mhurhangee/patent-ind-claim-en huggingface dataset:
Method for testing a hybrid power plant equipping a rotary-wing aircraft comprising at least one lift rotor , said hybrid power plant being configured to rotate said at least one lift rotor , the hybrid power plant comprising: • at least one heat engine configured to rotate said at least one lift rotor , and • at least one electric motor supplied with electrical energy by at least one electrical power source , said at least one electric motor being configured to rotate said at least one lift rotor at least when at least one of said at least one heat engines fails, characterized in that said method comprises a first test performed on the ground comprising the following steps: • starting said at least one heat engine , • controlling a supply of fuel to said at least one heat engine , said control of the supply of fuel being configured so that a speed of rotation NR of said at least one lift rotor reaches a first threshold speed V1, • when said speed of rotation NR of said at least one lift rotor is greater than or equal to said first threshold speed V1, first control of a supply of power (54, 54', 54") to said at least one electric motor , the first control of the supply of power (54, 54', 54") being configured so that the speed of rotation NR of said at least one lift rotor reaches a second threshold speed V2 greater than said first threshold speed V1, said first control of the supply of power (54, 54', 54") being carried out according to a predetermined control profile, • determining a first period of time D1 taken by said at least one lift rotor to shift from said first threshold speed V1 to said second threshold speed V2, and • checking that said first time period D1 is less than a predetermined threshold time period Ds. • at least one heat engine configured to rotate said at least one lift rotor , and • at least one electric motor supplied with electrical energy by at least one electrical power source , said at least one electric motor being configured to rotate said at least one lift rotor at least when at least one of said at least one heat engines fails, • starting said at least one heat engine , • controlling a supply of fuel to said at least one heat engine , said control of the supply of fuel being configured so that a speed of rotation NR of said at least one lift rotor reaches a first threshold speed V1, • when said speed of rotation NR of said at least one lift rotor is greater than or equal to said first threshold speed V1, first control of a supply of power (54, 54', 54") to said at least one electric motor , the first control of the supply of power (54, 54', 54") being configured so that the speed of rotation NR of said at least one lift rotor reaches a second threshold speed V2 greater than said first threshold speed V1, said first control of the supply of power (54, 54', 54") being carried out according to a predetermined control profile, • determining a first period of time D1 taken by said at least one lift rotor to shift from said first threshold speed V1 to said second threshold speed V2, and • checking that said first time period D1 is less than a predetermined threshold time period Ds.
A moldable, malleable, kneadable, and/or injectable ceramic material comprising porous calcium phosphate having a crystal size between 0.1 and 1.5 μm and a surface-microstructure, particularly a surface-microporosity, and a water-free carrier, which is a carbohydrate selected from the group consisting of saccharides, CMC, hydroxyethyl cellulose, alginates, chitosan, dextran, guar, glucose, sucrose, sorbitol, mannitol, fructose, pectin, starch, xanthan, xylan, and mannan, a protein selected from the group consisting of fibrin, gelatine, and collagen, a lipid selected from the group consisting of fatty acids, glycerolipids, glycerophospholipids, sphingolipids, sterol lipids, prenol lipids, saccharolipids, and soya lecithin, a polyol selected from the group consisting of glycerol, 1, 2-propylene glycol, 1, 3-propylene glycol, butylene glycol, and hexylene glycol, a synthetic organic polymer selected from the group consisting of a polyethylene glycol, a poloxamer including P65, P84, P85, F87, F88, F98 and F127, and a surfactant/emulsifier which is polyethylenglycol-660-12-hydroxystearate, or a blend or mixture thereof, wherein the calcium phosphate comprises macropores and micropores, wherein the macropores are interconnected and the micropores are present in the surface of the macropores.
A fluorocarbon emulsion in water for use in concomitant fractionated radiotherapy and chemotherapy in the treatment of Glioblastoma, wherein said fluorocarbon is dodecafluoropentane and comprises between 1% and 5% weight/volume in the emulsion.
