mhurhangee/patent-ind-claim-en huggingface dataset:
Aircraft turbine engine comprising - a fan and a reducer to rotate the fan about the drive shaft (X) - a subassembly for an aircraft turbine engine extending along a drive shaft (X) directed from upstream to downstream, between an upstream air inlet end and a downstream air outlet end, the subassembly comprising: - a row of stator vanes , the row of stator vanes is an input row of the aircraft turbine engine , - a row of structural arms of an input support casing of the aircraft turbine engine , and extend at least partially circumferentially around the reducer and being capable for the passage of force to the reducer , - a row of input rotor vanes of a low-pressure compressor , of the aircraft turbine engine , the subassembly being such that: - these rows are arranged, in the abovesaid order, successively and directly, along the drive shaft (X); - at least one downstream portion of at least one of the arms extends both axially and circumferentially and has an extension direction into a downstream trailing edge of the arm inclined by an angle (α) which is non-zero with respect to the drive shaft (X), so as to circumferentially deviate an airflow of an axial trajectory. - a fan and a reducer to rotate the fan about the drive shaft (X) - a subassembly for an aircraft turbine engine extending along a drive shaft (X) directed from upstream to downstream, between an upstream air inlet end and a downstream air outlet end, the subassembly comprising: - a row of stator vanes , the row of stator vanes is an input row of the aircraft turbine engine , - a row of structural arms of an input support casing of the aircraft turbine engine , and extend at least partially circumferentially around the reducer and being capable for the passage of force to the reducer , - a row of input rotor vanes of a low-pressure compressor , of the aircraft turbine engine , - a row of stator vanes , the row of stator vanes is an input row of the aircraft turbine engine , - a row of structural arms of an input support casing of the aircraft turbine engine , and extend at least partially circumferentially around the reducer and being capable for the passage of force to the reducer , - a row of input rotor vanes of a low-pressure compressor , of the aircraft turbine engine , the subassembly being such that: - these rows are arranged, in the abovesaid order, successively and directly, along the drive shaft (X); - at least one downstream portion of at least one of the arms extends both axially and circumferentially and has an extension direction into a downstream trailing edge of the arm inclined by an angle (α) which is non-zero with respect to the drive shaft (X), so as to circumferentially deviate an airflow of an axial trajectory. - these rows are arranged, in the abovesaid order, successively and directly, along the drive shaft (X); - at least one downstream portion of at least one of the arms extends both axially and circumferentially and has an extension direction into a downstream trailing edge of the arm inclined by an angle (α) which is non-zero with respect to the drive shaft (X), so as to circumferentially deviate an airflow of an axial trajectory.
A washing machine comprising: a tub configured to contain water; a drum of metal material configured to be rotated in the tub ; an induction heater disposed in a position spaced apart from the drum and configured to heat the drum by a magnetic force generated when a current is applied to a coil ; an input power source; a relay configured to interrupt a current applied to the coil of the induction heater from the input power source; a first processor configured to control the relay ; and a safety device connected to a circuit connecting the first processor and the relay , wherein the safety device comprises: a first thermostat disposed on an outer side on the top of the tub while being inserted into the inside of the tub located between the tub and the drum so as to be configured to operate according to a temperature of a first air between the drum and the tub , and to open the circuit when the temperature of the first air is a first safety control temperature; and a thermal fuse disposed outside the tub configured to operate according to a temperature of a second air outside the tub , and to open the circuit when the temperature of the second air is a second safety control temperature. a tub configured to contain water; a drum of metal material configured to be rotated in the tub ; an induction heater disposed in a position spaced apart from the drum and configured to heat the drum by a magnetic force generated when a current is applied to a coil ; an input power source; a relay configured to interrupt a current applied to the coil of the induction heater from the input power source; a first processor configured to control the relay ; and a safety device connected to a circuit connecting the first processor and the relay , wherein the safety device comprises: a first thermostat disposed on an outer side on the top of the tub while being inserted into the inside of the tub located between the tub and the drum so as to be configured to operate according to a temperature of a first air between the drum and the tub , and to open the circuit when the temperature of the first air is a first safety control temperature; and a thermal fuse disposed outside the tub configured to operate according to a temperature of a second air outside the tub , and to open the circuit when the temperature of the second air is a second safety control temperature. a first thermostat disposed on an outer side on the top of the tub while being inserted into the inside of the tub located between the tub and the drum so as to be configured to operate according to a temperature of a first air between the drum and the tub , and to open the circuit when the temperature of the first air is a first safety control temperature; and a thermal fuse disposed outside the tub configured to operate according to a temperature of a second air outside the tub , and to open the circuit when the temperature of the second air is a second safety control temperature.
