mhurhangee/ep-ind-claims huggingface dataset:
A display method for displaying a schedule screen which indicates an execution reservation state of a plurality of JOBs on a display section, characterised by: displaying information concerning two or more of the JOBs as JOB images by superimposing the JOB images in a same area on the schedule screen, according to a display scale condition of the schedule screen; and displaying, in cases where information relating to a JOB required to be recognized by a user exists in the superimposed JOB images, a JOB image of a JOB to which the information required to be recognized by the user relates on top of a JOB image of another of said plurality of JOBs, so that the JOB image of the JOB to which the information is required to be recognized by the user is visible. displaying information concerning two or more of the JOBs as JOB images by superimposing the JOB images in a same area on the schedule screen, according to a display scale condition of the schedule screen; and displaying, in cases where information relating to a JOB required to be recognized by a user exists in the superimposed JOB images, a JOB image of a JOB to which the information required to be recognized by the user relates on top of a JOB image of another of said plurality of JOBs, so that the JOB image of the JOB to which the information is required to be recognized by the user is visible.
A razor having a handle, a cutting unit and a coupling portion (04, 12) for attaching the cutting unit to the handle, wherein the cutting unit comprises a blade unit having one or more blades, wherein the blade unit is pivotable about a pivot axis extending parallel to the longitudinal extent of the blades, wherein the coupling portion comprises a receiver and a bar which is rotatably mounted therein, wherein the rotational axis of the rotary bearing formed between the receiver and the bar extends substantially perpendicular to the pivot axis of the blade unit and substantially parallel to the longitudinal axis of the bar and wherein the rotary bearing permits a rotation of the cutting unit relative to the handle, characterised in that the coupling portion (04, 12) serves for the releasable attachment of the cutting unit to the handle and in that the receiver comprises at least one spring element which urges the bar into a resting position, wherein the bar is rotatable from this resting position in both directions relative to the receiver, in each case by a rotational angle of at least 1° and at most 10°.
A transmission device of a disc brake, consisting of a first pressure piece in the form of a semi-cylindrical surface and a rotary lever having an extended lever arm, an also semi-cylindrical second pressure piece and a roller bearing for the mutual support of said two pressure pieces (20, 21), wherein inner and outer roller surfaces (31, 32) are provided, which are arcuately curved and located radially opposite each other with rolling elements interposed therebetween, on which rolling surfaces the rolling elements roll off, wherein one rolling surface is the semi-cylindrical surface of the rotary lever, wherein the rolling elements are combined either individually or in groups in a rolling bearing cage arranged so as to be movable relative to the pressure pieces (20, 21), characterised by a sliding guide element which - is provided on the rotary lever, - is provided with holding elements (38, 39) for detachably fixing it to the rotary lever, - directly or indirectly guides the rolling bearing cage in the circumferential direction and overlaps it from the outside. - is provided on the rotary lever, - is provided with holding elements (38, 39) for detachably fixing it to the rotary lever, - directly or indirectly guides the rolling bearing cage in the circumferential direction and overlaps it from the outside.
A method for manufacturing a silicon carbide semiconductor device, the method comprising the steps in the following order: a conductive layer forming step where a conductive layer made of nickel is formed on a silicon carbide layer; a heat treatment step where the silicon carbide layer and the conductive layer are made to react with each other thus forming a reaction layer by diffusion of nickel contained in the conductive layer which is in contact with the silicon carbide layer and a silicide layer which is present on the reaction layer; a first plasma ashing step where a carbon component which the silicide layer contains is removed wherein a nickel oxide layer is formed on the surface of the silicide layer; an etching step where at least a portion of the silicide layer is removed using an acid thus exposing at least a portion of a surface of the reaction layer; a second plasma ashing step where a carbon component which remains on the reaction layer is removed and a conductive oxidation layer which is in contact with the reaction layer is formed on the reaction layer; wherein a thickness of the conductive oxidation layer falls within a range of 0.3 nm to 2.25 nm; and an electrode layer forming step where an electrode layer is formed over the exposed reaction layer with the conductive oxidation layer interposed therebetween. a conductive layer forming step where a conductive layer made of nickel is formed on a silicon carbide layer; a heat treatment step where the silicon carbide layer and the conductive layer are made to react with each other thus forming a reaction layer by diffusion of nickel contained in the conductive layer which is in contact with the silicon carbide layer and a silicide layer which is present on the reaction layer; a first plasma ashing step where a carbon component which the silicide layer contains is removed wherein a nickel oxide layer is formed on the surface of the silicide layer; an etching step where at least a portion of the silicide layer is removed using an acid thus exposing at least a portion of a surface of the reaction layer; a second plasma ashing step where a carbon component which remains on the reaction layer is removed and a conductive oxidation layer which is in contact with the reaction layer is formed on the reaction layer; wherein a thickness of the conductive oxidation layer falls within a range of 0.3 nm to 2.25 nm; and an electrode layer forming step where an electrode layer is formed over the exposed reaction layer with the conductive oxidation layer interposed therebetween.
