mhurhangee/patent-ind-claim-en huggingface dataset:
Method for calibration of working depth of an agricultural implement for distributing granular material to the ground over which the agricultural implement is travelling, the agricultural implement having an output unit comprising a ground-engaging tool for forming a furrow, a gauge wheel , and at least one actuator for controlling the position of the gauge wheel relative to the tool , wherein the method comprises: placing the agricultural implement on a ground surface that is level and sufficiently hard for the tool not to penetrate into the ground surface, wherein a load from the output unit bears on one of the tool and the gauge wheel , using the actuator to transfer the load to the other one of the tool and the gauge wheel , recording a first parameter of the actuator while the load is being transferred, which first parameter indicates a force on the actuator , recording a second parameter for the gauge wheel in relation to the tool while the load is being transferred, which second parameter indicates a relative vertical position between the gauge wheel and the tool , identifying a change of the first parameter that occurs when the load is transferred, and assigning the change to a value of the second parameter. the agricultural implement having an output unit comprising a ground-engaging tool for forming a furrow, a gauge wheel , and at least one actuator for controlling the position of the gauge wheel relative to the tool , wherein the method comprises: placing the agricultural implement on a ground surface that is level and sufficiently hard for the tool not to penetrate into the ground surface, wherein a load from the output unit bears on one of the tool and the gauge wheel , using the actuator to transfer the load to the other one of the tool and the gauge wheel , recording a first parameter of the actuator while the load is being transferred, which first parameter indicates a force on the actuator , recording a second parameter for the gauge wheel in relation to the tool while the load is being transferred, which second parameter indicates a relative vertical position between the gauge wheel and the tool , identifying a change of the first parameter that occurs when the load is transferred, and assigning the change to a value of the second parameter. placing the agricultural implement on a ground surface that is level and sufficiently hard for the tool not to penetrate into the ground surface, wherein a load from the output unit bears on one of the tool and the gauge wheel , using the actuator to transfer the load to the other one of the tool and the gauge wheel , recording a first parameter of the actuator while the load is being transferred, which first parameter indicates a force on the actuator , recording a second parameter for the gauge wheel in relation to the tool while the load is being transferred, which second parameter indicates a relative vertical position between the gauge wheel and the tool , identifying a change of the first parameter that occurs when the load is transferred, and assigning the change to a value of the second parameter.
A two part composition comprising: I) a one part curable composition comprising a) one or more isocyanate functional components; b) one or more catalysts for the reaction of isocyanate groups with active hydrogen containing groups; c) one or more fillers which do not enhance the formation of voids during curing, wherein the one or more fillers comprise a high surface area carbon black having an Iodine adsorption number of 100 g/kg or greater, wherein high surface area is determined by the ASTM D1510 method; d) one or more fillers having basic character; and II) a cure accelerator comprising e) one or more liquid carriers; f) water; and g) one or more paste forming agents selected from one or more clays and silica. I) a one part curable composition comprising a) one or more isocyanate functional components; b) one or more catalysts for the reaction of isocyanate groups with active hydrogen containing groups; c) one or more fillers which do not enhance the formation of voids during curing, wherein the one or more fillers comprise a high surface area carbon black having an Iodine adsorption number of 100 g/kg or greater, wherein high surface area is determined by the ASTM D1510 method; d) one or more fillers having basic character; and a) one or more isocyanate functional components; b) one or more catalysts for the reaction of isocyanate groups with active hydrogen containing groups; c) one or more fillers which do not enhance the formation of voids during curing, wherein the one or more fillers comprise a high surface area carbon black having an Iodine adsorption number of 100 g/kg or greater, wherein high surface area is determined by the ASTM D1510 method; d) one or more fillers having basic character; and II) a cure accelerator comprising e) one or more liquid carriers; f) water; and g) one or more paste forming agents selected from one or more clays and silica. e) one or more liquid carriers; f) water; and g) one or more paste forming agents selected from one or more clays and silica.
A printing ink composition comprising: a disperse dye; a surfactant; a water soluble dye; and a dispersant, and wherein the dispersant includes at least any one of a formalin condensate of a lignin sulfonic acid and a formalin condensate of a naphthalene sulfonic acid compound, an IOB value A of the disperse dye, an IOB value B of the surfactant, and an IOB value C of the water soluble dye satisfy the following Equation , A < B < C and the IOB value B is 1.0 to 2.0. a disperse dye; a surfactant; a water soluble dye; and a dispersant, and wherein the dispersant includes at least any one of a formalin condensate of a lignin sulfonic acid and a formalin condensate of a naphthalene sulfonic acid compound, an IOB value A of the disperse dye, an IOB value B of the surfactant, and an IOB value C of the water soluble dye satisfy the following Equation , A < B < C and the IOB value B is 1.0 to 2.0.