A test and measurement instrument comprising: an input port configured to receive measurement data; a processor coupled to the input port and configured to: apply a plurality of classifiers to the measurement data to determine a classification for the measurement data, whereby a machine learning module is employed to train the plurality of classifiers; select a model corresponding to the classification, the model corresponding to one or more suggested actions; and recommend the suggested actions to a user; and a user control coupled to the processor, the user control configured to receive a selection from the user; wherein the processor is further configured to, in response to the selection from the user, configure the test and measurement instrument to employ the suggested actions corresponding to the selected model when capturing a waveform received over the input port. an input port configured to receive measurement data; a processor coupled to the input port and configured to: apply a plurality of classifiers to the measurement data to determine a classification for the measurement data, whereby a machine learning module is employed to train the plurality of classifiers; select a model corresponding to the classification, the model corresponding to one or more suggested actions; and recommend the suggested actions to a user; and apply a plurality of classifiers to the measurement data to determine a classification for the measurement data, whereby a machine learning module is employed to train the plurality of classifiers; select a model corresponding to the classification, the model corresponding to one or more suggested actions; and recommend the suggested actions to a user; and a user control coupled to the processor, the user control configured to receive a selection from the user; wherein the processor is further configured to, in response to the selection from the user, configure the test and measurement instrument to employ the suggested actions corresponding to the selected model when capturing a waveform received over the input port.
A wearable medical device for monitoring a patient for a cardiac arrhythmia condition comprising: a garment worn about a torso of a patient, a plurality of sensing electrodes configured to monitor ECG signals of the patient, a plurality of therapy electrodes configured to provide treatment to the patient, and a controller configured to detect a cardiac condition of the patient based on the monitored ECG signals of the patient and provide at least one therapeutic pulse to the patient based on the detected cardiac condition; wherein the garment comprises: the plurality of sensing electrodes which are permanently coupled at first predetermined locations on the garment, and an exterior fabric layer forming the exterior surface of the garment, an interior fabric layer forming the interior surface of the garment, one or more removable modules , and a plurality of cables disposed between the exterior fabric layer and the interior fabric layer, the plurality of cables coupling the plurality of ECG sensing electrodes to the one or more removable modules . a garment worn about a torso of a patient, a plurality of sensing electrodes configured to monitor ECG signals of the patient, a plurality of therapy electrodes configured to provide treatment to the patient, and a controller configured to detect a cardiac condition of the patient based on the monitored ECG signals of the patient and provide at least one therapeutic pulse to the patient based on the detected cardiac condition; wherein the garment comprises: the plurality of sensing electrodes which are permanently coupled at first predetermined locations on the garment, and an exterior fabric layer forming the exterior surface of the garment, an interior fabric layer forming the interior surface of the garment, one or more removable modules , and a plurality of cables disposed between the exterior fabric layer and the interior fabric layer, the plurality of cables coupling the plurality of ECG sensing electrodes to the one or the plurality of sensing electrodes which are permanently coupled at first predetermined locations on the garment, and an exterior fabric layer forming the exterior surface of the garment, an interior fabric layer forming the interior surface of the garment, one or more removable modules , and a plurality of cables disposed between the exterior fabric layer and the interior fabric layer, the plurality of cables coupling the plurality of ECG sensing electrodes to the one or more removable modules .
A method for producing a counterform for manufacturing a part of complex shape (1; 24d) by means of pressure sintering densification, characterized in that the counterform (20; 30a, 30b) is formed of successive layers produced by means of digitally controlled three-dimensional additive printing according to the following steps: - digitally recording a three-dimensional negative of the part to be produced (1; 24d) in a control unit of a three-dimensional additive printing system in order to make a print of the counterform (20; 30, 30b) to be produced, the rest of the counterform having faces of suitable shape for a mold for manufacturing the part (1; 24d); - producing the counterform by means of a 3D additive printing technique, the size of the counterform (20; 30a, 30b) being increased by a density stretch factor that compensates for a shrinkage in the size of the part to be manufactured (1; 24d) in the direction of the uniaxial pressure (F) applied during the sintering densification of the part to be manufactured; and - completing the additive printing of the counterform (20; 30a, 30b) by sintering. - digitally recording a three-dimensional negative of the part to be produced (1; 24d) in a control unit of a three-dimensional additive printing system in order to make a print of the counterform (20; 30, 30b) to be produced, the rest of the counterform having faces of suitable shape for a mold for manufacturing the part (1; 24d); - producing the counterform by means of a 3D additive printing technique, the size of the counterform (20; 30a, 30b) being increased by a density stretch factor that compensates for a shrinkage in the size of the part to be manufactured (1; 24d) in the direction of the uniaxial pressure (F) applied during the sintering densification of the part to be manufactured; and - completing the additive printing of the counterform (20; 30a, 30b) by sintering.
