mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a compressor rotor blade , the method comprising: creating a three-dimensional model of the blade ; creating, with a finite element analysis tool, a stress profile of the blade ; combining the stress profile with the three-dimensional model of the blade ; assigning different materials and different layer-by-layer additive manufacturing processes to different regions of the blade based upon the stress profile ; forming the blade , wherein forming the blade comprises: forming a root of the blade with a first material composition and with a first layer-by-layer additive manufacturing process; forming a platform connected to the root ; forming an airfoil connected to the platform , wherein the airfoil is formed with a second material composition and with a second layer-by-layer additive manufacturing process that is different from the first layer-by-layer additive manufacturing process; and forming a tip connected to the airfoil , wherein the tip is formed with a third layer-by-layer additive manufacturing process that is different from the second layer-by-layer additive manufacturing process. creating a three-dimensional model of the blade ; creating, with a finite element analysis tool, a stress profile of the blade ; combining the stress profile with the three-dimensional model of the blade ; assigning different materials and different layer-by-layer additive manufacturing processes to different regions of the blade based upon the stress profile ; forming the blade , wherein forming the blade comprises: forming a root of the blade with a first material composition and with a first layer-by-layer additive manufacturing process; forming a platform connected to the root ; forming an airfoil connected to the platform , wherein the airfoil is formed with a second material composition and with a second layer-by-layer additive manufacturing process that is different from the first layer-by-layer additive manufacturing process; and forming a tip connected to the airfoil , wherein the tip is formed with a third layer-by-layer additive manufacturing process that is different from the second layer-by-layer additive manufacturing process. forming a root of the blade with a first material composition and with a first layer-by-layer additive manufacturing process; forming a platform connected to the root ; forming an airfoil connected to the platform , wherein the airfoil is formed with a second material composition and with a second layer-by-layer additive manufacturing process that is different from the first layer-by-layer additive manufacturing process; and forming a tip connected to the airfoil , wherein the tip is formed with a third layer-by-layer additive manufacturing process that is different from the second layer-by-layer additive manufacturing process.
A method for acquiring a T2* weighted image from a magnetic resonance imaging, MRI, system, the method comprising: repeating processes of alternatively applying a first readout gradient which acquires a T2* weighted image without a flow compensation and a second readout gradient which acquires a T2* weighted image with a flow compensation, with a desired resolution of image, to acquire a signal; reconstituting the acquired signal to acquire two images that reflect different flow compensations from each other; and subtracting, from one of the two images, the other image to acquire a difference image. repeating processes of alternatively applying a first readout gradient which acquires a T2* weighted image without a flow compensation and a second readout gradient which acquires a T2* weighted image with a flow compensation, with a desired resolution of image, to acquire a signal; reconstituting the acquired signal to acquire two images that reflect different flow compensations from each other; and subtracting, from one of the two images, the other image to acquire a difference image.
An apparatus for envelope detection, the apparatus being configured for exchanging timing information between a transmission end and a reception end of a resonator isolation, RI, system using wireless power transmission, the apparatus comprising: a controller configured to eliminate a carrier component from a modulated signal transmitted from the transmission end by performing a square-sum operation between two adjacent signals in time sampled from the modulated signal; an envelope detector configured to detect an envelope of the modulated signal in which the carrier component is eliminated; an estimator configured to estimate a starting point for a mutual resonance between a source resonator at the transmission end and a target resonator at the reception end based on the detected envelope; and a sampling unit configured to sample the modulated signal so that a sampling time interval between the two adjacent signals sampled satisfies (1/2 + n) ∗ (π/ω), wherein n corresponds to an integer and ω corresponds to an angular frequency, wherein the sampling unit is configured to compare a bandwidth of the modulated signal with a carrier frequency of the modulated signal and to increase the value of n if the bandwidth of the modulated signal is smaller than a predetermined value to the carrier frequency of the modulated signal. a controller configured to eliminate a carrier component from a modulated signal transmitted from the transmission end by performing a square-sum operation between two adjacent signals in time sampled from the modulated signal; an envelope detector configured to detect an envelope of the modulated signal in which the carrier component is eliminated; an estimator configured to estimate a starting point for a mutual resonance between a source resonator at the transmission end and a target resonator at the reception end based on the detected envelope; and a sampling unit configured to sample the modulated signal so that a sampling time interval between the two adjacent signals sampled satisfies (1/2 + n) ∗ (π/ω), wherein n corresponds to an integer and ω corresponds to an angular frequency, wherein the sampling unit is configured to compare a bandwidth of the modulated signal with a carrier frequency of the modulated signal and to increase the value of n if the bandwidth of the modulated signal is smaller than a predetermined value to the carrier frequency of the modulated signal.