A cystine-glutamate transporter inhibitor for use in treating, preventing or reversing a substance-related and addictive disorder or a brain damage induced by substance-related and addictive disorder, wherein the cystine-glutamate transporter inhibitor is a system x c - inhibitor selected from sorafenib, regorafenib, sulfasalazine, erastin, L-glutamate, L-cystine, L-alpha-aminoadipate, L-alpha-aminopimelate, L-homocysteate, L-β- N -oxalyl-L- α ,β-diaminopropionate (beta-L-ODAP), L-alanosine, ibotenate, L-serine-O-sulphate, (RS)-4-bromohomoibotenate, quisqualate, (S)-4-carboxyphenylglycine, N-acetylamino-3-chloro-N-(2-diethylaminoethyl)benzamide (NACPA), bis-trifluoromethyl-phenyl-isoxazole-4-hydrazone (TFMIH), 5-naphthylethyl isoxazole-4-(2,4-dinitrophenol)hydrazone-dinitrophenol (NEIH), ( S )-4-carboxyphenyglycine (4-S-CPG), sulphonic acid phenylglycine (4-S-SPG), R,S-4-sulphothienylglycine (TSA) or (R,S)-4-[4'-carboxyphenyl]-phenylglycine (CPPG).
Passenger conveyor with a brake drive and/or motor drive having an electronic circuit as separation circuit configured to separate the drive from mains, which electronic circuit comprising a switching means , having a monitoring circuit configured to monitor the switching status of the switching means, wherein the switching means comprises at least one semiconductor switch as a switching element, which semiconductor switch is connected with its gate to a gate driver which is configured to be controlled by a control signal (C) of a safety circuit of the passenger conveyor to effect switching of the semiconductor switch, the gate driver being supplied by a gate driver power supply , whereby the monitoring circuit is arranged between the gate driver and the collector of the semiconductor switch and comprises a series connection of a LED of an opto-coupler , a current-limiting resistor and a protection diode , which series connection is connected in series with the gate driver power supply , the output (A, A') of the opto-coupler is configured to provide a signal for the monitoring of the switching status of the switching means .
Device for resetting an inertial unit of a transport means on the basis of information delivered by a viewfinder of the transport means, the device comprising: - means for obtaining from the inertial unit a horizontal velocity vector of the transport means (MT) and coordinates of the transport means, - means for obtaining a horizontal line of sight from the viewfinder on at least one landmark, - means for obtaining coordinates of said at least one landmark, - means for computing an angle between the horizontal velocity vector and the horizontal line of sight, - means for computing the drift of the computed angle, - means for computing an error of the inertial unit on the basis of the obtained coordinates, the computed angle and its computed drift, the error of the inertial unit being computed according to the following formula: ε = Lo La − Lo amer La amer + sinθ R Terre + z g θ ′ cosθ . V xg V yg + sinθ . − V yg V xg wherein θ is the computed angle, θ' is the drift of θ, V xg , V yg are the coordinates of the horizontal velocity vector of the transport means, z g is the altitude of the transport means, Lo, La are the latitude and longitude of the transport means, and Lo amer , La amer are the latitude and longitude of said at least one landmark, - means for transferring the computed error of the inertial unit to a Kalman filter for error filtering and resetting of the inertial unit . - means for obtaining from the inertial unit a horizontal velocity vector of the transport means (MT) and coordinates of the transport means, - means for obtaining a horizontal line of sight from the viewfinder on at least one landmark, - means for obtaining coordinates of said at least one landmark, - means for computing an angle between the horizontal velocity vector and the horizontal line of sight, - means for computing the drift of the computed angle, - means for computing an error of the inertial unit on the basis of the obtained coordinates, the computed angle and its computed drift, the error of the inertial unit being computed according to the following formula: ε = Lo La − Lo amer La amer + sinθ R Terre + z g θ ′ cosθ . V xg V yg + sinθ . − V yg V xg wherein θ is the computed angle, θ' is the drift of θ, V xg , V yg are the coordinates of the horizontal velocity vector of the transport means, z g is the altitude of the transport means, Lo, La are the latitude and longitude of the transport means, and Lo amer , La amer are the latitude and longitude of said at least one landmark, - means for transferring the computed error of the inertial unit to a Kalman filter for error filtering and resetting of the inertial unit .
