mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling an aircraft comprising: receiving input for commanded thrust of the aircraft ; modifying the commanded thrust using a model of an incumbent powerplant to generate a modified commanded thrust (Mrq) for matching aircraft performance with a new powerplant of the aircraft to the aircraft performance with the incumbent powerplant , wherein the new powerplant is a hybrid electric powerplant including a heat engine and an electric motor connected in parallel with one another to drive a propeller , and the incumbent powerplant is a gas turbine engine; and applying the modified commanded thrust (Mrq) to the new powerplant . receiving input for commanded thrust of the aircraft ; modifying the commanded thrust using a model of an incumbent powerplant to generate a modified commanded thrust (Mrq) for matching aircraft performance with a new powerplant of the aircraft to the aircraft performance with the incumbent powerplant , wherein the new powerplant is a hybrid electric powerplant including a heat engine and an electric motor connected in parallel with one another to drive a propeller , and the incumbent powerplant is a gas turbine engine; and applying the modified commanded thrust (Mrq) to the new powerplant .
An injection system (200;700) for injecting one or more fluids into a patient, the injection system (200;700) comprising one or more supply stations (105a;105b) each one for supplying one of the fluids to be injected, wherein at least one of the supply stations (105a;105b) comprises: a bottle holder (115a;115b) for holding a bottle (110a;110b) containing the fluid to be injected, the bottle holder (115a;115b) comprising a first connector (415;1135), and a cover (120a;120b) for covering the bottle (110a;110b) when held on the bottle holder (115a;115b), the cover (120a;120b) comprising a second connector for mating with the first connector (415;1135) to mount the cover (120a;120b) on the bottle holder (115a;115b), characterized in that said at least one supply station (105a;105b) further comprises: a bag holder (205a;205b) for holding a bag containing the fluid to be injected, the bag holder (205a;205b) comprising a further second connector for mating with the first connector (415;1135) to mount the bag holder (205a;205b) on the bottle holder (115a;115b) and a further first connector for mating with the second connector to mount the cover (120a;120b) on the bag holder (205a;205b). a bottle holder (115a;115b) for holding a bottle (110a;110b) containing the fluid to be injected, the bottle holder (115a;115b) comprising a first connector (415;1135), and a cover (120a;120b) for covering the bottle (110a;110b) when held on the bottle holder (115a;115b), the cover (120a;120b) comprising a second connector for mating with the first connector (415;1135) to mount the cover (120a;120b) on the bottle holder (115a;115b),
An imaging system comprising: a high-energy x-ray source to irradiate at least a portion of an object with a beam of x-ray radiation; a detector array to detect object measurement data indicative of an interaction of x-rays with at least a portion of the object; a reference detector including a plurality of detector elements (101a, 101b,...101n) stacked in a stacking direction along an x-ray beam path to detect x-ray beam fluctuations in the high-energy x-ray source, the reference detector receiving x-rays directly from the high-energy x-ray source; and a processing unit having a central processing unit programmable to: receive object measurement data from the detector array and measurements of an x-ray beam dose and an x-ray beam attenuation from the reference detector; determine a dose correction factor or energy correction factor using the measured x-ray beam dose and the measured x-ray beam attenuation from the reference detector; and correct for x-ray beam fluctuations by applying the dose correction factor or energy correction factor to the object measurement data from the detector array. a high-energy x-ray source to irradiate at least a portion of an object with a beam of x-ray radiation; a detector array to detect object measurement data indicative of an interaction of x-rays with at least a portion of the object; a reference detector including a plurality of detector elements (101a, 101b,...101n) stacked in a stacking direction along an x-ray beam path to detect x-ray beam fluctuations in the high-energy x-ray source, the reference detector receiving x-rays directly from the high-energy x-ray source; and a processing unit having a central processing unit programmable to: receive object measurement data from the detector array and measurements of an x-ray beam dose and an x-ray beam attenuation from the reference detector; determine a dose correction factor or energy correction factor using the measured x-ray beam dose and the measured x-ray beam attenuation from the reference detector; and correct for x-ray beam fluctuations by applying the dose correction factor or energy correction factor to the object measurement data from the detector array. receive object measurement data from the detector array and measurements of an x-ray beam dose and an x-ray beam attenuation from the reference detector; determine a dose correction factor or energy correction factor using the measured x-ray beam dose and the measured x-ray beam attenuation from the reference detector; and correct for x-ray beam fluctuations by applying the dose correction factor or energy correction factor to the object measurement data from the detector array.