A non-transitory computer-readable medium having instructions executable by a processor for performing a method comprising: computing phase values for signals of each of a plurality of nodes on a geometric surface region associated with tissue of a patient, a subset of the nodes surrounding a given node of the plurality of nodes defining neighboring nodes of the given node, the method further being characterized by comprising: generating an activation mask for the given node based on an activation detected for at least one of the plurality of nodes, the activation mask specifying a set of at least one activation time period having a beginning time and an ending time, the beginning time corresponding to when a phase value of a signal at the at least one of the plurality of nodes has a given value and the ending time corresponding to when the phase value of the signal at the at least one of the plurality of nodes has another value; applying the activation mask to the computed phase values computed for each of the plurality nodes on the geometric surface region to identify a set of focal candidate nodes; analyzing the set of focal candidate nodes to identify a given focal candidate node corresponding to a spatial location of a focal point on the geometric surface region; and generating focal point data characterizing the spatial location of the focal point on the geometric surface region. generating an activation mask for the given node based on an activation detected for at least one of the plurality of nodes, the activation mask specifying a set of at least one activation time period having a beginning time and an ending time, the beginning time corresponding to when a phase value of a signal at the at least one of the plurality of nodes has a given value and the ending time corresponding to when the phase value of the signal at the at least one of the plurality of nodes has another value; applying the activation mask to the computed phase values computed for each of the plurality nodes on the geometric surface region to identify a set of focal candidate nodes; analyzing the set of focal candidate nodes to identify a given focal candidate node corresponding to a spatial location of a focal point on the geometric surface region; and generating focal point data characterizing the spatial location of the focal point on the geometric surface region.
A windscreen wiper motor with an arrangement for determining the angular position of a shaft of the windscreen wiper motor , with a magnet element arrangement, connected with the shaft , and several magnetic field sensors , wherein the angular position of the shaft is inferred from the different signals of the magnetic field sensors , wherein the magnet element arrangement comprises several separate magnet elements , which are arranged one behind the other in the longitudinal direction of the shaft , and that the magnetic field sensors are arranged on a printed circuit board which is arranged at a slight distance from the shaft , such that the magnetic fields of the magnet elements are able to be determined by the magnetic field sensors , wherein the magnet elements are constructed in a ring shape and surrounds the shaft radially, the magnet elements being arranged at a differing rotation angle position on the shaft , and wherein the magnet elements adjoin each other directly, viewed in axial direction of the shaft , wherein the magnet elements are arranged outside a motor housing . wherein the magnet element arrangement comprises several separate magnet elements , which are arranged one behind the other in the longitudinal direction of the shaft , and that the magnetic field sensors are arranged on a printed circuit board which is arranged at a slight distance from the shaft , such that the magnetic fields of the magnet elements are able to be determined by the magnetic field sensors , wherein the magnet elements are constructed in a ring shape and surrounds the shaft radially, the magnet elements being arranged at a differing rotation angle position on the shaft , and wherein the magnet elements adjoin each other directly, viewed in axial direction of the shaft , wherein the magnet elements are arranged outside a motor housing .
A method of converting granular igneous rock feedstock (F) with a grain size profile to an ultra-fine grain finish product for subsequent commercial use, said granular igneous rock feedstock being nepheline syenite particulate feedstock and said ultra-fine grain product having a maximum grain size of less than about 6 microns, said method comprising: (a) providing a dry feedstock (F) of nepheline syenite particulate with a maximum particle size greater than about 20 microns; (b) grinding said feedstock in a dry state by passing said feedstock vertically downward through a continuous, high-speed stirred ball mill having stirring arms (42;52) rotated at a selected high speed in a vertically extending chamber filled with a grinding media (M) whereby said feedstock is ground into an intermediate powder (P) by the action of said media as said media is moved at high speed by said rotating stirring arms, said intermediate powder having a drastically reduced grain size profile than the grain size profile of said feedstock; (c) passing said intermediate powder (P) through an air classifier using a rapidly moving high speed air stream moving along a given path to convey said ultra-fine grain product (FP) along said path and from said classifier and to allow coarse particulate material (CM) including particles larger than said ultra-fine product to be separated by centrifugal force and then expelled from said classifier; (d) collecting said ultra-fine product (FP); and, (e) returning said coarse material (CM) to said high speed stirred ball mill for regrinding. (a) providing a dry feedstock (F) of nepheline syenite particulate with a maximum particle size greater than about 20 microns; (b) grinding said feedstock in a dry state by passing said feedstock vertically downward through a continuous, high-speed stirred ball mill having stirring arms (42;52) rotated at a selected high speed in a vertically extending chamber filled with a grinding media (M) whereby said feedstock is ground into an intermediate powder (P) by the action of said media as said media is moved at high speed by said rotating stirring arms, said intermediate powder having a drastically reduced grain size profile than the grain size profile of said feedstock; (c) passing said intermediate powder (P) through an air classifier using a rapidly moving high speed air stream moving along a given path to convey said ultra-fine grain product (FP) along said path and from said classifier and to allow coarse particulate material (CM) including particles larger than said ultra-fine product to be separated by centrifugal force and then expelled from said classifier; (d) collecting said ultra-fine product (FP); and, (e) returning said coarse material (CM) to said high speed stirred ball mill for regrinding.