A method, comprising an ontology application at one or more computing devices performing operations comprising: receiving a command to create a new ontology module; receiving , a selection of a first ontology module to import into the new ontology module; receiving , a selection of a second ontology module to import into the new ontology module; detecting an ambiguous data type definition conflict between a first definition of a data type in the first ontology module and a second definition of the data type in the second ontology module; automatically resolving the ambiguous data type definition conflict based on a user input; based on the user input, generating a new, third definition of the data type reflecting a resolution of the ambiguous data type definition conflict; and creating and storing , in a data container, the new ontology module as a dynamic ontology module comprising an import identifier, e.g. a file path or URL, that identifies a data container of each of the first and second ontology modules, whereby the data type definitions of the first and second ontology modules are re-used in the new ontology module without having to re-define the data type definition in the new ontology module, and the new, third definition of the data type reflecting the resolution of the ambiguous data type definition conflict, which third definition of the data type extends and/or re-uses inherited data types defined in the one or more dynamic ontology modules that the new ontology module inherits from. receiving a command to create a new ontology module; receiving , a selection of a first ontology module to import into the new ontology module; receiving , a selection of a second ontology module to import into the new ontology module; detecting an ambiguous data type definition conflict between a first definition of a data type in the first ontology module and a second definition of the data type in the second ontology module; automatically resolving the ambiguous data type definition conflict based on a user input; based on the user input, generating a new, third definition of the data type reflecting a resolution of the ambiguous data type definition conflict; and creating and storing , in a data container, the new ontology module as a dynamic ontology module comprising an import identifier, e.g. a file path or URL, that identifies a data container of each of the first and second ontology modules, whereby the data type definitions of the first and second ontology modules are re-used in the new ontology module without having to re-define the data type definition in the new ontology module, and the new, third definition of the data type reflecting the resolution of the ambiguous data type definition conflict, which third definition of the data type extends and/or re-uses inherited data types defined in the one or more dynamic ontology modules that the new ontology module inherits from.
Laminate for pneumatic objects comprising at least three different and superimposed layers: - a layer impermeable to inflation gases consisting of a composition based on at least one diene elastomer and on at least one crosslinking system, the content of diene elastomer being within a range from 50 to 100 phr ; - a tie layer consisting of a composition based on at least one thermoplastic styrenic elastomer, at least one polyolefin having a number-average molar mass Mn ranging from 10,000 to 550,000 g/mol and at least 140 phr an extender oil having a number-average mass Mn less than or equal to 5,000 g/mol; - a self-sealing layer consisting of a composition based on at least one thermoplastic styrenic elastomer and at least 140 phr of an extender oil having a number-average mass Mn less than or equal to 5,000 g/mol; the rate of thermoplastic styrenic elastomer being within a range from 50 to 100 phr; and said tie layer being disposed between said layer impermeable to inflation gases and said self-sealing layer. - a layer impermeable to inflation gases consisting of a composition based on at least one diene elastomer and on at least one crosslinking system, the content of diene elastomer being within a range from 50 to 100 phr ; - a tie layer consisting of a composition based on at least one thermoplastic styrenic elastomer, at least one polyolefin having a number-average molar mass Mn ranging from 10,000 to 550,000 g/mol and at least 140 phr an extender oil having a number-average mass Mn less than or equal to 5,000 g/mol; - a self-sealing layer consisting of a composition based on at least one thermoplastic styrenic elastomer and at least 140 phr of an extender oil having a number-average mass Mn less than or equal to 5,000 g/mol; the rate of thermoplastic styrenic elastomer being within a range from 50 to 100 phr; and
Method for manufacturing a temporary dental restoration assembly intended to be attached, at one of its ends, to a dental implant integrated in a bone structure of an individual, characterized in that it comprises: - a first step (E1) of taking a first digital impression (S1) of an oral space of the individual, intended to receive the temporary dental restoration assembly , where the first step (E1) of taking a first digital impression (S1) comprises taking an impression of an oral space above an implant, and - a second step (E2) of constructing a first three-dimensional virtual model (D1) of a temporary dental restoration assembly according to the first digital impression (S1), and - a third step (E3) of constructing a database (D) comprising digital data defining the first three-dimensional virtual model (D1) and an item of identification data (D2) of the individual in whose mouth the actual temporary dental restoration assembly corresponding to the first three-dimensional virtual model (D1) is intended to be placed, and - a fourth step (E4) of manufacturing the actual temporary dental restoration assembly from the first three-dimensional virtual model (D1) and on the basis of the digital data of the database (D), by transmitting the corresponding digital data to a device for manufacture by removal of material and/or by addition of material. - a first step (E1) of taking a first digital impression (S1) of an oral space of the individual, intended to receive the temporary dental restoration assembly , where the first step (E1) of taking a first digital impression (S1) comprises taking an impression of an oral space above an implant, and - a second step (E2) of constructing a first three-dimensional virtual model (D1) of a temporary dental restoration assembly according to the first digital impression (S1), and - a third step (E3) of constructing a database (D) comprising digital data defining the first three-dimensional virtual model (D1) and an item of identification data (D2) of the individual in whose mouth the actual temporary dental restoration assembly corresponding to the first three-dimensional virtual model (D1) is intended to be placed, and - a fourth step (E4) of manufacturing the actual temporary dental restoration assembly from the first three-dimensional virtual model (D1) and on the basis of the digital data of the database (D), by transmitting the corresponding digital data to a device for manufacture by removal of material and/or by addition of material.