Electrical connection comprising an, in particular platelike, first electrically conductive component which has an opening , a bolt comprising a head which extends along a first longitudinal axis (I) and a thread section , and an electrically conductive plastically deformable ring having a sleeve section comprising a through-opening with a second longitudinal axis for receiving the bolt , and a bearing collar , characterized in that the opening in the first component is provided with a passage .
A semiconductor device comprising: a voltage-controlled type semiconductor element connected to a primary side of an ignition coil for supplying a voltage to an ignition device of an internal combustion engine; a first resistor (R1) and a second resistor (R2) inserted in series in a supplying path of an input signal for controlling a gate of the voltage-controlled type semiconductor element ; a current control circuit for controlling current flowing through the voltage-controlled type semiconductor element ; a second by-pass forming element (D2) that is connected in parallel to the first resistor (R1) and the second resistor (R2) and by-passes the first resistor (R1) and the second resistor (R2) in a turning OFF process of the voltage-controlled type semiconductor element ; wherein the current control circuit includes an active element that is connected to a node between the first resistor (R1) and the second resistor (R2) and pulls down a gate voltage characterized by a first by-pass forming element (D1) that is connected in parallel to the second resistor (R2) and by-passes the second resistor (R2) in a turning ON process of the voltage-controlled type semiconductor element . a voltage-controlled type semiconductor element connected to a primary side of an ignition coil for supplying a voltage to an ignition device of an internal combustion engine; a first resistor (R1) and a second resistor (R2) inserted in series in a supplying path of an input signal for controlling a gate of the voltage-controlled type semiconductor element ; a current control circuit for controlling current flowing through the voltage-controlled type semiconductor element ; a second by-pass forming element (D2) that is connected in parallel to the first resistor (R1) and the second resistor (R2) and by-passes the first resistor (R1) and the second resistor (R2) in a turning OFF process of the voltage-controlled type semiconductor element ;
An automatic lawn trimmer , comprising a case , a battery pack , a controller , a driving device and a trampling device , wherein the battery pack is disposed in the case , the battery pack is configured to supply electrical power to the driving device , the controller is connected with the driving device for controlling the driving device , the driving device is configured to drive the automatic lawn trimmer to move autonomously on the lawn, the grass on the lawn is trampled by the trampling device as the automatic lawn trimmer moves on the lawn; characterized in that the driving device comprises at least two walking legs , the driving device is configured to drive the at least two walking legs to move alternately on the lawn, the trampling device are pressing plates mounted at the bottom ends of the at least two walking legs .
An abnormality predictor diagnosis system comprising: a sensor data acquisition means adapted to acquire sensor data including detection values of a sensor installed in a mechanical facility in which a predetermined operation process is repeated; a learning means adapted, for each repetition of the predetermined operation process, in a time-series waveform of the sensor data in a period in which the mechanical facility is known to be normal, to identify the detection values of the sensor when predetermined times have passed since start of the operation process, to identify values of a predetermined function when the predetermined times have passed since the start of the operation process using the predetermined function that outputs different values for respective times elapsed from the start of the operation process, and to learn a normal model of the waveform, the normal model including at least one cluster of feature vectors corresponding to one of the predetermined times, the feature vectors being identified by the detection values and the values of the function at the one of the predetermined times and a diagnosis means adapted, in a time-series waveform of sensor data as a diagnosis target, to diagnose the mechanical facility for presence of an abnormality predictor based on whether or not a feature vector is present in the at least one cluster of the normal model, the feature vector being identified by the detection values in the diagnostic target and the values of the function when the predetermined times have passed since the start of the operation process. a sensor data acquisition means adapted to acquire sensor data including detection values of a sensor installed in a mechanical facility in which a predetermined operation process is repeated; a learning means adapted, for each repetition of the predetermined operation process, in a time-series waveform of the sensor data in a period in which the mechanical facility is known to be normal, to identify the detection values of the sensor when predetermined times have passed since start of the operation process, to identify values of a predetermined function when the predetermined times have passed since the start of the operation process using the predetermined function that outputs different values for respective times elapsed from the start of the operation process, and to learn a normal model of the waveform, the normal model including at least one cluster of feature vectors corresponding to one of the predetermined times, the feature vectors being identified by the detection values and the values of the function at the one of the predetermined times and a diagnosis means adapted, in a time-series waveform of sensor data as a diagnosis target, to diagnose the mechanical facility for presence of an abnormality predictor based on whether or not a feature vector is present in the at least one cluster of the normal model, the feature vector being identified by the detection values in the diagnostic target and the values of the function when the predetermined times have passed since the start of the operation process.