A method performed by a user equipment, UE, for managing a power coordination configuration when performing a dual active protocol stack, DAPS, procedure, the method comprising: receiving , by the UE and from a source base station of a radio access network, RAN, a power coordination configuration for application by the UE to constrain uplink power when communicating with a source cell and a target cell of the RAN; initiating , by the UE, the DAPS procedure in accordance with the power coordination configuration; and in response to detecting a failure when performing the DAPS procedure, releasing , by the UE, the power coordination configuration. receiving , by the UE and from a source base station of a radio access network, RAN, a power coordination configuration for application by the UE to constrain uplink power when communicating with a source cell and a target cell of the RAN; initiating , by the UE, the DAPS procedure in accordance with the power coordination configuration; and in response to detecting a failure when performing the DAPS procedure, releasing , by the UE, the power coordination configuration.
A Transcription Activator- Like Effector (TALE) domain, wherein (i) the TALE domain comprises an N-terminal TALE domain according to SEQ ID NO: 1, wherein at least one of K110, K113, and R114 is replaced with an amino acid residue that does not have a cationic charge, has no charge, or has an anionic charge at physiological pH; or (ii) the TALE domain comprises a C-terminal TALE domain according to SEQ ID NO: 22, wherein at least one of R8, R30, K37, K38, K48, R49, R52, R53, R57, and R61 is replaced with an amino acid residue that does not have a cationic charge, has no charge, or has an anionic charge at physiological pH (i) the TALE domain comprises an N-terminal TALE domain according to SEQ ID NO: 1, wherein at least one of K110, K113, and R114 is replaced with an amino acid residue that does not have a cationic charge, has no charge, or has an anionic charge at physiological pH; or (ii) the TALE domain comprises a C-terminal TALE domain according to SEQ ID NO: 22, wherein at least one of R8, R30, K37, K38, K48, R49, R52, R53, R57, and R61 is replaced with an amino acid residue that does not have a cationic charge, has no charge, or has an anionic charge at physiological pH
A bag making and packaging machine receiving an article (C) dropped and supplied from an article supply device disposed above the bag making and packaging machine and packaging the article in a bag (B) to be made, the bag making and packaging machine comprising: a lateral sealing mechanism laterally sealing a packaging material of a cylindrical shape; a servo motor driving the lateral sealing mechanism; and a falling time detector detecting that the article dropped from the article supply device has fallen to a height position of the lateral sealing mechanism based on information related to a torque or an axial rotation amount of the servo motor. a lateral sealing mechanism laterally sealing a packaging material of a cylindrical shape; a servo motor driving the lateral sealing mechanism; and a falling time detector detecting that the article dropped from the article supply device has fallen to a height position of the lateral sealing mechanism based on information related to a torque or an axial rotation amount of the servo motor.
A device for the biological renewal of skin tissue with restoration of the performance characteristics, properties and structures of tissues, having an ultrasound source and a means for forming numerous epicenters of acoustic, non-thermal, in-phase waves on the surface of the skin in need of renewal, these epicentres being equidistant from one another, and the means being designed to emit the waves from the epicentres in a semicircle in order to provide an interference area for the waves , characterized in that the distance between the epicentres of the acoustic waves is in the range between 10 μm and 1 cm and the area of the sources of the in-phase acoustic waves at the means is in the range between 10 nm2 and 10 μm2.
A motorcycle comprising: a vehicle body frame ; an engine with a variable valve timing device , the engine supported by the vehicle body frame ; and an oil control valve unit configured to control a hydraulic pressure to the variable valve timing device of the engine , and wherein a heat exchanger is mounted in front of the engine , wherein the oil control valve unit is mounted at a right or left side of the engine , characterized in that a part of the vehicle body frame is arranged between the oil control valve unit and the heat exchanger in a front and rear direction of the motorcycle . a vehicle body frame ; an engine with a variable valve timing device , the engine supported by the vehicle body frame ; and an oil control valve unit configured to control a hydraulic pressure to the variable valve timing device of the engine , and wherein a heat exchanger is mounted in front of the engine , wherein the oil control valve unit is mounted at a right or left side of the engine , characterized in that a part of the vehicle body frame is arranged between the oil control valve unit and the heat exchanger in a front and rear direction of the motorcycle .
