mhurhangee/ep-ind-claims huggingface dataset:
A process for producing an airfoil component, the process comprising: forming an airfoil portion of an airfoil portion material containing a precursor of a ceramic-based material, the airfoil portion material defining concave and convex walls (28,26) of the airfoil portion, the concave and convex walls (28,26) defining a tip region of the airfoil portion and at least a first cavity within the airfoil portion; characterized by forming at least a first ply that contains a precursor of a ceramic-based material, the first ply at least partially closing the first cavity at the tip region of the airfoil portion; and then curing the airfoil portion material of the airfoil portion and the first ply so that the first ply forms a tip cap that closes the first cavity at the tip region and the precursors of the airfoil portion material and the first ply are converted to the ceramic-based materials thereof. forming an airfoil portion of an airfoil portion material containing a precursor of a ceramic-based material, the airfoil portion material defining concave and convex walls (28,26) of the airfoil portion, the concave and convex walls (28,26) defining a tip region of the airfoil portion and at least a first cavity within the airfoil portion; forming at least a first ply that contains a precursor of a ceramic-based material, the first ply at least partially closing the first cavity at the tip region of the airfoil portion; and then curing the airfoil portion material of the airfoil portion and the first ply so that the first ply forms a tip cap that closes the first cavity at the tip region and the precursors of the airfoil portion material and the first ply are converted to the ceramic-based materials thereof.
A method for managing a platform, the method comprising: generating, by a computer system, a domain invariant representation (134, 232, 708) of historical metric values from historical sensor information (136, 228) for a set of metrics and historical maintenance events (138, 230) for a part, wherein a bias caused by the historical maintenance events (138, 230) is reduced in the domain invariant representation (134, 232, 708); training, by the computer system, a counterfactual machine learning model using the domain invariant representation (134, 232, 708); determining, by the computer system, maintenance thresholds (240, 712) for a metric in the set of metrics for performing maintenance on the part using the counterfactual machine learning model trained with the domain invariant representation (134, 232, 708); and selecting, by the computer system, a maintenance threshold from the maintenance thresholds meeting an objective, wherein the objective is selected from a group comprising increased life part, increased time between maintenance, reducing part failure between maintenance events, increased maintenance free operating period, increased mean time between failures, and increased mission success rate if the platform is an aircraft, wherein the maintenance threshold is used to determine a maintenance action for the part. generating, by a computer system, a domain invariant representation (134, 232, 708) of historical metric values from historical sensor information (136, 228) for a set of metrics and historical maintenance events (138, 230) for a part, wherein a bias caused by the historical maintenance events (138, 230) is reduced in the domain invariant representation (134, 232, 708); training, by the computer system, a counterfactual machine learning model using the domain invariant representation (134, 232, 708); determining, by the computer system, maintenance thresholds (240, 712) for a metric in the set of metrics for performing maintenance on the part using the counterfactual machine learning model trained with the domain invariant representation (134, 232, 708); and selecting, by the computer system, a maintenance threshold from the maintenance thresholds meeting an objective, wherein the objective is selected from a group comprising increased life part, increased time between maintenance, reducing part failure between maintenance events, increased maintenance free operating period, increased mean time between failures, and increased mission success rate if the platform is an aircraft, wherein the maintenance threshold is used to determine a maintenance action for the part.
Method for phonetizing a data list having text-containing list entries stored as phonemes in a phonetized data list, - each list entry in the data list being subdivided into at least two data fields and being provided to a voice-controlled user interface, - a separating character being inserted into the text of the list entry between the respective data fields of the list entry, - the list entry being converted from a text representation into phonetics, the phonemes of the list entry being stored in a phonetic database, and - the phonetized data list being produced from the phonemes stored in the phonetic database, characterized in that the separating character is concomitantly converted into phonetics and is concomitantly stored in the phonetic database as a phoneme symbol in the phonemes corresponding to the list entry, the phoneme symbol symbolizing the separating character in the text of the list entry remaining disregarded when producing the phonetized data list and not being integrated in the phonemes of a list entry in the phonetized data list. - each list entry in the data list being subdivided into at least two data fields and being provided to a voice-controlled user interface, - a separating character being inserted into the text of the list entry between the respective data fields of the list entry, - the list entry being converted from a text representation into phonetics, the phonemes of the list entry being stored in a phonetic database, and - the phonetized data list being produced from the phonemes stored in the phonetic database, characterized in that the separating character is concomitantly converted into phonetics and is concomitantly stored in the phonetic database as a phoneme symbol in the phonemes corresponding to the list entry, the phoneme symbol symbolizing the separating character in the text of the list entry remaining disregarded when producing the phonetized data list and not being integrated in the phonemes of a list entry in the phonetized data list.