An inhibitor or antibody for use in treatment of a malignant tumor in a human patient, wherein the inhibitor or antibody is a LAG-3 inhibitor in combination with a PD-1 pathway inhibitor, wherein the LAG-3 inhibitor is an anti-LAG-3 antibody or antigen-binding fragment thereof, and wherein the PD-1 pathway inhibitor is an anti-PD-1 antibody or antigen-binding fragment thereof, an anti-PD-L1 antibody or antigen-binding fragment thereof, or an anti-PD-L2 antibody or antigen-binding fragment thereof, wherein the patient is predicted to respond to the treatment when a sample of the patient's malignant tumor is LAG-3 positive, and wherein the sample is LAG-3 positive when the sample comprises at least about 1% cells expressing LAG-3, wherein the cells expressing LAG-3 comprise tumor-infiltrating lymphocytes. wherein the inhibitor or antibody is a LAG-3 inhibitor in combination with a PD-1 pathway inhibitor, wherein the LAG-3 inhibitor is an anti-LAG-3 antibody or antigen-binding fragment thereof, and wherein the PD-1 pathway inhibitor is an anti-PD-1 antibody or antigen-binding fragment thereof, an anti-PD-L1 antibody or antigen-binding fragment thereof, or an anti-PD-L2 antibody or antigen-binding fragment thereof, wherein the patient is predicted to respond to the treatment when a sample of the patient's malignant tumor is LAG-3 positive, and wherein the sample is LAG-3 positive when the sample comprises at least about 1% cells expressing LAG-3, wherein the cells expressing LAG-3 comprise tumor-infiltrating lymphocytes.
Use of a vinyl-based comb copolymer in a viscosity index improver or in a lubricating oil composition, wherein the vinyl-based comb copolymer is a polymer of: a polyisobutylene-based macromonomer (A) having at least 0.8 (meth)acryloyl groups represented by general formula , at one end of a main chain within one molecule; and a vinyl-based monomer (B), wherein R 1 represents hydrogen or a methyl group, R 2 represents a divalent saturated hydrocarbon group having 2 to 6 carbon atoms and having no hetero atoms, and R 3 and R 4 each represent hydrogen, a monovalent hydrocarbon group having 1 to 20 carbon atoms, or an alkoxy group.
A saddle type vehicle comprising: a power unit which in turn includes an engine and a vehicle-body driving motor ; and an electrical component including a power conversion unit for converting electric power of a battery in a battery case into driving power of the vehicle-body driving motor , a control unit for controlling driving of the vehicle-body driving motor , regeneration into electric energy or a power drive unit (PDU) including such power conversion unit and control unit; the electrical component being provided in front of the engine ; a rectification member being provided integrally with the electrical component to shunt and guide traveling air to the engine and the electrical component; the rectification member including rectifying plates directed to the engine and the electrical component. a power unit which in turn includes an engine and a vehicle-body driving motor ; and an electrical component including a power conversion unit for converting electric power of a battery in a battery case into driving power of the vehicle-body driving motor , a control unit for controlling driving of the vehicle-body driving motor , regeneration into electric energy or a power drive unit (PDU) including such power conversion unit and control unit; the electrical component being provided in front of the engine ; a rectification member being provided integrally with the electrical component to shunt and guide traveling air to the engine and the electrical component; the rectification member including rectifying plates directed to the engine and the electrical component.
