollers , adapted to selectively position said support structure at each one of said boxes , and wherein said conveying station comprises at least one element for sorting ceramic product groups, positioned immediately adjacent to said mobile roller conveyor , adapted to translate along a second direction (B), parallel to said first direction (A), to position itself selectively towards each one of said roller boxes .
Communication system comprising - at least one computing device , - at least one server device remotely arranged from the computing device and connectable to the computing device via a network , and - a mobile device , wherein - the computing device is configured to send a plurality of first requests to the server device at predeterminable time intervals, - the mobile device is configured to send a second request to the server device for establishing a communication connection with the computing device , - the server device is configured to send the received second request of the mobile device to the computing device in the form of a first response to one of the plurality of first requests of the computing device , - the computing device is configured to send a third request to the mobile device for establishing the communication connection with the mobile device upon receipt of the first response of the server device ; and - the mobile device is configured to send a second response to the third request of the computing device for establishing the communication connection to the computing device , such that a communication connection is established between the computing device and the mobile device . - at least one computing device , - at least one server device remotely arranged from the computing device and connectable to the computing device via a network , and - a mobile device , wherein - the computing device is configured to send a plurality of first requests to the server device at predeterminable time intervals, - the mobile device is configured to send a second request to the server device for establishing a communication connection with the computing device , - the server device is configured to send the received second request of the mobile device to the computing device in the form of a first response to one of the plurality of first requests of the computing device , - the computing device is configured to send a third request to the mobile device for establishing the communication connection with the mobile device upon receipt of the first response of the server device ; and - the mobile device is configured to send a second response to the third request of the computing device for establishing the communication connection to the computing device , such that a communication connection is established between the computing device and the mobile device .
A method operating at an adaptive bitrate, ABR, network node , the method comprising: computing encoding complexity metric, ECM, information associated with one or more ABR representations of a media asset, wherein the ECM information is related to a bitrate required for a piece of content to reach a particular video quality, wherein the ECM information is computed over applicable timing reference points of each ABR representation of the media asset, and wherein the one or more ABR representations each comprise a stream of segmented content of the media asset encoded at a particular bitrate; and providing the ECM information to a stream delivery server for facilitating at least one of segment delivery management and bandwidth management with respect to delivering the media asset to an ABR client device (114-1), wherein the ECM information is provided to the stream delivery server as one of: a complexity catalog file included within a manifest associated with streaming of the media asset, and a complexity catalog file that is separate from the manifest associated with streaming of the media asset, wherein the complexity catalog file comprises the ECM information for each segment across all bitrates or resolutions in a segment list identified in the manifest , wherein the stream delivery server uses the complexity catalog file to : effectuate streaming of the media asset on a segment-by-segment basis, and interoperate with a bandwidth control or management system in order to allocate bandwidth with respect to the delivery of the media asset to the ABR client device (114-1). computing encoding complexity metric, ECM, information associated with one or more ABR representations of a media asset, wherein the ECM information is related to a bitrate required for a piece of content to reach a particular video quality, wherein the ECM information is computed over applicable timing reference points of each ABR representation of the media asset, and wherein the one or more ABR representations each comprise a stream of segmented content of the media asset encoded at a particular bitrate; and providing the ECM information to a stream delivery server for facilitating at least one of segment delivery management and bandwidth management with respect to delivering the media asset to an ABR client device (114-1), wherein the ECM information is provided to the stream delivery server as one of: a complexity catalog file included within a manifest associated with streaming of the media asset, and a complexity catalog file that is separate from the manifest associated with streaming of the media asset, wherein the complexity catalog file comprises the ECM information for each segment across all bitrates or resolutions in a segment list identified in the manifest , wherein the stream delivery server uses the complexity catalog file to : effectuate streaming of the media asset on a segment-by-segment basis, and interoperate with a bandwidth control or management system in order to allocate bandwidth with respect to the delivery of the media asset to the ABR client device (114-1).
A pharmaceutical composition comprising (a), as the active ingredient, 0.2 to 5%, by weight of the composition, of rasagiline tartrate, (b) diluent, (c) lubricant and/or glidant and optionally (d) disintegrant and (e) binder, wherein the composition is prepared by direct compression, with the direct compression process comprising - mixing rasagiline tartrate and at least one excipient or a mixture of excipients to form a compression mixture; and - compressing the compression mixture to a solid dosage form, wherein the composition is free of antioxidants and acids selected from the group consisting of citric acid, tartaric acid, phosphoric acid, benzoic acid and maleic acid, and wherein the composition comprises a mixture of microcrystalline cellulose and modified starch as diluents and/or binder, wherein the modified starch has an average particle size from 10 um to 100 μm, wherein the average particle size refers to volume mean diameter determined by laser light scattering. - mixing rasagiline tartrate and at least one excipient or a mixture of excipients to form a compression mixture; and - compressing the compression mixture to a solid dosage form, wherein the composition is free of antioxidants and acids selected from the group consisting of citric acid, tartaric acid, phosphoric acid, benzoic acid and maleic acid, and wherein the composition comprises a mixture of microcrystalline cellulose and modified starch as diluents and/or binder, wherein the modified starch has an average particle size from 10 um to 100 μm, wherein the average particle size refers to volume mean diameter determined by laser light scattering.