A computer implemented system configured for controlling and monitoring a pump, the system comprising - a pump system comprising at least one pump, at least one sensor configured for providing an operating state data signal representative of a mechanical, fluidicly, electrical operating state and/or other system data of the at least one pump and/or pump system and a control module controlling the mechanical, fluidicly and/or operating state of the at least one pump in response to a received control signal; - a digital twin module comprising a data processing API and an IoT database, said digital twin module being configured for retrieving said operating state data signal and store the data in the IoT database, and being configured to communicate with a chatbot agent, wherein the digital twin module comprising a dynamic model representing the pump system, - the chatbot agent configured for being in data communication with the API of the digital twin module, a user and the pump system, and configured to upon a request from a user: - providing an actual or historical operating state of the at least one pump by use of the API of the digital twin module extracting from said information from said IoT database, and - transmitting a control signal, typically representative of a parameter, to the pump system to set the at least one pump at a requested mechanical and/or electrical operating state. - a pump system comprising at least one pump, at least one sensor configured for providing an operating state data signal representative of a mechanical, fluidicly, electrical operating state and/or other system data of the at least one pump and/or pump system and a control module controlling the mechanical, fluidicly and/or operating state of the at least one pump in response to a received control signal; - a digital twin module comprising a data processing API and an IoT database, said digital twin module being configured for retrieving said operating state data signal and store the data in the IoT database, and being configured to communicate with a chatbot agent, wherein the digital twin module comprising a dynamic model representing the pump system, - the chatbot agent configured for being in data communication with the API of the digital twin module, a user and the pump system, and configured to upon a request from a user: - providing an actual or historical operating state of the at least one pump by use of the API of the digital twin module extracting from said information from said IoT database, and - transmitting a control signal, typically representative of a parameter, to the pump system to set the at least one pump at a requested mechanical and/or electrical operating state. - providing an actual or historical operating state of the at least one pump by use of the API of the digital twin module extracting from said information from said IoT database, and - transmitting a control signal, typically representative of a parameter, to the pump system to set the at least one pump at a requested mechanical and/or electrical operating state.
Procedure for the operation of a pressure sensor, wherein the pressure sensor has a process isolating diaphragm, at least one counter body and a capacitive converter with at least a first pressure-dependent capacitance and a second pressure-dependent capacitance, wherein the process isolating diaphragm divides a volume in a pressure-tight manner into a first partial volume and a second partial volume, wherein the second partial volume is enclosed in a measuring chamber between the process isolating diaphragm and the counter body, wherein a deflection of the process isolating diaphragm depends on a pressure measured variable p, which constitutes a difference between the first pressure p 1 in the first partial volume and a second pressure p 2 in the second partial volume in the measuring chamber, wherein the first capacitance and the second capacitance are measured in each case between an electrode on the process isolating diaphragm and a counter electrode (8, 9) with a position that is essentially independent of the pressure, wherein a current value of the pressure measured variable p is determined depending on the first capacitance and the second capacitance, wherein, for an intact pressure sensor in thermal equilibrium, the second capacitance can be represented as a predefined function of the first capacitance and, where applicable, of the temperature, wherein said procedure comprises the following steps: Recording of value pairs of the first capacitance and the second capacitance, Checking whether the recorded value pairs of the first capacitance and the second capacitance actually correspond to the correlation of the predefined function within a predefined tolerance range, Determination of a change in and/or damage to a sensor if this is not the case for a period that lasts longer than a time limit value, characterized in that the time limit value is a function of the deviation of the values of the first capacitance and second capacitance from the correlation of the function. Recording of value pairs of the first capacitance and the second capacitance, Checking whether the recorded value pairs of the first capacitance and the second capacitance actually correspond to the correlation of the predefined function within a predefined tolerance range, Determination of a change in and/or damage to a sensor if this is not the case for a period that lasts longer than a time limit value, characterized in that the time limit value is a function of the deviation of the values of the first capacitance and second capacitance from the correlation of the function.
A process to produce IPP (Ile-Pro-Pro) from GMP (glycomacropeptide from kappa casein) comprising first incubating GMP with an aminopeptidase and subsequently incubating with a proline specific protease.
Section (10;20), particularly individually manageable, intended for partition walls built up from sections and plates, which section comprises a bottom wall (12;22), wherein the bottom wall is provided with a first tape adhered thereto by a layer of adhesive, particularly a high tack acrylic glue, wherein at a main side facing away from the bottom wall and extending substantially parallel to the bottom wall the first tape is provided with a layer of adhesive, particularly a high tack acrylic glue, for adhesion to a permanent construction part, such as a ceiling or floor, characterised in that in a margin (12b;22b), adjacent to the first tape, the bottom wall of the section is provided with a second tape with a layer of material having fire-resistant properties, and preferably also in a margin (12b;22b) that is situated at the other side of the first tape than the second tape is provided with a third tape with a layer of material having fire-resistant properties.