A mobile robot, comprising: a body ; a bumper which is spaced apart from the body and surrounds at least a portion of an outer circumference of the body ; a position restoring module , with one side being connected to the body and the other side being connected to the bumper , and having an elastic member ; a bumper guide module , having a guide hole which is formed at one side of the bumper , and a protruding guider which corresponds to the guide hole in the body and is inserted into the guide hole to move inside the guide hole ; and an impact sensing module disposed at one side of the body , and having a bar which is adjacent to the bumper and moves along with the bumper when impact is applied, and a detection sensor configured to detect movement of the bar , characterized in that the impact sensing module comprises: a sensing module case disposed at one side of the body ; a hinge disposed inside the sensing module case and having a rotation axis which is perpendicular to the floor; a first bar , one side of which is adjacent to an inner surface of the bumper and the other side of which is connected to the hinge ; and a second bar , on one side of which a detection sensor for detecting movement is disposed, and the other side of which is connected to the hinge . a body ; a bumper which is spaced apart from the body and surrounds at least a portion of an outer circumference of the body ; a position restoring module , with one side being connected to the body and the other side being connected to the bumper , and having an elastic member ; a bumper guide module , having a guide hole which is formed at one side of the bumper , and a protruding guider which corresponds to the guide hole in the body and is inserted into the guide hole to move inside the guide hole ; and an impact sensing module disposed at one side of the body , and having a bar which is adjacent to the bumper and moves along with the bumper when impact is applied, and a detection sensor configured to detect movement of the bar , characterized in that the impact sensing module comprises: a sensing module case disposed at one side of the body ; a hinge disposed inside the sensing module case and having a rotation axis which is perpendicular to the floor; a first bar , one side of which is adjacent to an inner surface of the bumper and the other side of which is connected to the hinge ; and a second bar , on one side of which a detection sensor for detecting movement is disposed, and the other side of which is connected to the hinge . a sensing module case disposed at one side of the body ; a hinge disposed inside the sensing module case and having a rotation axis which is perpendicular to the floor; a first bar , one side of which is adjacent to an inner surface of the bumper and the other side of which is connected to the hinge ; and a second bar , on one side of which a detection sensor for detecting movement is disposed, and the other side of which is connected to the hinge .
A method, comprising: converting a set of scene pixel values for a scene pixel in a scene image captured from an original scene into a set of I, T and P scene pixel values represented in an ICtCp color space for the scene pixel, the set of scene pixel values being represented in an input color space; mapping , based on an optical-to-optical transfer function ,OOTF, an I scene pixel value in the set of I, T and P scene pixel values to a mapped I scene pixel value; and generating a display image including a display pixel for which a set of display pixel values includes the mapped I scene pixel value. converting a set of scene pixel values for a scene pixel in a scene image captured from an original scene into a set of I, T and P scene pixel values represented in an ICtCp color space for the scene pixel, the set of scene pixel values being represented in an input color space; mapping , based on an optical-to-optical transfer function ,OOTF, an I scene pixel value in the set of I, T and P scene pixel values to a mapped I scene pixel value; and generating a display image including a display pixel for which a set of display pixel values includes the mapped I scene pixel value.
A method for sterilizing a load in a sterilization chamber under vacuum, comprising the steps of: admitting a sterilant gas into the sterilization chamber under vacuum; during admission of the sterilant gas, monitoring the chamber pressure in the sterilization chamber ; determining a value of the chamber pressure, either upon the occurrence of condensation, or at the onset of condensation; selecting a sterilization cycle among a plurality of predetermined sterilization cycles according to the value of the chamber pressure upon the occurrence of condensation, or at the onset of condensation; and performing the selected sterilization cycle for sterilizing the load. admitting a sterilant gas into the sterilization chamber under vacuum; during admission of the sterilant gas, monitoring the chamber pressure in the sterilization chamber ; determining a value of the chamber pressure, either upon the occurrence of condensation, or at the onset of condensation; selecting a sterilization cycle among a plurality of predetermined sterilization cycles according to the value of the chamber pressure upon the occurrence of condensation, or at the onset of condensation; and performing the selected sterilization cycle for sterilizing the load.
A method for controlling a pixel of an image sensor, wherein each pixel of the image sensor comprises at least one photodiode (PH) formed in a semiconductor active layer by a doped region of a first type of conductivity covered by a superficial region of the opposite type maintained at a nil reference potential, and an anti-blooming gate (G5) above the active layer, adjacent on one side to the photodiode and on another side to a drain for evacuating electric charges, connected to a reference potential, the sensor operating periodically with at each period a determined duration of integration (Ti), characterized in that the anti-blooming gate is set, during most of the duration of integration, to a blocking potential creating in the active layer beneath the gate a potential barrier of a first height, and, during a series of brief pulses over the duration of integration, to a positive anti-blooming potential (VR) creating beneath the gate a potential barrier of a second height, lower than the first, this latter potential barrier retaining the charges representing the lighting in the photodiode up to a blooming threshold.
A stretched body of a composition comprising a semi-aromatic polyamide resin, characterised by the composition further comprising plate-shaped talc having an aspect ratio of more than 18, a content of the plate-shaped talc being from 3.0 to 55.0 mass% when the total content of the semi-aromatic polyamide resin and the plate-shaped talc is 100 mass%.