Herbicidal compositions, comprising, as herbicidally active constituents, A) aclonifen (component A), B) pendimethalin (component B) and C) diflufenican (component C), comprising the respective herbicide components in the application rates stated below: component A: 80-3000 g of AS/ha, particularly preferably 80-1000 g of AS/ha, of aclonifen; component B: 500-2500 g of AS/ha, particularly preferably 500-1200 g of AS/ha, of pendimethalin; component C: 10-300 g of AS/ha, particularly preferably 30-200 g of AS/ha, of diflufenican. A) aclonifen (component A), B) pendimethalin (component B) and C) diflufenican (component C), component A: 80-3000 g of AS/ha, particularly preferably 80-1000 g of AS/ha, of aclonifen; component B: 500-2500 g of AS/ha, particularly preferably 500-1200 g of AS/ha, of pendimethalin; component C: 10-300 g of AS/ha, particularly preferably 30-200 g of AS/ha, of diflufenican.
Structure with an integrated attachment fitting, the attachment fitting comprising: a composite resin portion including a plurality of fiber reinforced resin plies ; a metal portion including a plurality of metal sheets bonded together defining a first group of metal sheets and a second group of metal sheets, wherein an end of each metal sheet being vertically aligned with an end of a non-adjacent metal sheet, such that the first group of metal sheets are aligned with a first vertical line and the second group of metal sheets are aligned with a second vertical line; and a composite-to-metal joint between the composite resin portion and the metal portion, wherein the composite-to-metal joint is a vertical lap finger joint, and wherein each metal sheet abuts edge-to-edge multiple fiber reinforced resin plies. a composite resin portion including a plurality of fiber reinforced resin plies ; a metal portion including a plurality of metal sheets bonded together defining a first group of metal sheets and a second group of metal sheets, wherein an end of each metal sheet being vertically aligned with an end of a non-adjacent metal sheet, such that the first group of metal sheets are aligned with a first vertical line and the second group of metal sheets are aligned with a second vertical line; and a composite-to-metal joint between the composite resin portion and the metal portion,
A contactor device for a circuit breaker including: a fixed side main contactor connected to a main circuit conductor ; a movable side main contactor having a movable side contact that comes into contact with and separates from a fixed side contact provided on one portion of the fixed side main contactor; an arc extinguishing chamber disposed above the fixed side main contactor and the movable side main contactor; a fixed side arc contact and a movable side arc contact , provided above the fixed side contact and the movable side contact respectively, between which an arc is generated when interrupting; and an operating mechanism unit that drives the movable side main contactor and the movable side arc contact so as to open and close, characterized in that ; an arc generating chamber defined by the fixed side main contactor and the movable side main contactor, and the fixed side arc contact and the movable side arc contact, is configured such that at least a side face and a bottom face thereof are enclosed by an insulating wall , leaving an opening in a direction facing the arc extinguishing chamber, wherein the contactor device is provided with an air nozzle , the air nozzle being the bottom face insulating wall of the arc generating chamber , and having an air blowing port for blowing toward the opening of the arc generating chamber from a lower portion, wherein during a contact opening operation, an arc (K) is generated between the fixed side arc contact and the movable side arc contact and air is blown towards the arc (K) . a fixed side main contactor connected to a main circuit conductor ; a movable side main contactor having a movable side contact that comes into contact with and separates from a fixed side contact provided on one portion of the fixed side main contactor; an arc extinguishing chamber disposed above the fixed side main contactor and the movable side main contactor; a fixed side arc contact and a movable side arc contact , provided above the fixed side contact and the movable side contact respectively, between which an arc is generated when interrupting; and an operating mechanism unit that drives the movable side main contactor and the movable side arc contact so as to open and close, characterized in that ; an arc generating chamber defined by the fixed side main contactor and the movable side main contactor, and the fixed side arc contact and the movable side arc contact, is configured such that at least a side face and a bottom face thereof are enclosed by an insulating wall , leaving an opening in a direction facing the arc extinguishing chamber, wherein the contactor device is provided with an air nozzle , the air nozzle being the bottom face insulating wall of the arc generating chamber , and having an air blowing port for blowing toward the opening of the arc generating chamber from a lower portion, wherein during a contact opening operation, an arc (K) is generated between the fixed side arc contact and the movable side arc contact and air is blown towards the arc (K) .
A weld pin comprising a nail part attached to a sheet part , such that the weld pin has a flat side and a nail side , and characterized in that the nail part is attached to the sheet part so that a nail head is arranged on the nail part opposite a tip and is flush with the flat side of the weld pin , whereby the nail head of the nail part is arranged opposite the nail side , wherein the sheet part comprises two essentially parallel guiding edges and a notch extending from a side edge of the sheet part in a direction towards the nail part , wherein the two guiding edges are arranged essentially parallel with the notch , and the nail part is extending through the sheet part essentially in the centre of the sheet part and the notch stretches from a side edge and close to the centre of the sheet part , but not all the way to the nail part .