A liquid sealing actuator system (100; 300; 500; 700), comprising: an inner shaft (105; 515; 705) having a first end; a hollow outer shaft (110; 510; 710) having a first end that receives the first end of the inner shaft ; and a mass attached to a distal end of either the inner shaft or the outer shaft; characterised in that the system further comprises at least one sealing ring (200; 1030) positioned adjacent an internal surface of the hollow outer shaft , wherein the at least one sealing ring has an outer diameter that is less than an inner diameter of the outer shaft , thereby defining an annular seal gap ; and a pressure source that can inject a pressurised fluid into the hollow outer shaft , thereby applying a pressure against both the first end of the inner shaft and the at least one sealing ring that assists in lifting the mass ; wherein the system (100; 300; 500; 700) is at least partially immersed in an external liquid such that the at least one sealing ring (200; 1030) is submerged in the external liquid and a head of the external liquid above the at least one sealing ring defines a backpressure in the annular seal gap that opposes the pressure applied by the pressure source. an inner shaft (105; 515; 705) having a first end; a hollow outer shaft (110; 510; 710) having a first end that receives the first end of the inner shaft ; and a mass attached to a distal end of either the inner shaft or the outer shaft; characterised in that the system further comprises at least one sealing ring (200; 1030) positioned adjacent an internal surface of the hollow outer shaft , wherein the at least one sealing ring has an outer diameter that is less than an inner diameter of the outer shaft , thereby defining an annular seal gap ; and a pressure source that can inject a pressurised fluid into the hollow outer shaft , thereby applying a pressure against both the first end of the inner shaft and the at least one sealing ring that assists in lifting the mass ; wherein the system (100; 300; 500; 700) is at least partially immersed in an external liquid such that the at least one sealing ring (200; 1030) is submerged in the external liquid and a head of the external liquid above the at least one sealing ring defines a backpressure in the annular seal gap that opposes the pressure applied by the pressure source.
A spring element (1, 1', 1"), in particular jounce bumper for a jounce bumper assembly , comprising: a longitudinal axis (L) and a base body extending along the longitudinal axis (L), the base body being elastically deformable between an uncompressed basic state and a compressed state in which the base body is at least partially compressed in the direction of the longitudinal axis (L), an end portion configured for being brought into contact with a vehicle part moving relatively to the spring element (1, 1'. 1"), wherein the end portion comprises a circumferential outer surface , and at least one recess (7; 7a, 7b; 7c, 7d) in the circumferential outer surface , said recess extending inwards and defining a hollow space in the base body, wherein the end portion comprises an end face, and the at least one recess (7; 7a,b) is spaced apart from the end face in the direction of the longitudinal axis (L), wherein the end face - in the uncompressed state of the base body - comprises a substantially planar surface and is oriented perpendicular to the longitudinal axis (L), characterised in that the recess is configured to collapse such as to allow the end face to assume a concave shape. a longitudinal axis (L) and a base body extending along the longitudinal axis (L), the base body being elastically deformable between an uncompressed basic state and a compressed state in which the base body is at least partially compressed in the direction of the longitudinal axis (L), an end portion configured for being brought into contact with a vehicle part moving relatively to the spring element (1, 1'. 1"), wherein the end portion comprises a circumferential outer surface , and at least one recess (7; 7a, 7b; 7c, 7d) in the circumferential outer surface , said recess extending inwards and defining a hollow space in the base body, wherein the end portion comprises an end face, and the at least one recess (7; 7a,b) is spaced apart from the end face in the direction of the longitudinal axis (L), wherein the end face - in the uncompressed state of the base body - comprises a substantially planar surface and is oriented perpendicular to the longitudinal axis (L), characterised in that the recess is configured to collapse such as to allow the end face to assume a concave shape.