Chair guidance device with a housing, comprising: - a housing base, - at least two housing side walls (4.1, 4.2) extending parallel to each other, and - at least one cover element which can be placed on the housing side walls (4.1, 4.2) and can be connected to at least one of the housing side walls (4.1, 4.2) in a force-fitting and/or form-fitting manner - with at least one carriage carrying a chair base and having rolling elements, which carriage can be moved in the longitudinal extension of the housing base between the two housing side walls on the housing base, wherein the rolling elements arranged on the carriage are designed as guide elements in such a way that the carriage is supported and guided by the housing side walls (4.1, 4.2) when moving over the housing base, characterized in that at least one of the housing side walls (4.1, 4. 2) has, at the upper edge opposite the housing base in the direction of the housing side wall (4.2) and/or (4.1) running parallel thereto, a projection in the form of an angle with a surface lying parallel to the housing base, against which surface the guide elements rest and/or a slight gap remains between the surface of the angle lying parallel to the housing base and the guide elements. - a housing base, - at least two housing side walls (4.1, 4.2) extending parallel to each other, and - at least one cover element which can be placed on the housing side walls (4.1, 4.2) and can be connected to at least one of the housing side walls (4.1, 4.2) in a force-fitting and/or form-fitting manner - with at least one carriage carrying a chair base and having rolling elements, which carriage can be moved in the longitudinal extension of the housing base between the two housing side walls on the housing base,
Duplex inkjet printing apparatus comprising first and second inkjet printheads for printing on opposite surfaces (16, 20) of a web medium, and a transport mechanism for transporting the web along an S-form transport path with generally horizontal top, middle and bottom spans and turns linking adjacent spans, the central span passing by the first printhead for downward printing by the first printhead onto one surface of the web medium, one of the top and bottom spans passing by the second printhead for downward printing by the second printhead onto the other surface of the web, at least one of the turns defined by an air bar, one of the top and bottom spans including a web entry zone, the other of the top and bottom spans including a web exit zone, the apparatus further comprising a single web drying unit located to receive the web for drying from the web exit zone, the web drying unit including radiant drying elements for drying both surfaces (16, 20) of the web as the web passes through the drying unit.
A computer-implemented method comprising: collecting a probe trajectory stream from a sensor of a probe device, wherein the probe trajectory stream comprises a time-sequence of location data points representing a sensed movement of the probe device; subsampling the probe trajectory stream to generate a plurality of subtrajectory streams; processing the plurality of subtrajectory streams to create a negative gap between the plurality of subtrajectory streams, wherein the negative gap specifies an overlap between any two subtrajectory streams of the plurality of subtrajectory streams; and providing the plurality of subtrajectory streams as an output in place of the probe trajectory. collecting a probe trajectory stream from a sensor of a probe device, wherein the probe trajectory stream comprises a time-sequence of location data points representing a sensed movement of the probe device; subsampling the probe trajectory stream to generate a plurality of subtrajectory streams; processing the plurality of subtrajectory streams to create a negative gap between the plurality of subtrajectory streams, wherein the negative gap specifies an overlap between any two subtrajectory streams of the plurality of subtrajectory streams; and providing the plurality of subtrajectory streams as an output in place of the probe trajectory.
A water lubrication type bearing material comprising: 12 wt.% to 25 wt.% of a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer resin (PFA resin); 18 wt.% to 33 wt.% of a carbon fiber; and a remainder including a polytetrafluoroethylene (PTFE) resin and/or a modified PTFE resin, wherein the carbon fiber is a curved/twisted carbon fiber. 12 wt.% to 25 wt.% of a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer resin (PFA resin); 18 wt.% to 33 wt.% of a carbon fiber; and a remainder including a polytetrafluoroethylene (PTFE) resin and/or a modified PTFE resin, wherein the carbon fiber is a curved/twisted carbon fiber.