A touch display panel comprising: a first touch electrode being a unitary electrode; a second touch electrode being opposite to the first touch electrode and comprises a plurality of second touch sub-electrodes ; and a detection unit configured to detecting a change in the capacitance values between the first touch electrode and each second touch sub-electrode of the second touch electrode and to determine a touch position as a function of the position(s) of the corresponding second touch sub-electrode(s) which produce(s) a changes in the capacitance values, wherein the detection unit is further configured to detect a magnitude of the change in the capacitance value between the first touch electrode and each second touch sub-electrode of the second touch electrode, and the touch display panel further comprises a control unit which is configured to determine the magnitude of the pressure applied to the touch display panel as a function of the magnitude(s) of the change(s) in the capacitance value(s) between the first touch electrode and the corresponding second touch sub-electrode(s) to control the touch display panel to perform different operations, and wherein the touch display panel further includes a pixel electrode provided in an insulating layer , wherein each of the second touch sub-electrodes is also used as a common electrode of the touch display panel and is provided on the insulating layer . a first touch electrode being a unitary electrode; a second touch electrode being opposite to the first touch electrode and comprises a plurality of second touch sub-electrodes ; and a detection unit configured to detecting a change in the capacitance values between the first touch electrode and each second touch sub-electrode of the second touch electrode and to determine a touch position as a function of the position(s) of the corresponding second touch sub-electrode(s) which produce(s) a changes in the capacitance values, wherein the detection unit is further configured to detect a magnitude of the change in the capacitance value between the first touch electrode and each second touch sub-electrode of the second touch electrode, and the touch display panel further comprises a control unit which is configured to determine the magnitude of the pressure applied to the touch display panel as a function of the magnitude(s) of the change(s) in the capacitance value(s) between the first touch electrode and the corresponding second touch sub-electrode(s) to control the touch display panel to perform different operations, and wherein the touch display panel further includes a pixel electrode provided in an insulating layer , wherein each of the second touch sub-electrodes is also used as a common electrode of the touch display panel and is provided on the insulating layer .
A hot-water supply unit , comprising: a heating mechanism configured to heat up heating medium; a tank configured to store water heated up by the heating medium; at least one water pipe connected with the tank, and configured to be a part of a water circuit for supplying water from the tank to a hot-water destination; a thermal insulator adhering to and substantially surrounding the tank; a main frame supporting the heating mechanism and the at least one water pipe to be at a position above the tank and the thermal insulator; and a housing accommodating the heating mechanism, the tank, the at least one water pipe, the thermal insulator and the main frame, characterized in that the housing has at least one side plate which is detachably attached to the main frame to be fixed only to the main frame among the thermal insulator and the main frame. a heating mechanism configured to heat up heating medium; a tank configured to store water heated up by the heating medium; at least one water pipe connected with the tank, and configured to be a part of a water circuit for supplying water from the tank to a hot-water destination; a thermal insulator adhering to and substantially surrounding the tank; a main frame supporting the heating mechanism and the at least one water pipe to be at a position above the tank and the thermal insulator; and a housing accommodating the heating mechanism, the tank, the at least one water pipe, the thermal insulator and the main frame, characterized in that the housing has at least one side plate which is detachably attached to the main frame to be fixed only to the main frame among the thermal insulator and the main frame.
Process for producing a polyalkenamer-containing composition, comprising the steps of: a) converting at least one cycloalkene by ring-opening metathetic polymerization to obtain a polyalkenamer-containing product mixture, and b) working up the product mixture to remove monomers and oligomers of the cycloalkenes to obtain the polyalkenamer-containing composition by extraction with CO 2 , whereby the polyalkenamers are polymers of cycloalkenes which comprise at least five cycloalkane monomer units, characterized in that the extraction comprises at least the consecutive stages: b0) an extraction with liquid CO 2 , then b1) an extraction with supercritical CO 2 , then b2) an extraction with gaseous CO 2 , then b0) an extraction with liquid CO 2 , and then b3) an extraction with supercritical CO 2 . a) converting at least one cycloalkene by ring-opening metathetic polymerization to obtain a polyalkenamer-containing product mixture, and b) working up the product mixture to remove monomers and oligomers of the cycloalkenes to obtain the polyalkenamer-containing composition by extraction with CO 2 , b0) an extraction with liquid CO 2 , then b1) an extraction with supercritical CO 2 , then b2) an extraction with gaseous CO 2 , then b0) an extraction with liquid CO 2 , and then b3) an extraction with supercritical CO 2 .