mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a thermodynamic circuit, wherein a multiple-substance mixture is used as the working medium which comprises at least the following components: - a first heat exchanger for producing a first heated or partially vaporized working medium flow by heating or partially vaporizing a liquid working medium flow by heat transfer from an expanded working medium flow; - a second heat exchanger for producing a second at least partially vaporized working medium flow by at least partially vaporizing or further vaporizing the first working medium flow with heat which is transferred from an external heat source; - a third heat exchanger for completely condensing the expanded working medium flow (12 or 12a); - a separator for separating a liquid phase from a vapor phase of the second working medium flow; - an expansion device, in particular a turbine, for expanding the vapor phase, converting its energy to a usable form, and producing an expanded vapor phase; - a combination point for producing the expanded working medium flow by combining the liquid phase and the expanded vapor phase; characterized in that, in order to start the circuit, - the vapor phase which has been separated by the separator bypasses the expansion device and the first heat exchanger, - the liquid phase which has been separated by the separator is supplied via the combination point to the first heat exchanger, where it is cooled down by heat transfer to the liquid working medium flow, and - after the first heat exchanger, the cooled-down separated liquid phase and the separated vapor phase are combined to form a cooled-down working medium flow. - a first heat exchanger for producing a first heated or partially vaporized working medium flow by heating or partially vaporizing a liquid working medium flow by heat transfer from an expanded working medium flow; - a second heat exchanger for producing a second at least partially vaporized working medium flow by at least partially vaporizing or further vaporizing the first working medium flow with heat which is transferred from an external heat source; - a third heat exchanger for completely condensing the expanded working medium flow (12 or 12a); - a separator for separating a liquid phase from a vapor phase of the second working medium flow; - an expansion device, in particular a turbine, for expanding the vapor phase, converting its energy to a usable form, and producing an expanded vapor phase; - a combination point for producing the expanded working medium flow by combining the liquid phase and the expanded vapor phase; - the vapor phase which has been separated by the separator bypasses the expansion device and the first heat exchanger, - the liquid phase which has been separated by the separator is supplied via the combination point to the first heat exchanger, where it is cooled down by heat transfer to the liquid working medium flow, and - after the first heat exchanger, the cooled-down separated liquid phase and the separated vapor phase are combined to form a cooled-down working medium flow.
A method for obtaining a substrate layer for a release liner comprising nanofibrillar cellulose, the method comprising: - providing a cellulose based support layer, - providing an organic compound comprising a first moiety and a second moiety connected by an acetal by arranging an acetalisation reaction between nanofibrillar cellulose and an organic fragment, and - applying the organic compound on a surface of the cellulose based support layer, wherein after the acetalisation reaction the first moiety comprises the nanofibrillar cellulose obtained from a primary cellulose having functional hydroxyl groups and the second moiety comprises the organic fragment, the organic fragment comprising at least one functional vinylic group. - providing a cellulose based support layer, - providing an organic compound comprising a first moiety and a second moiety connected by an acetal by arranging an acetalisation reaction between nanofibrillar cellulose and an organic fragment, and - applying the organic compound on a surface of the cellulose based support layer,
A method for processing data from an information storage medium, the method comprising: reading audio-visual data and metadata from the information storage medium; and conducting a scene search of the AV data per scene in the metadata, using at least one user input search keyword, to find scenes having search keyword information matching the at least one user input search keyword, by matching search keyword information of the scenes against information regarding the at least one user input search keyword, wherein the playlist is a reproduction unit of the AV data, wherein the metadata comprises the search keyword information as defined by an author for each of the scenes of the AV data, and an entry point for each of the scenes in at least one playlist, and wherein the reading step includes reading the metadata from at least one metadata file which is written in a markup language and recorded in a separate directory from the AV data, each of the at least one metadata file corresponding to one of the at least one playlist and having a filename comprising identification information of the corresponding playlist, and wherein, in the metadata, for each scene, the entry point is used to indicate a start point of the scene in a playlist on a global time axis, and wherein, when the AV data is multi-angle data, the metadata further comprises an angle number of an angle supported by each scene and, wherein, when in the conducted scene search step, found scenes overlap each other, the found scenes are distinguished by the angle number. reading audio-visual data and metadata from the information storage medium; and conducting a scene search of the AV data per scene in the metadata, using at least one user input search keyword, to find scenes having search keyword information matching the at least one user input search keyword, by matching search keyword information of the scenes