mhurhangee/patent-ind-claim-en huggingface dataset:
Method for authorizing or refusing to measure an insulation fault in an electric energy storage battery for a vehicle, said method being characterized in that it comprises the steps of: - unload a capacity of a powertrain for the first time, - when said capacity is discharged for the first time: o measuring a first battery voltage between a first terminal and a second terminal of a battery , o measure a first leakage voltage (V1) between the first terminal and a ground of the vehicle, - discharge a second time said capacity , - when said capacity is discharged a second time: o measure a second battery voltage between the first terminal and the second terminal , o measure a second leakage voltage (V2) between the second terminal and the ground of the vehicle, - determining a battery voltage difference between said first measured battery voltage and said second measured battery voltage, - depending on said first measured leakage voltage (V1), said second measured leakage voltage (V2), and said determined battery voltage difference, authorize or refuse an insulation fault detection. - unload a capacity of a powertrain for the first time, - when said capacity is discharged for the first time: o measuring a first battery voltage between a first terminal and a second terminal of a battery , o measure a first leakage voltage (V1) between the first terminal and a ground of the vehicle, o measuring a first battery voltage between a first terminal and a second terminal of a battery , o measure a first leakage voltage (V1) between the first terminal and a ground of the vehicle, - discharge a second time said capacity , - when said capacity is discharged a second time: o measure a second battery voltage between the first terminal and the second terminal , o measure a second leakage voltage (V2) between the second terminal and the ground of the vehicle, o measure a second battery voltage between the first terminal and the second terminal , o measure a second leakage voltage (V2) between the second terminal and the ground of the vehicle, - determining a battery voltage difference between said first measured battery voltage and said second measured battery voltage, - depending on said first measured leakage voltage (V1), said second measured leakage voltage (V2), and said determined battery voltage difference, authorize or refuse an insulation fault detection.
A homogeneous light-emitting diode (LED) lamp for an automotive vehicle, comprising: a plurality of LEDs (111 - 116) configured as a LED array, wherein the LED array includes at least one linear array of LEDs aligned linearly along a longitudinal axis (L-L'); a diffusion sheet having a curvature aligned with the LED array, wherein the diffusion sheet has a curvature along a transverse axis, perpendicular to the longitudinal axis, such that the diffusion sheet curves around the LED array and extends along the longitudinal axis for smoothing and bending light emitted by the LED array; wherein a first distance is a center-to-center distance between each of the plurality of LEDs, the first distance being between equal to a diameter of each LED to twice the diameter of each LED, and a second distance between the LED array and the diffusion sheet is between half the diameter of each LED to equal the diameter of each LED, and wherein the first distance and the second distance are arranged for the purpose of creating a lighting appearance substantially lacking hotspots. a plurality of LEDs (111 - 116) configured as a LED array, wherein the LED array includes at least one linear array of LEDs aligned linearly along a longitudinal axis (L-L'); a diffusion sheet having a curvature aligned with the LED array, wherein the diffusion sheet has a curvature along a transverse axis, perpendicular to the longitudinal axis, such that the diffusion sheet curves around the LED array and extends along the longitudinal axis for smoothing and bending light emitted by the LED array; wherein a first distance is a center-to-center distance between each of the plurality of LEDs, the first distance being between equal to a diameter of each LED to twice the diameter of each LED, and a second distance between the LED array and the diffusion sheet is between half the diameter of each LED to equal the diameter of each LED, and wherein the first distance and the second distance are arranged for the purpose of creating a lighting appearance substantially lacking hotspots.