A removable oil filter system , comprising: an oil filter mount ; an oil filter element removably connected to the oil filter mount ; characterized by an impending-bypass indicator connected to the oil filter mount and in fluid communication with an oil in the oil filter system , wherein a combination of a contamination level and an oil flow rate is used to determine whether an impending-bypass condition exists, and wherein the impending-bypass indicator is capable of reporting the impending-bypass condition of the oil filter system ; and a full-bypass indicator in fluid communication with the oil filter mount and capable of reporting a full-bypass condition of the oil filter system . an oil filter mount ; an oil filter element removably connected to the oil filter mount ; characterized by an impending-bypass indicator connected to the oil filter mount and in fluid communication with an oil in the oil filter system , wherein a combination of a contamination level and an oil flow rate is used to determine whether an impending-bypass condition exists, and wherein the impending-bypass indicator is capable of reporting the impending-bypass condition of the oil filter system ; and a full-bypass indicator in fluid communication with the oil filter mount and capable of reporting a full-bypass condition of the oil filter system .
A core for a gas turbine engine airfoil comprising: a body extending between first and second ends to define a length direction, and extending between first and second edges to define a width direction, wherein the body defines an airfoil internal passage shape; and a plurality of core extensions formed as part of the body , and wherein the core further comprises a point along said first edge that defines a radius of curvature, and wherein ends of the plurality of core extensions which are to correspond to a plurality of openings to be formed in a wall surface of an airfoil body are spaced along an arc segment S defined by said radius of curvature, and wherein at least two adjacent core extensions are variable relative to each other in said length direction such that longer core extensions are located nearer the center of the core body and shorter core extensions are located at the first and second ends of the core body a body extending between first and second ends to define a length direction, and extending between first and second edges to define a width direction, wherein the body defines an airfoil internal passage shape; and a plurality of core extensions formed as part of the body , and wherein the core further comprises a point along said first edge that defines a radius of curvature, and wherein ends of the plurality of core extensions which are to correspond to a plurality of openings to be formed in a wall surface of an airfoil body are spaced along an arc segment S defined by said radius of curvature, and wherein at least two adjacent core extensions are variable relative to each other in said length direction such that longer core extensions are located nearer the center of the core body and shorter core extensions are located at the first and second ends of the core body
Device for generating a foamy milk/air mixture, having a foaming unit , a feed line in fluid-conducting communication with the foaming unit for taking in milk from a storage container and supplying the milk to the foaming unit , an air supply line for mixing air into the milk, and a controllable air supply limiter which is arranged in the air supply line , wherein the device has a sensor for determining an air quantity mixed with the milk, which sensor is arranged in the air supply line , and a programmable control unit for adapting the air quantity determined by the sensor to a desired value specified by the control unit , characterised in that the sensor is a volumetric flow sensor which, in the direction of air supply, is arranged either upstream of the air supply limiter or between the air supply limiter and the foaming unit , and the volumetric flow sensor has a heating element , a first temperature sensor arranged upstream of the heating element in the direction of air flow and a second temperature sensor arranged downstream of the heating element in the direction of air flow. the device has a sensor for determining an air quantity mixed with the milk, which sensor is arranged in the air supply line , and a programmable control unit for adapting the air quantity determined by the sensor to a desired value specified by the control unit , characterised in that the sensor is a volumetric flow sensor which, in the direction of air supply, is arranged either upstream of the air supply limiter or between the air supply limiter and the foaming unit , and the volumetric flow sensor has a heating element , a first temperature sensor arranged upstream of the heating element in the direction of air flow and a second temperature sensor arranged downstream of the heating element in the direction of air flow.