against information regarding the at least one user input search keyword, wherein the playlist is a reproduction unit of the AV data, wherein the metadata comprises the search keyword information as defined by an author for each of the scenes of the AV data, and an entry point for each of the scenes in at least one playlist, and wherein the reading step includes reading the metadata from at least one metadata file which is written in a markup language and recorded in a separate directory from the AV data, each of the at least one metadata file corresponding to one of the at least one playlist and having a filename comprising identification information of the corresponding playlist, and wherein, in the metadata, for each scene, the entry point is used to indicate a start point of the scene in a playlist on a global time axis, and wherein, when the AV data is multi-angle data, the metadata further comprises an angle number of an angle supported by each scene and,
Method for producing a silicon carbide-containing body, characterized in that the method comprises the process steps: a) providing a mixture with a silicon source and a carbon source, wherein the silicon source and the carbon source are present together in particles of a solid granular material and wherein the silicon source is pure silicon or silicon dioxide and the carbon source is pure carbon; b) disposing a layer of the mixture provided in process step a) on a carrier, wherein the layer of the mixture has a predefined thickness; and c) locally limited treating the mixture disposed in process step b) at a temperature in a range from ≥ 1400°C to ≤ 2000°C according to a predetermined spatial pattern, wherein the predetermined spatial pattern is selected based on the spatial configuration of the body to be produced and wherein silicon carbide is produced by a rection of the carbon source and the silicon source. a) providing a mixture with a silicon source and a carbon source, wherein the silicon source and the carbon source are present together in particles of a solid granular material and wherein the silicon source is pure silicon or silicon dioxide and the carbon source is pure carbon; b) disposing a layer of the mixture provided in process step a) on a carrier, wherein the layer of the mixture has a predefined thickness; and c) locally limited treating the mixture disposed in process step b) at a temperature in a range from ≥ 1400°C to ≤ 2000°C according to a predetermined spatial pattern, wherein the predetermined spatial pattern is selected based on the spatial configuration of the body to be produced and wherein silicon carbide is produced by a rection of the carbon source and the silicon source.
Method for determining the states of charge of battery cells or battery modules of a battery using a plurality of cell monitoring units (16, 32) and a controller that has a high-voltage side and a low-voltage side, the method being controlled by the low-voltage side of the controller, each cell monitoring unit (16, 32) monitoring multiple instances of the battery cells or at least one battery module, having the steps of: the battery current being globally ascertained by means of a shunt by a high-voltage-side microcontroller, the battery current on the high-voltage side of the controller being sensed by the low-voltage side, the globally ascertained current value being transmitted into the plurality of cell monitoring units (16, 32) by the low-voltage side, a respective voltage of the battery cells or battery modules being measured by the cell monitoring units (16, 32) in view of the transmitted, globally ascertained current value, a state of charge being ascertained by each of the cell monitoring units (16, 32) for the respective monitored battery cells or the respective at least one battery module in response to the transmitted current value, the ascertained states of charge being returned in response to the transmitted current value from the cell monitoring units (16, 32) to the low-voltage side of the controller. the battery current being globally ascertained by means of a shunt by a high-voltage-side microcontroller, the battery current on the high-voltage side of the controller being sensed by the low-voltage side, the globally ascertained current value being transmitted into the plurality of cell monitoring units (16, 32) by the low-voltage side, a respective voltage of the battery cells or battery modules being measured by the cell monitoring units (16, 32) in view of the transmitted, globally ascertained current value, a state of charge being ascertained by each of the cell monitoring units (16, 32) for the respective monitored battery cells or the respective at least one battery module in response to the transmitted current value, the ascertained states of charge being returned in response to the transmitted current value from the cell monitoring units (16, 32) to the low-voltage side of the controller.
A method for determining whether or not a test sample contains a phytopathogenic oomycete, the method comprising: (a) putting the test sample on a front surface of a cellulose film; wherein the cellulose film has a thickness of not less than 0.5 micrometers and not more than 3.7 micrometers; (b) leaving the test sample at rest for not less than 4 hours and not more than 8 hours after the step (a); (c) observing a back surface of the film after the step (b); and (d) determining that the test sample contains the phytopathogenic oomycete, if an oomycete is found on the back surface of the film in the step (c). (a) putting the test sample on a front surface of a cellulose film; wherein the cellulose film has a thickness of not less than 0.5 micrometers and not more than 3.7 micrometers; (b) leaving the test sample at rest for not less than 4 hours and not more than 8 hours after the step (a); (c) observing a back surface of the film after the step (b); and (d) determining that the test sample contains the phytopathogenic oomycete, if an oomycete is found on the back surface of the film in the step (c).