A capillary processing module comprising: a chamber (201, 301, 401, 501, 601) comprising a chamber floor (104, 204, 304, 404, 504, 604) and one or more chamber sidewalls, characterized by a crank, which converts rotary motion to linear motion, positioned to raise and lower a portion of a slide (10, 102, 202, 302, 402, 502) when rotated. a chamber (201, 301, 401, 501, 601) comprising a chamber floor (104, 204, 304, 404, 504, 604) and one or more chamber sidewalls, characterized by a crank, which converts rotary motion to linear motion, positioned to raise and lower a portion of a slide (10, 102, 202, 302, 402, 502) when rotated.
A non-transitory computer-readable storage medium storing one or more processor-executable instructions wherein the one or more instructions, when executed by a processor of a controller, cause acts to be performed comprising: obtaining (82,90) one or more signals representative of ambient conditions for a gas turbine engine and one or more operating conditions of the gas turbine engine; executing (84,92) a model to predict a duration of a startup time for the gas turbine engine based on the ambient conditions and the one or more operating conditions, the executing (84, 92) comprising executing a historical-learning model to predict a purge duration for the gas turbine engine during the startup time and characterised by executing a heat soak model to determine a rate of reduction of exhaust temperature and its impact on the purge duration, wherein determining the rate of reduction of exhaust temperature and its impact on the purge duration is based at least on heat soak variations due to air density variations based on a temperature of the gas turbine engine during startup; and causing a display (87,95) to display the predicted duration of the startup time of the gas turbine engine. obtaining (82,90) one or more signals representative of ambient conditions for a gas turbine engine and one or more operating conditions of the gas turbine engine; executing (84,92) a model to predict a duration of a startup time for the gas turbine engine based on the ambient conditions and the one or more operating conditions, the executing (84, 92) comprising executing a historical-learning model to predict a purge duration for the gas turbine engine during the startup time and characterised by executing a heat soak model to determine a rate of reduction of exhaust temperature and its impact on the purge duration, wherein determining the rate of reduction of exhaust temperature and its impact on the purge duration is based at least on heat soak variations due to air density variations based on a temperature of the gas turbine engine during startup; and causing a display (87,95) to display the predicted duration of the startup time of the gas turbine engine.
A herbicidal formulation comprising at least one auxin type herbicide and an effective amount of at least one adjuvant composition, wherein said adjuvant composition comprises a blend of at least one alkoxylated alcohol surfactant and at least one alkoxylated quaternary surfactant of the general formula wherein R 2 is selected from a straight or branched chain, saturated or unsaturated, substituted or unsubstituted hydrocarbon group having from 8 to 22 carbon atoms; R 3 is C1-C4 alkyl; p and p' are selected from integers of from 1-30; and X - is a compatible anion, which formulation additionally comprises one or more co-herbicide chosen from triazines and s-triazines, substituted ureas, uracils, bentazon, desmedipham, methazole, phenmedipham, pyridate, amitrole, clomazone, fluridone, norflurazone, dinitroanilines, isopropalin, oryzalin, pendimethalin, prodiamine, trifluralin, glyphosate, glufosinate, sulfonylureas, imidazolinones, clethodim, sethoxydim, dichlobenil, isoxaben, and bipyridylium compounds.
A method for transmitting a signal by a Device-to-Device, D2D, User Equipment, UE, in a wireless communication system, the method comprising: determining a resource pool for a D2D control signal; determining a resource pool for a D2D communication signal based on the resource pool for a D2D control signal; and transmitting a D2D communication signal using the resource pool for a D2D communication signal, characterized in that, subframes of the resource pool for a D2D communication signal were reindexed, starting from a first subframe following a last subframe of the resource pool for a D2D control signal. determining a resource pool for a D2D control signal; determining a resource pool for a D2D communication signal based on the resource pool for a D2D control signal; and transmitting a D2D communication signal using the resource pool for a D2D communication signal, characterized in that, subframes of the resource pool for a D2D communication signal were reindexed, starting from a first subframe following a last subframe of the resource pool for a D2D control signal.