A liquid composition for treating plant propagation material comprising water, an effective amount of active ingredients containing at least one fungicide and at least one insecticide, and a blend of the following components, by weight: a. 0.05-20% at least one wetting agent; b. 0.05-10% at least one dispersing agent; c. 0.05-5% at least one drying agent selected from one or more of metal oxides or polymer waxes; d. 0.01-20% at least one suberization agent selected from starch, alkyl triol, alkyl diol, phenolic polymer, aliphatic polymer, carboxylic acid, and dicarboxylic acid; e. 0-20% antifreeze; and optionally f. 0-20% solvent wherein the composition dries within 90 minutes of application to the plant propagation material. a. 0.05-20% at least one wetting agent; b. 0.05-10% at least one dispersing agent; c. 0.05-5% at least one drying agent selected from one or more of metal oxides or polymer waxes; d. 0.01-20% at least one suberization agent selected from starch, alkyl triol, alkyl diol, phenolic polymer, aliphatic polymer, carboxylic acid, and dicarboxylic acid; e. 0-20% antifreeze; and optionally f. 0-20% solvent
Printing system (1; 100; 200), comprising: - a first bearing support (31; 131; 231) arranged for rotatably supporting a first media roll of a first print medium; - a second bearing support (32; 132; 232) arranged for rotatably supporting a second media roll of a second print medium, said first and second bearing supports (31, 32; 131, 132; 231, 232) being spaced apart from one another; - a first print transport path (P1; P1'; P1") extending from the first bearing support (31; 131; 231) for transporting the first print medium from the first media roll to a main transport path (MP; MP'; MP") of the printing system (1; 100; 200); - a second print transport path (P2; P2'; P2") extending from the second bearing support (32; 132; 232) for transporting the second print medium from the second media roll to the main transport path (MP; MP'; MP") of the printing system (1; 100; 200), wherein the first transport path (P1; P1'; P1") bypasses the second transport path (P2; P2'; P2") and the second media roll; and - an attachment transport path (AP; AP; AP") extending between the first and the second bearing supports (31, 32; 131, 132; 231, 232) and spaced apart from the first transport path (P1; P1'; P1"). - a first bearing support (31; 131; 231) arranged for rotatably supporting a first media roll of a first print medium; - a second bearing support (32; 132; 232) arranged for rotatably supporting a second media roll of a second print medium, said first and second bearing supports (31, 32; 131, 132; 231, 232) being spaced apart from one another; - a first print transport path (P1; P1'; P1") extending from the first bearing support (31; 131; 231) for transporting the first print medium from the first media roll to a main transport path (MP; MP'; MP") of the printing system (1; 100; 200); - a second print transport path (P2; P2'; P2") extending from the second bearing support (32; 132; 232) for transporting the second print medium from the second media roll to the main transport path (MP; MP'; MP") of the printing system (1; 100; 200), wherein the first transport path (P1; P1'; P1") bypasses the second transport path (P2; P2'; P2") and the second media roll; and - an attachment transport path (AP; AP; AP") extending between the first and the second bearing supports (31, 32; 131, 132; 231, 232) and spaced apart from the first transport path (P1; P1'; P1").
A compound of formula: and/or a pharmaceutically acceptable salt thereof, wherein: Z 1 is N; Z 2 is C; a moiety is R 1 is selected from C 1-6 alkyl, C 2-6 alkenyl and C 3-10 cycloalkyl, wherein C 1-6 alkyl, C 2-6 alkenyl and C 3-10 cycloalkyl are each unsubstituted or substituted with at least one substituent independently selected from halogen and OR a; R 2 and R 5 are independently (CH 2) m -Q, wherein Q is aryl, wherein aryl is unsubstituted or substituted with at least one substituent independently selected from R 8; R 3 is C 1-6 alkyl; R 4 is halogen; R 6 is hydrogen; each R 8 is independently selected from: halogen, N(R a)C(=O)R b, and N(R a)S(=O) 2 R b, each R a is independently selected from hydrogen and C 1-6 alkyl; each R b is independently selected from: C 1-6 alkyl, and C 3-8 cycloalkyl, or R a and R b together with the carbon atoms and/or heteroatoms to which they are attached can form a 4-10 membered ring containing 0, 1, 2 or 3 heteroatoms independently selected from sulfur and nitrogen; and m is 0. Z 1 is N; Z 2 is C; a moiety is R 1 is selected from C 1-6 alkyl, C 2-6 alkenyl and C 3-10 cycloalkyl, wherein C 1-6 alkyl, C 2-6 alkenyl and C 3-10 cycloalkyl are each unsubstituted or substituted with at least one substituent independently selected from halogen and OR a; R 2 and R 5 are independently (CH 2) m -Q, wherein Q is aryl, wherein aryl is unsubstituted or substituted with at least one substituent independently selected from R 8; R 3 is C 1-6 alkyl; R 4 is halogen; R 6 is hydrogen; each R 8 is independently selected from: halogen, N(R a)C(=O)R b, and N(R a)S(=O) 2 R b, halogen, N(R a)C(=O)R b, and N(R a)S(=O) 2 R b, each R a is independently selected from hydrogen and C 1-6 alkyl; each R b is independently selected from: C 1-6 alkyl, and C 3-8 cycloalkyl, C 1-6 alkyl, and C 3-8 cycloalkyl, or R a and R b together with the carbon atoms and/or heteroatoms to which they are attached can form a 4-10 membered ring containing 0, 1, 2 or 3 heteroatoms independently selected from sulfur and nitrogen; and m is 0.