A method for forming a solar cell structure , the method comprising: positioning a first wafer and a second wafer relative to each other such that first nanotubes on the first wafer are opposite to second nanotubes on the second wafer , wherein the first nanotubes extend in a direction substantially perpendicular to a first surface of the first wafer and the second nanotubes extend in a direction substantially perpendicular to a second surface of the second wafer ; wherein the ends of the first nanotubes and the second nanotubes comprise engagement features having a shape selected from a hook shape, a loop shape, a corkscrew shape and a tapered shape, forming a mechanical connection between first nanotubes and second nanotubes via the engagement features, and connecting the first nanotubes to the second nanotubes , wherein the first wafer is connected to the second wafer to form the solar cell structure . positioning a first wafer and a second wafer relative to each other such that first nanotubes on the first wafer are opposite to second nanotubes on the second wafer , wherein the first nanotubes extend in a direction substantially perpendicular to a first surface of the first wafer and the second nanotubes extend in a direction substantially perpendicular to a second surface of the second wafer ; wherein the ends of the first nanotubes and the second nanotubes comprise engagement features having a shape selected from a hook shape, a loop shape, a corkscrew shape and a tapered shape, forming a mechanical connection between first nanotubes and second nanotubes via the engagement features, and wherein the first nanotubes extend in a direction substantially perpendicular to a first surface of the first wafer and the second nanotubes extend in a direction substantially perpendicular to a second surface of the second wafer ; wherein the ends of the first nanotubes and the second nanotubes comprise engagement features having a shape selected from a hook shape, a loop shape, a corkscrew shape and a tapered shape, forming a mechanical connection between first nanotubes and second nanotubes via the engagement features, and connecting the first nanotubes to the second nanotubes , wherein the first wafer is connected to the second wafer to form the solar cell structure .
A card-type terminal (10; 10a) having a card-shaped housing, the terminal comprising: a display unit ; and a plurality of sensor elements , wherein the plurality of sensor elements are provided separate from the display unit, and wherein the plurality of sensor elements are arranged in a direction along an arcuate axis, wherein the display unit is configured to switch display between a plurality of output screens based on a user input on the plurality of sensor elements , the plurality of output screens comprising output screens having different hierarchical levels and output screens having a same hierarchical level, wherein the output screens having different hierarchical levels display information on the different hierarchical levels, and the switching display is controlled to switch display directly between the output screens having different hierarchical levels based on the user input, wherein: the user input is one of a first operation and a second operation, wherein the first operation and the second operation are different operations, and when the user input is the first operation, the output screens having different hierarchical levels are switched sequentially based on the user input, and when the user input is the second operation, the output screens having the same hierarchical levels are switched sequentially based on the user input. a display unit ; and a plurality of sensor elements , wherein the plurality of sensor elements are provided separate from the display unit, and wherein the plurality of sensor elements are arranged in a direction along an arcuate axis, wherein the display unit is configured to switch display between a plurality of output screens based on a user input on the plurality of sensor elements , the plurality of output screens comprising output screens having different hierarchical levels and output screens having a same hierarchical level, wherein the output screens having different hierarchical levels display information on the different hierarchical levels, and the switching display is controlled to switch display directly between the output screens having different hierarchical levels based on the user input, wherein: the user input is one of a first operation and a second operation, wherein the first operation and the second operation are different operations, and when the user input is the first operation, the output screens having different hierarchical levels are switched sequentially based on the user input, and when the user input is the second operation, the output screens having the same hierarchical levels are switched sequentially based on the user input. the user input is one of a first operation and a second operation, wherein the first operation and the second operation are different operations, and when the user input is the first operation, the output screens having different hierarchical levels are switched sequentially based on the user input, and when the user input is the second operation, the output screens having the same hierarchical levels are switched sequentially based on the user input.
A thrust reverser for a turbojet aircraft nacelle comprising: - a fixed structure , - a movable structure , - an actuator extending along a main axis (A1) and connected by a first connection (P1) to the fixed structure and by a second connection (P2) to the movable structure for the deployment of the movable structure between a direct jet position and a reverse jet position, characterized in that : the actuator is further connected to the fixed structure by a third connection (P3) disposed longitudinally between the first connection (P1) and the second connection (P2), the axis (A3) of the third connection (P3) is radially eccentric from said main axis (A1), and in that the third connection (P3) allows a predetermined displacement of the actuator with respect to the fixed structure . - a fixed structure , - a movable structure , - an actuator extending along a main axis (A1) and connected by a first connection (P1) to the fixed structure and by a second connection (P2) to the movable structure for the deployment of the movable structure between a direct jet position and a reverse jet position, the actuator is further connected to the fixed structure by a third connection (P3) disposed longitudinally between the first connection (P1) and the second connection (P2), the axis (A3) of the third connection (P3) is radially eccentric from said main axis (A1), and in that the third connection (P3) allows a predetermined displacement of the actuator with respect to the fixed structure .