A deburring apparatus comprising a deburring tool at a distal end portion of an arm of an articulated robot ; wherein the deburring tool includes a profiling guide member in which a cutting tool is inserted and fitted and that has an opening (41;541) exposing a blade portion of the cutting tool, wherein each of opening edge portions (42, 43; 542, 543) of the opening includes a profiling guide portion (45; 145) and recessed portions (46, 47; 146, 147) located on both sides of the profiling guide portion and extending in the circumferential direction, wherein the deburring apparatus is configured to press the deburring tool against a workpiece (W) placed at a workpiece placement jig so that the profiling guide portion is moved keeping in contact with a profile reference surface (M1) of the workpiece, to remove burrs of the workpiece; wherein the profiling guide portion expands, in the circumferential direction of the profiling guide member at an angle (θ1) of 60°-120°, in a sector shape that is centered on the center axis (P) of the profiling guide member, each of the recessed portions expands in the circumferential direction at an angle (θ2, Θ3) of 90° centered on the center axis (P), the recessed portion being formed such that the opening edge portion is cut along at least the tangent line direction of an inner end point of the profiling guide portion, and the profiling guide portion is formed to have a conical shape in side view. wherein the deburring tool includes a profiling guide member in which a cutting tool is inserted and fitted and that has an opening (41;541) exposing a blade portion of the cutting tool, wherein each of opening edge portions (42, 43; 542, 543) of the opening includes a profiling guide portion (45; 145) and recessed portions (46, 47; 146, 147) located on both sides of the profiling guide portion and extending in the circumferential direction, a profiling guide portion (45; 145) and recessed portions (46, 47; 146, 147) located on both sides of the profiling guide portion and extending in the circumferential direction, wherein the deburring apparatus is configured to press the deburring tool against a workpiece (W) placed at a workpiece placement jig so that the profiling guide portion is moved keeping in contact with a profile reference surface (M1) of the workpiece, to remove burrs of the workpiece; wherein the profiling guide portion expands, in the circumferential direction of the profiling guide member at an angle (θ1) of 60°-120°, in a sector shape that is centered on the center axis (P) of the profiling guide member, each of the recessed portions expands in the circumferential direction at an angle (θ2, Θ3) of 90° centered on the center axis (P), the recessed portion being formed such that the opening edge portion is cut along at least the tangent line direction of an inner end point of the profiling guide portion, and the profiling guide portion is formed to have a conical shape in side view.
A system for auto detection of Joint Test Action Group "JTAG" debuggers/emulators, comprising: a debugger ; a master device , wherein the master device is configured to transmit reset signals and detect a programming signal from the debugger , wherein the programming signal is a Test-Reset State "TRST∗" signal and the "TRST∗ "signal is an active low signal; and a plurality of slave devices , where the slave devices are coupled to the debugger and the master device, wherein the master device and the slave devices have independent JTAG programming; and characterized in that the slave devices are not on a same "JTAG" chain. a debugger ; a master device , wherein the master device is configured to transmit reset signals and detect a programming signal from the debugger , wherein the programming signal is a Test-Reset State "TRST∗" signal and the "TRST∗ "signal is an active low signal; and a plurality of slave devices , where the slave devices are coupled to the debugger and the master device, wherein the master device and the slave devices have independent JTAG programming; and characterized in that the slave devices are not on a same "JTAG" chain.
A control apparatus comprising: a focus detector configured to detect a defocus amount based on a phase difference between a pair of image signals generated based on light beams having passed through mutually different pupil areas in an imaging optical system; and a controller configured to control a focus lens in the imaging optical system, wherein the controller is configured to perform an autofocus control based on the defocus amount detected by the focus detector, and a manual focus control based on an operation of a user via an operation member, wherein the controller performs the autofocus control when a change amount relating to a speed of the focus lens in the manual focus control falls within a predetermined range, characterized in that the focus detector detects the defocus amount in each of a plurality of focus detection areas, wherein the controller determines whether or not there are perspectively conflicting objects, based on the defocus amount detected in each of the plurality of focus detection areas, and wherein a transfer condition from the manual focus control to the autofocus control is changed according to whether or not there are perspectively conflicting objects. a focus detector configured to detect a defocus amount based on a phase difference between a pair of image signals generated based on light beams having passed through mutually different pupil areas in an imaging optical system; and a controller configured to control a focus lens in the imaging optical system, wherein the controller is configured to perform an autofocus control based on the defocus amount detected by the focus detector, and a manual focus control based on an operation of a user via an operation member, wherein the controller performs the autofocus control when a change amount relating to a speed of the focus lens in the manual focus control falls within a predetermined range, the focus detector detects the defocus amount in each of a plurality of focus detection areas, wherein the controller determines whether or not there are perspectively conflicting objects, based on the defocus amount detected in each of the plurality of focus detection areas, and wherein a transfer condition from the manual focus control to the autofocus control is changed according to whether or not there are perspectively conflicting objects.