A method for executing an operation by a circuit (CT1), the method comprising executing a first operation (OPR) to process an input data (IND), the circuit generating during the execution of the first operation a first signal (PT1, PT2), characterized in that it comprises executing a second operation receiving the input data and configured to add to the first signal, between first and second instants (t1, t2) during the execution of the first operation, a continuous second signal (DP1, DP2, PP1, PP2), the combination of the first and second signal forming a resultant signal in which the second signal is indistinctly measurable with the first signal from outside of the circuit, the second signal and the resultant signal varying as a function of the input data.
A bearing assembly for a gas turbine engine , the bearing assembly comprising a bearing housing comprising: at least two bearings axially spaced from one another relative to a central axis ; and a case between the at least two bearings , the case comprising a joint configured for relative axial movement between the at least two bearings , characterised in that : the joint is configured to move toward the central axis by bending the case between the at least two bearings upon axial movement of the at least two bearings relative to one another relative to the central axis . at least two bearings axially spaced from one another relative to a central axis ; and a case between the at least two bearings , the case comprising a joint configured for relative axial movement between the at least two bearings ,
A nonwoven fabric comprising a first surface and a second surface and a visually discernible, regular, repeating pattern of three-dimensional features on one of the first or second surface , each of the three-dimensional features defining a microzone comprising a first region and a second region, the first and second regions having a difference in values for an intensive property, wherein the intensive property is one or more of: a. thickness, b. basis weight, and c. volumetric density; wherein the intensive property is measured by the Micro-CT Intensive Property Measurement Method disclosed in the description, wherein in at least one of the microzones the first region is hydrophobic and the second region is hydrophilic, wherein hydrophilicity is provided through targeted application of surfactant onto particular regions of the microzones. a. thickness, b. basis weight, and c. volumetric density;
A rearview assembly comprising: a housing ; a connector configured to be secured to a button within a vehicle , the connector including a mount connecting feature with a plurality of distinct connection locations ; and a mount including a proximal end operably coupled with the housing and a distal end including a location feature configured to engage one of the plurality of distinct connection locations ; wherein the location feature includes forward flanges and rearward flanges disposed within the mount ; the rearview assembly being characterized in that : the forward flanges and rearward flanges of the location feature intersect a cylindrical boss that extends into a receiving socket defined in the connector . a housing ; a connector configured to be secured to a button within a vehicle , the connector including a mount connecting feature with a plurality of distinct connection locations ; and a mount including a proximal end operably coupled with the housing and a distal end including a location feature configured to engage one of the plurality of distinct connection locations ; wherein the location feature includes forward flanges and rearward flanges disposed within the mount ; the rearview assembly being characterized in that : the forward flanges and rearward flanges of the location feature intersect a cylindrical boss that extends into a receiving socket defined in the connector .
An oligonucleotide comprising a nucleobase sequence that has at least 90% sequence identity to: GGTTGACATC GTCTGCCTGT (SEQ ID NO: 208 or SEQ ID NO: 285) wherein C in any of the nucleobase sequences is either cytosine or 5-methylcytosine, and wherein at least one nucleotide of the oligonucleotide has a 2'-modification.
A method of wireless communication, comprising: communicating , by a first wireless communication device with a second wireless communication device, a grant for communicating a first communication signal, the grant indicating a listen-before-talk, LBT, configuration; and communicating , by the first wireless communication device with the second wireless communication device, a LBT configuration modification after communicating the grant; and communicating , by the first wireless communication device with the second wireless communication device, the first communication signal based on the LBT configuration modification. communicating , by a first wireless communication device with a second wireless communication device, a grant for communicating a first communication signal, the grant indicating a listen-before-talk, LBT, configuration; and communicating , by the first wireless communication device with the second wireless communication device, a LBT configuration modification after communicating the grant; and communicating , by the first wireless communication device with the second wireless communication device, the first communication signal based on the LBT configuration modification.