A door strike including: a latch retainer for retaining a door latch; a lug associated with the latch retainer; a lock actuator which operates when power is applied; and a mode selector having at least two positions such that in a first position thereof, the strike is in a power to open mode, and in a second position thereof, the strike is in a power to lock mode, the mode selector including at least two recesses (28, 29) which cooperate with the lug associated with the latch retainer to allow rotation thereof, the mode selector including at least two grooves (30, 32) which dictate the at least two positions thereof; characterized in that the mode selector is rotatably mounted within a housing and is configured to be rotatable between the at least two positions to provide either power to lock or power to open modes of operation and the selection of the mode corresponds to a rotation of the mode selector. a latch retainer for retaining a door latch; a lug associated with the latch retainer; a lock actuator which operates when power is applied; and a mode selector having at least two positions such that in a first position thereof, the strike is in a power to open mode, and in a second position thereof, the strike is in a power to lock mode, the mode selector including at least two recesses (28, 29) which cooperate with the lug associated with the latch retainer to allow rotation thereof, the mode selector including at least two grooves (30, 32) which dictate the at least two positions thereof; characterized in that the mode selector is rotatably mounted within a housing and is configured to be rotatable between the at least two positions to provide either power to lock or power to open modes of operation and the selection of the mode corresponds to a rotation of the mode selector.
A process for producing a coated powder, comprising coating nanoparticles with a polymer, by polymerizing a composition comprising (i) the nanoparticles, (ii) a first alkoxy silane selected from the group consisting of a tetra-alkoxy silane, a poly(tetra-alkoxy silane), and mixtures thereof, (iii) an organo alkoxysilane selected from the group consisting of mono-organo alkoxysilane, bi-organo alkoxysilane, tri-organo alkoxysilane, and mixtures thereof, and (iv) a second alkoxy silane selected from the group consisting of a poly(dialkyl)siloxane, and mixtures thereof. (i) the nanoparticles, (ii) a first alkoxy silane selected from the group consisting of a tetra-alkoxy silane, a poly(tetra-alkoxy silane), and mixtures thereof, (iii) an organo alkoxysilane selected from the group consisting of mono-organo alkoxysilane, bi-organo alkoxysilane, tri-organo alkoxysilane, and mixtures thereof, and (iv) a second alkoxy silane selected from the group consisting of a poly(dialkyl)siloxane, and mixtures thereof.
A force-measuring device for integrating measurement of at least three centrally acting radial forces (F R), especially for radial presses or collet chucks, comprising an expander element arrangement concentric with an axis of measurement and comprising at least one expander element and at least three thrust members spaced apart from one another in circumferential direction, wherein two spreader members are joined to the ends of the at least one expander element (2, 19), - a transmission member being fixed on a first of the two spreader members, and - a measuring sensor acting between the second of the two spreader members and the transmission member, characterized in that - the thrust members are braced via thrust chamfers against corresponding sliding chamfers of the spreader members, - a transmission member being fixed on a first of the two spreader members, and - a measuring sensor acting between the second of the two spreader members and the transmission member, characterized in that - the thrust members are braced via thrust chamfers against corresponding sliding chamfers of the spreader members,
A nitropyridinyl ethyleneimine compound as shown in the formula I or a pharmaceutically acceptable salt thereof: Wherein Y is -NHCOR, CONRCO 2 R 2, CONR-morpholine, CONHR, CONRR 2, CONHOR 2, CONHSO 2 R, SO 2 NH 2 -, SO 2 NHR- or SO 2 NRR 2, in which said R and R 2 represent independently from each other H, hydroxyl, or a C 1-6 lower alkyl group which is optionally substituted with one or more hydroxyl groups and/or one or more amino groups; Said pharmaceutically acceptable salt thereof is a salt resulted from addition with an acid or with an alkali, wherein said acid is selected from the group consisting of hydrogen chloride, sulphuric acid, phosphoric acid, acetic acid, citric acid, oxalic acid, malonic acid, salicylic acid, malic acid, fumaric acid, succinic acid, ascorbic acid, maleic acid, methane sulfonic acid or isethionic acid; said alkali is selected from the group consisting of sodium carbonate, potassium carbonate, sodium hydroxide, potassium hydroxide, ammonia, triethylamine or triethanolamine.
A method for repairing a bundled tube fuel injector, comprising: removing a portion of a pre-mix tube aligning a tube tip with the pre-mix tube; and fixedly connecting the tube tip to the pre-mix tube characterised in that the step of removing the portion of the pre-mix tube comprises cutting away at least a portion of an aft plate that surrounds the pre-mix tube. removing a portion of a pre-mix tube aligning a tube tip with the pre-mix tube; and fixedly connecting the tube tip to the pre-mix tube
An agricultural soil roller having a roller body that comprises a plurality of roll-off bodies arranged next to one another, wherein the roll-off bodies each comprise a plurality of arcuate hoop segments that together form the roll-off surface of the respective roll-off body, wherein the two ends of the hoop segments are each rigidly fastened and are supported at both sides, characterized in that at least some of the hoop segments have outer peripheral surfaces inclined transversely to the direction of travel so that the hoop segments each taper toward an end of the roller body, with different roller bodies having differently oriented hoop segments that are formed inclined toward different sides; and with a group of roll-off bodies of the roller body being tapered toward the right side, viewed in the direction of travel, and another group of roll-off bodies being tapered toward the oppositely disposed left side.