A method for determining conjugated bilirubin in a blood-derived sample of a subject, said method comprising a) determining a value of thrombin time in said sample; b) comparing the value of thrombin time determined in a) to a value of thrombin time determined in at least one reference sample; and c) based on the result of comparison step b), determining conjugated bilirubin in a blood-derived sample of a subject, wherein step a) is determining a value of thrombin time in said sample with a photo-optical assay. a) determining a value of thrombin time in said sample; b) comparing the value of thrombin time determined in a) to a value of thrombin time determined in at least one reference sample; and c) based on the result of comparison step b), determining conjugated bilirubin in a blood-derived sample of a subject,
A composition for use in ameliorating joint pain in a subject by promoting cartilage regeneration comprising, as an active ingredient, lactic acid bacteria, wherein the lactic acid bacteria are Lactobacillus gasseri strain CP2305 (Accession Number: FERM BP-11331), or Lactobacillus gasseri strain CP2305s (Accession Number: NITE BP-1405), and/or a treated product thereof; wherein the treated product thereof comprises disrupted cells or cell-free extract of the lactic acid bacteria; and wherein the subject suffers from arthritis or is in their 40s or older and has cartilage wear due to ageing.
A heat integrated distillation apparatus comprising: a rectifying column including a trayed section or a packed bed section, which is used as a rectifying section; a stripping column located above seen from said rectifying column and including a trayed section or a packed bed section, which is used as a stripping section; a first pipe that connects a column top of said stripping column with a column bottom of said rectifying column; a compressor installed in said first pipe and configured to compress vapor from the column top of said stripping column and then feed the compressed vapor to the column bottom of said rectifying column; a liquid sump unit located at a predetermined stage of said stripping column and configured to hold liquid that has flowed downward; a heat exchanger located in said liquid sump unit of said stripping column; a second pipe that introduces vapour in said rectifying column to said heat exchanger of said stripping column; and a third pipe that introduces a first flow of fluids flowing out from said heat exchanger of said stripping column to said rectifying column, characterized in that it further comprises monitoring means that monitors whether or not an inside of an end portion of said third pipe inserted into said rectifying column is sealed with liquid, wherein when said monitoring means detects that the inside of the end portion is not sealed with the liquid, said first flow is switched to a second flow connected to a downstream side of said third pipe and having lower pressure than pressure in said rectifying column. a rectifying column including a trayed section or a packed bed section, which is used as a rectifying section; a stripping column located above seen from said rectifying column and including a trayed section or a packed bed section, which is used as a stripping section; a first pipe that connects a column top of said stripping column with a column bottom of said rectifying column; a compressor installed in said first pipe and configured to compress vapor from the column top of said stripping column and then feed the compressed vapor to the column bottom of said rectifying column; a liquid sump unit located at a predetermined stage of said stripping column and configured to hold liquid that has flowed downward; a heat exchanger located in said liquid sump unit of said stripping column; a second pipe that introduces vapour in said rectifying column to said heat exchanger of said stripping column; and a third pipe that introduces a first flow of fluids flowing out from said heat exchanger of said stripping column to said rectifying column, wherein when said monitoring means detects that the inside of the end portion is not sealed with the liquid, said first flow is switched to a second flow connected to a downstream side of said third pipe and having lower pressure than pressure in said rectifying column.
A protective device for equipment which emits electromagnetic waves, comprising a main body and spacer means fixed to the main body, designed to keep the equipment away from parts of the body of a user during use, the main body comprising a closed surface, designed to surround the equipment in the operating condition and the spacer means comprising at least one isolating projection, designed to reduce the absorption of radiation and heat by the user, characterised in that an acoustic cone is provided in the central zone of said isolating projection, said acoustic cone having the base towards the user for amplifying the sounds received.