A method for diagnosing psoriasis (PS or PSOR) and/or Crohn's disease (CD) in a patient, the method comprising: a) detecting in a nucleic acid in a sample obtained from said patient, a genetic alteration in ADCY7 wherein the genetic alteration in ADCY7 is correlated with presence of PS and/or CD in the patient; and b) diagnosing the patient with PS and/or CD. a) detecting in a nucleic acid in a sample obtained from said patient, a genetic alteration in ADCY7 wherein the genetic alteration in ADCY7 is correlated with presence of PS and/or CD in the patient; and b) diagnosing the patient with PS and/or CD.
A printing apparatus comprising: a carriage to which a printhead is detachably mounted; an operation member rotatably provided to the carriage and movable between a first position at which the printhead is attached to or detached from the carriage and a second position at which the printhead is fixed to the carriage; a fixing member , rotatably provided to the operation member , capable of fixing the printhead to the carriage; and a spring member hung between the carriage and the fixing member , wherein if the operation member is at the second position in a state in which the printhead is mounted to the carriage, the fixing member fixes the printhead by pulling the spring member to have a first length (L1), and if the operation member is at the second position in a state in which the printhead is not mounted to the carriage, the fixing member pulls the spring member to have a second length (L2) shorter than the first length. a carriage to which a printhead is detachably mounted; an operation member rotatably provided to the carriage and movable between a first position at which the printhead is attached to or detached from the carriage and a second position at which the printhead is fixed to the carriage; a fixing member , rotatably provided to the operation member , capable of fixing the printhead to the carriage; and a spring member hung between the carriage and the fixing member , wherein if the operation member is at the second position in a state in which the printhead is mounted to the carriage, the fixing member fixes the printhead by pulling the spring member to have a first length (L1), and if the operation member is at the second position in a state in which the printhead is not mounted to the carriage, the fixing member pulls the spring member to have a second length (L2) shorter than the first length.
A method for sending cell control reference information, comprising: generating, by a base station having M antenna ports before common control information needs to be sent, the cell control reference information used to detect the common control information; mapping, by the base station , the common control information and the cell control reference information to one or more resource units, RUs, of N antenna ports, wherein the N antenna ports are some of the M antenna ports; and sending, by the base station by using the one or more RUs, the common control information and the cell control reference information used to detect the common control information to a UE within a coverage area of the base station. generating, by a base station having M antenna ports before common control information needs to be sent, the cell control reference information used to detect the common control information; mapping, by the base station , the common control information and the cell control reference information to one or more resource units, RUs, of N antenna ports, wherein the N antenna ports are some of the M antenna ports; and sending, by the base station by using the one or more RUs, the common control information and the cell control reference information used to detect the common control information to a UE within a coverage area of the base station.
A lifting and lowering tool system comprising: a lifting and lowering tool comprising: a foot configured to be supported on a surface; a bar extending from the foot; a movable assembly comprising: a housing ; a movable platform shaped to support a load thereon; a lifting actuator configured to incrementally move the movable assembly along the bar away from the foot; a lowering actuator configured to incrementally move the movable assembly along the bar towards the foot; and a release actuator configured to disengage the movable assembly from the bar to allow free movement of the movable assembly along the bar; and a support extension configured to support a load thereon and further configured to couple to the moveable platform such that movement of the movable assembly along the bar raises or lowers the support extension. a lifting and lowering tool comprising: a foot configured to be supported on a surface; a bar extending from the foot; a movable assembly comprising: a housing ; a movable platform shaped to support a load thereon; a lifting actuator configured to incrementally move the movable assembly along the bar away from the foot; a lowering actuator configured to incrementally move the movable assembly along the bar towards the foot; and a release actuator configured to disengage the movable assembly from the bar to allow free movement of the movable assembly along the bar; and a foot configured to be supported on a surface; a bar extending from the foot; a movable assembly comprising: a housing ; a movable platform shaped to support a load thereon; a lifting actuator configured to incrementally move the movable assembly along the bar away from the foot; a lowering actuator configured to incrementally move the movable assembly along the bar towards the foot; and a release actuator configured to disengage the movable assembly from the bar to allow free movement of the movable assembly along the bar; and a housing ; a movable platform shaped to support a load thereon; a lifting actuator configured to incrementally move the movable assembly along the bar away from the foot; a lowering actuator configured to incrementally move the movable assembly along the bar towards the foot; and a release actuator configured to disengage the movable assembly from the bar to allow free movement of the movable assembly along the bar; and a support extension configured to support a load thereon and further configured to couple to the moveable platform such that movement of the movable assembly along the bar raises or lowers the support extension.