An electronic envelope detection circuit, comprising a detection stage including at least one MOS transistor (T1, T2, T5, T6, T7) configured to receive a radiofrequency input signal (SER) and to deliver an internal signal (SI) from the input signal (SER), the average gate bias voltage of said at least one transistor (Tl, T2, T5, T6, T7) being controlled by a control signal (SC), and a processing stage coupled to the detection stage and configured to deliver a low frequency output signal (SSB) from the internal signal (SI) and to deliver the control signal (SC) from the internal signal (SI), so that the value of the control signal (SC) decreases when the average power of the input signal (SER) increases, and vice versa, characterised in that the detection stage comprises an N-type MOS transistor (T5) whose drain (D5) is coupled to the processing stage , and a transformer (T2V) including an input winding (EE) intended to receive the input signal (SER) and coupled between the source (S5) of the N-type MOS transistor (T5) and ground (GND), and an output winding (ES) coupled between the gate (G5) of the N-type MOS transistor (T5) and the processing stage and intended to receive the control signal (SC). a processing stage coupled to the detection stage and configured to deliver a low frequency output signal (SSB) from the internal signal (SI) and to deliver the control signal (SC) from the internal signal (SI), so that the value of the control signal (SC) decreases when the average power of the input signal (SER) increases, and vice versa, characterised in that the detection stage comprises an N-type MOS transistor (T5) whose drain (D5) is coupled to the processing stage , and a transformer (T2V) including an input winding (EE) intended to receive the input signal (SER) and coupled between the source (S5) of the N-type MOS transistor (T5) and ground (GND), and an output winding (ES) coupled between the gate (G5) of the N-type MOS transistor (T5) and the processing stage and intended to receive the control signal (SC).
A pharmaceutical composition for use in favoring healing of an epithelial wound in a subject, said pharmaceutical composition comprising an activator of an AKT pathway and an inhibitor of a MAPK pathway in combination with a pharmaceutically acceptable carrier.
A flame retardant composition, comprising: a) A brominated flame retardant, b) An organic phosphorus-containing flame retardant, said organic phosphorus-containing flame retardant being an organic phosphate that is either an amorphous solid or a liquid, c) A flame retardant which is a source of nitrogen and inorganic phosphorus, said source being an amorphous inorganic phosphate salt, wherein said inorganic phosphate salt is Aluminum Ammonium superphosphate; wherein said composition is substantially antimony-free. a) A brominated flame retardant, b) An organic phosphorus-containing flame retardant, said organic phosphorus-containing flame retardant being an organic phosphate that is either an amorphous solid or a liquid, c) A flame retardant which is a source of nitrogen and inorganic phosphorus, said source being an amorphous inorganic phosphate salt, wherein said inorganic phosphate salt is Aluminum Ammonium superphosphate; wherein said composition is substantially antimony-free.
An uplink control information transmission method performed by a terminal device or performed by a chip or a component used for the terminal device, comprising: receiving (S101) first downlink control information, DCI; and sending (S102) first uplink control information, UCI, wherein the first UCI is triggered by the first DCI, and when a first time domain resource of a physical uplink control channel, PUCCH, partially or completely overlaps a time domain resource of a physical uplink shared channel, PUSCH, and a first condition is met, a first symbol carries the first UCI but does not carry the PUSCH, wherein the first symbol is a time domain symbol on which the first time domain resource overlaps the time domain resource of the PUSCH, and the PUCCH is used to transmit the first UCI. receiving (S101) first downlink control information, DCI; and sending (S102) first uplink control information, UCI, wherein the first UCI is triggered by the first DCI, and when a first time domain resource of a physical uplink control channel, PUCCH, partially or completely overlaps a time domain resource of a physical uplink shared channel, PUSCH, and a first condition is met, a first symbol carries the first UCI but does not carry the PUSCH, wherein the first symbol is a time domain symbol on which the first time domain resource overlaps the time domain resource of the PUSCH, and the PUCCH is used to transmit the first UCI.