A lamp socket (30; 130; 230; 430; 630) comprising: a socket body (31; 131; 231; 431; 631) having a connecting hole (32; 132; 232; 432; 632) formed through the socket body (31; 131; 231; 431; 631), the connecting hole (32; 132; 232; 432; 632) being opened; a power supplying member (40; 140; 640) disposed in the connecting hole (32; 132; 232; 432; 632) and having an electrode supporting terminal (41; 141; 241; 441; 641) having a supporting groove formed at an upper portion of the electrode supporting terminal (41; 141; 241; 441; 641), to support an electrode portion (22; 122; 222; 422; 622) of a lamp disposed in the power supplying member (40; 140; 640); and a socket cover (50; 150; 250; 450; 650) insertable into the connecting hole (32; 132; 232; 432; 632) to be separably combined with the socket body (31; 131; 231; 431; 631), characterized in that the socket cover(50; 150; 250; 450; 650) comprises an electrode fixing member (60; 160; 260; 451; 660) making contact with the electrode portion (22; 122; 222; 422; 622) of the lamp to fix the electrode portion (22; 122; 222; 422; 622) of the lamp. a socket body (31; 131; 231; 431; 631) having a connecting hole (32; 132; 232; 432; 632) formed through the socket body (31; 131; 231; 431; 631), the connecting hole (32; 132; 232; 432; 632) being opened; a power supplying member (40; 140; 640) disposed in the connecting hole (32; 132; 232; 432; 632) and having an electrode supporting terminal (41; 141; 241; 441; 641) having a supporting groove formed at an upper portion of the electrode supporting terminal (41; 141; 241; 441; 641), to support an electrode portion (22; 122; 222; 422; 622) of a lamp disposed in the power supplying member (40; 140; 640); and a socket cover (50; 150; 250; 450; 650) insertable into the connecting hole (32; 132; 232; 432; 632) to be separably combined with the socket body (31; 131; 231; 431; 631), characterized in that the socket cover(50; 150; 250; 450; 650) comprises an electrode fixing member (60; 160; 260; 451; 660) making contact with the electrode portion (22; 122; 222; 422; 622) of the lamp to fix the electrode portion (22; 122; 222; 422; 622) of the lamp.
An inert anode electrolytic cell, comprising: - two or more groups of inert anodes configured to deliver an electric current to an electrolytic bath in liquid contact with the two or more anodes, said one or more anodes comprising a metal oxide; - a first anode distributor plate electrically connected to a first group of inert anodes configured to distribute the electrical current to the first group of inert anodes; - a first voltage probe configured to detect a voltage drop associated with the first anode distributor plate and transmit a corresponding first voltage drop signal; - a second anode distributor plate electrically connected to a second group of inert anodes configured to distribute the electrical current to the second group of inert anodes; - a second voltage probe configured to detect a voltage drop associated with the second anode distributor plate and transmit a corresponding second voltage drop signal; - a monitoring device configured to receive the first and second voltage drop signals and configured to generate a thermite response signal if one of the first or second voltage drop signal meets or exceeds a threshold voltage drop; and - a pot control system configured to receive the thermite response signal and configured to adjust operation parameters of the electrolytic cell according to the thermite response signal, wherein the monitoring device generates the thermite response signal if, when compared to the threshold voltage drop, one or more of the first and second voltage drop signals voltage drop indicates a sudden rise of voltage drop across the first or second anode distributor plate. - two or more groups of inert anodes configured to deliver an electric current to an electrolytic bath in liquid contact with the two or more anodes, said one or more anodes comprising a metal oxide; - a first anode distributor plate electrically connected to a first group of inert anodes configured to distribute the electrical current to the first group of inert anodes; - a first voltage probe configured to detect a voltage drop associated with the first anode distributor plate and transmit a corresponding first voltage drop signal; - a second anode distributor plate electrically connected to a second group of inert anodes configured to distribute the electrical current to the second group of inert anodes; - a second voltage probe configured to detect a voltage drop associated with the second anode distributor plate and transmit a corresponding second voltage drop signal; - a monitoring device configured to receive the first and second voltage drop signals and configured to generate a thermite response signal if one of the first or second voltage drop signal meets or exceeds a threshold voltage drop; and - a pot control system configured to receive the thermite response signal and configured to adjust operation parameters of the electrolytic cell according to the thermite response signal,