A non-enzymatic recombinant protein comprising an amino acid sequence of an extracellular domain of PTPRS, wherein the protein comprises both PTPRS immunoglobulin-like domain 1 (Ig1) and immunoglobulin-like domain 2 (Ig2), for use in therapy.
A vaccine vector comprising a membrane or envelope and at least two antigenic polynucleotides, wherein a first antigenic polynucleotide encodes an M2e polypeptide of SEQ ID NO: 5 or SEQ ID NO: 20 and a second antigenic polynucleotide encodes an M2e polypeptide of SEQ ID NO: 1 or an immunogenic fragment thereof, wherein the antigenic polynucleotides are inserted into a polynucleotide sequence encoding an external portion of a transmembrane protein, wherein the vaccine vector is capable of expressing the polynucleotide, and wherein the vaccine vector enhances the immune response of a subject to Influenza A.
Method for producing microcracks in the interior of a composite structure , at least comprising the steps of: providing or producing the composite structure , wherein the composite structure has a solid body and at least one metallic coating and/or electrical components arranged or formed on one side of the solid body and on the other side forms a planar surface , wherein the solid body comprises or consists of silicon carbide (SiC), generating modifications in the interior of the solid body , wherein laser radiation is introduced into the solid body via the planar surface , wherein the laser radiation brings about multiphoton excitation, characterized in that the multiphoton excitation brings about plasma generation, wherein the modification is brought about by the plasma in the form of a material transformation, wherein the material transformations generate compressive stresses in the solid body , wherein the solid body develops subcritical cracks in a surrounding area of the respective modification , wherein the modifications are generated at a distance of less than 150 μm from the metallic coating and/or the electrical components , wherein the laser radiation is introduced into the solid body in pulses, wherein the pulse intensity of the pulses reaches the maximum pulse intensity within 10 ns after the beginning of the respective pulse. providing or producing the composite structure , wherein the composite structure has a solid body and at least one metallic coating and/or electrical components arranged or formed on one side of the solid body and on the other side forms a planar surface , wherein the solid body comprises or consists of silicon carbide (SiC), generating modifications in the interior of the solid body , wherein laser radiation is introduced into the solid body via the planar surface , wherein the laser radiation brings about multiphoton excitation, characterized in that the multiphoton excitation brings about plasma generation, wherein the modification is brought about by the plasma in the form of a material transformation, wherein the material transformations generate compressive stresses in the solid body , wherein the solid body develops subcritical cracks in a surrounding area of the respective modification , wherein the modifications are generated at a distance of less than 150 μm from the metallic coating and/or the electrical components , wherein the laser radiation is introduced into the solid body in pulses, wherein the pulse intensity of the pulses reaches the maximum pulse intensity within 10 ns after the beginning of the respective pulse.
A method for decoding downlink control information, DCI, by a user equipment, UE, which is configured with a first cell and a second cell, the method comprising: receiving, using the first cell, DCI which schedules a transmission at the second cell; and decoding the DCI, wherein when the first cell is a frequency division duplex, FDD, primary cell and the second cell is a time division duplex, TDD, secondary cell, an uplink index field consisting of 2 bits is included in the DCI when an uplink-downlink configuration of the second cell is uplink-downlink configuration 0 of below table: Uplink-downlink configuration Subframe n 0 1 2 3 4 5 6 7 8 9 0 D S U U U D S U U U 1 D S U U D D S U U U 2 D S U D D D S U D D 3 D S U U U D D D D D 4 D S U U D D D D D D 5 D S U D D D D D D D 6 D S U U U D S U U D wherein, in above table, D denotes a downlink subframe, S denotes a special subframe and U denotes an uplink subframe. receiving, using the first cell, DCI which schedules a transmission at the second cell; and decoding the DCI, wherein when the first cell is a frequency division duplex, FDD, primary cell and the second cell is a time division duplex, TDD, secondary cell, an uplink index field consisting of 2 bits is included in the DCI when an uplink-downlink configuration of the second cell is uplink-downlink configuration 0 of below table: Uplink-downlink configuration Subframe n 0 1 2 3 4 5 6 7 8 9 0 D S U U U D S U U U 1 D S U U D D S U U U 2 D S U D D D S U D D 3 D S U U U D D D D D 4 D S U U D D D D D D 5 D S U D D D D D D D 6 D S U U U D S U U D wherein, in above table, D denotes a downlink subframe, S denotes a special subframe and U denotes an uplink subframe.