A method for transition between driving modes of a vehicle, said driving modes comprising an autonomous driving mode, a partly autonomous driving mode and a manual driving mode, wherein (i) a transition from said partly autonomous driving mode to said autonomous driving mode is performed by enabling said autonomous driving mode, (ii) a transition from said autonomous driving mode to said partly autonomous driving mode is performed by releasing a steering wheel lock when said partly autonomous driving mode is in an enabled state, (iii) a transition from said manual driving mode to said autonomous driving mode is performed by enabling said autonomous driving mode, and (iv) a transition from said autonomous driving mode to said manual driving mode is performed by releasing said steering wheel lock when said partly autonomous driving mode is in a disabled state; characterized in that said method further comprises transmitting an information signal indicating which of said driving modes is being utilized, wherein a perceived turning resistance of a steering wheel is related to which of said driving modes is being utilized at that moment. (i) a transition from said partly autonomous driving mode to said autonomous driving mode is performed by enabling said autonomous driving mode, (ii) a transition from said autonomous driving mode to said partly autonomous driving mode is performed by releasing a steering wheel lock when said partly autonomous driving mode is in an enabled state, (iii) a transition from said manual driving mode to said autonomous driving mode is performed by enabling said autonomous driving mode, and (iv) a transition from said autonomous driving mode to said manual driving mode is performed by releasing said steering wheel lock when said partly autonomous driving mode is in a disabled state;
A method for secure communication in a multimedia system, said multimedia system comprising a host device and a slave device, said host device coupled to said slave device via a bus interface, the method comprising: generating by said host device, a host device key (Khost) based on a host root key and at least one control word stored within said host device, wherein said host device is configured to generate said host device key (Khost) only once; generating by said slave device, a slave device key (Khostslave) by encrypting at least one control word stored within said slave device and the generated host device key (Khost) with derivatives of a slave root key; authenticating by said slave device, commands received from said host device by utilizing said generated slave device key (Khostslave) to decode said generated host device key (Khost). generating by said host device, a host device key (Khost) based on a host root key and at least one control word stored within said host device, wherein said host device is configured to generate said host device key (Khost) only once; generating by said slave device, a slave device key (Khostslave) by encrypting at least one control word stored within said slave device and the generated host device key (Khost) with derivatives of a slave root key; authenticating by said slave device, commands received from said host device by utilizing said generated slave device key (Khostslave) to decode said generated host device key (Khost).
A catalyst for the polymerization of norbornene monomers, comprising transition metal complex represented by formula wherein M represents one transition metal selected from the elements belonging to eight, nine or ten group of the periodic table for 1991, and R 1, R 2 and R 3 independently represent a hydrogen atom or a hydrocarbon group having 1 to 20 carbon atoms; R 4 represents a hydrogen atom or a hydrocarbon group having 1 to 20 carbon atoms; R 5, R 6, R 7, R 8 and R 9 represent independently from each other a hydrogen atom, a halogen atom or a hydrocarbon group having 1 to 20 carbon atoms; and R 5, R 6, R 7, R 8 and R 9 may bond to each other to form a ring structure, and cocatalyst as being an ionic compound which can generate a cationic transition metal compound by reacting with transition metal complex and a phosphine ligand. wherein M represents one transition metal selected from the elements belonging to eight, nine or ten group of the periodic table for 1991, and R 1, R 2 and R 3 independently represent a hydrogen atom or a hydrocarbon group having 1 to 20 carbon atoms; R 4 represents a hydrogen atom or a hydrocarbon group having 1 to 20 carbon atoms; R 5, R 6, R 7, R 8 and R 9 represent independently from each other a hydrogen atom, a halogen atom or a hydrocarbon group having 1 to 20 carbon atoms; and R 5, R 6, R 7, R 8 and R 9 may bond to each other to form a ring structure, and cocatalyst as being an ionic compound which can generate a cationic transition metal compound by reacting with transition metal complex and a phosphine ligand.
A sensor, comprising: an integrated circuit (220, 270, 280); and a piezoelectric substrate; the piezoelectric substrate being configured as an antenna of the integrated circuit (220, 270, 280); the antenna being configured to sense at least one of vibrational energy, acoustic energy and impact energy; the integrated circuit (220, 270, 280) being configured to convert said sensed at least one of vibrational energy, acoustic energy and impact energy into electrical energy; characterized in that: at least a portion of the converted electrical energy is used for storing detected signal information in a memory of the integrated circuit (220, 270, 280). an integrated circuit (220, 270, 280); and a piezoelectric substrate; the piezoelectric substrate being configured as an antenna of the integrated circuit (220, 270, 280); the antenna being configured to sense at least one of vibrational energy, acoustic energy and impact energy; the integrated circuit (220, 270, 280) being configured to convert said sensed at least one of vibrational energy, acoustic energy and impact energy into electrical energy; characterized in that: at least a portion of the converted electrical energy is used for storing detected signal information in a memory of the integrated circuit (220, 270, 280).