A method of controlling a pilot/main fuel schedule to an annular combustor of a gas turbine engine of an aircraft comprising: scheduling a first percentage of a total fuel flow to an axial pilot fuel injection system operable to supply the fuel into a forward combustion zone of a combustion chamber generally along an axis (F), and scheduling a second percentage of the total fuel flow to a radial main fuel injection system that communicates with a downstream combustion zone of the combustion chamber downstream of the axial pilot fuel injection system and generally transverse to the axis (F), wherein the scheduling comprises: correlating, based on an engine operating parameter, a nominal fuel schedule comprising a range for the first and second percentages of the total fuel flow; characterized in that the scheduling further comprises optimizing the nominal fuel schedule within the range, to mitigate combustor tones while also meeting other combustor metrics, to determine the first and second percentages of the total fuel flow. scheduling a first percentage of a total fuel flow to an axial pilot fuel injection system operable to supply the fuel into a forward combustion zone of a combustion chamber generally along an axis (F), and scheduling a second percentage of the total fuel flow to a radial main fuel injection system that communicates with a downstream combustion zone of the combustion chamber downstream of the axial pilot fuel injection system and generally transverse to the axis (F), wherein the scheduling comprises: correlating, based on an engine operating parameter, a nominal fuel schedule comprising a range for the first and second percentages of the total fuel flow; characterized in that the scheduling further comprises optimizing the nominal fuel schedule within the range, to mitigate combustor tones while also meeting other combustor metrics, to determine the first and second percentages of the total fuel flow. correlating, based on an engine operating parameter, a nominal fuel schedule comprising a range for the first and second percentages of the total fuel flow; characterized in that the scheduling further comprises optimizing the nominal fuel schedule within the range, to mitigate combustor tones while also meeting other combustor metrics, to determine the first and second percentages of the total fuel flow.
A screw compressor for a utility vehicle having at least one housing and at least one air-oil separator holder arranged on the housing , there being provided a relief valve that is arranged in the air-oil separator holder and by means of which the pressure inside the screw compressor can be relieved, characterised in that air-oil separator holder is manufactured from a non-corrosive material, the relief valve being connected to the air inlet of the screw compressor and it being possible to connect the relief valve with the atmosphere via the air inlet , the housing consisting of a material other than that of the air-oil separator holder .
A computer implemented method, comprising: receiving a query requesting a response specifying how many users have an attribute that matches a particular attribute specified in the query; obtaining , using a probabilistic data structure, a first number of users that includes both an estimated number of users that match the given attribute and false positives returned from the probabilistic data structure, wherein the probabilistic data structure includes a plurality of privacy enhanced representations of unique entries for a plurality of users; and determining the estimated number of users based on the first number of users and a false positive rate of the probabilistic data structure. receiving a query requesting a response specifying how many users have an attribute that matches a particular attribute specified in the query; obtaining , using a probabilistic data structure, a first number of users that includes both an estimated number of users that match the given attribute and false positives returned from the probabilistic data structure, wherein the probabilistic data structure includes a plurality of privacy enhanced representations of unique entries for a plurality of users; and determining the estimated number of users based on the first number of users and a false positive rate of the probabilistic data structure.