mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasound diagnostic apparatus that performs a compression test with respect to at least two points of a popliteal vein and a common femoral vein of a subject, the apparatus comprising: an ultrasound probe ; an image acquisition unit that acquires an ultrasound image by transmiting an ultrasound beam toward the subject from the ultrasound probe; a vein detection unit that detects the popliteal vein included in the ultrasound image acquired by the image acquisition unit; and an operation guiding unit that guides a user, in a case where the compression test of the popliteal vein is performed, to operate the ultrasound probe such that the ultrasound probe is positioned at a position in which only one popliteal vein is included in the ultrasound image acquired by the image acquisition unit based on the number of the popliteal veins detected by the vein detection unit. an ultrasound probe ; an image acquisition unit that acquires an ultrasound image by transmiting an ultrasound beam toward the subject from the ultrasound probe; a vein detection unit that detects the popliteal vein included in the ultrasound image acquired by the image acquisition unit; and an operation guiding unit that guides a user, in a case where the compression test of the popliteal vein is performed, to operate the ultrasound probe such that the ultrasound probe is positioned at a position in which only one popliteal vein is included in the ultrasound image acquired by the image acquisition unit based on the number of the popliteal veins detected by the vein detection unit.
A fluid displacement pump assembly comprising: - an electric motor comprising: - a stator fixed to an axle ; and - a rotor including a housing and a permanent magnet array on an inner circumferential face of the housing, the stator and rotor disposed on an axis; and - a drive coupled to the rotor at a first end of the electric motor ; - a pump comprising a fluid displacement member mechanically coupled to the drive, wherein the drive converts the rotational output to a reciprocating input to the fluid displacement member ; - a pump frame mechanically attached to the electric motor ; wherein the housing is rotationally coupled to the pump frame at the first end of the electric motor , the first end of the electric motor coupled to the drive; wherein the housing radially overlaps the stator along a radial extent of the stator and the axle at the first end of the electric motor, characterized in that the housing at least partially radially overlaps the stator along a radial extent of the stator at a second end of the electric motor disposed opposite the first end of the electric motor along the axis, such that a line parallel to the axis extends through each of the housing at the first end of the electric motor, the housing at the second end of the electric motor, and the stator . - an electric motor comprising: - a stator fixed to an axle ; and - a rotor including a housing and a permanent magnet array on an inner circumferential face of the housing, the stator and rotor disposed on an axis; and - a stator fixed to an axle ; and - a rotor including a housing and a permanent magnet array on an inner circumferential face of the housing, the stator and rotor disposed on an axis; and - a drive coupled to the rotor at a first end of the electric motor ; - a pump comprising a fluid displacement member mechanically coupled to the drive, wherein the drive converts the rotational output to a reciprocating input to the fluid displacement member ; - a pump frame mechanically attached to the electric motor ; wherein the housing is rotationally coupled to the pump frame at the first end of the electric motor , the first end of the electric motor coupled to the drive; wherein the housing radially overlaps the stator along a radial extent of the stator and the axle at the first end of the electric motor, characterized in that the housing at least partially radially overlaps the stator along a radial extent of the stator at a second end of the electric motor disposed opposite the first end of the electric motor along the axis, such that a line parallel to the axis extends through each of the housing at the first end of the electric motor, the housing at the second end of the electric motor, and the stator .
A turbine section for a gas turbine engine , comprising: a turbine blade extending radially outwardly to a radially outer tip and for rotation about an axis of rotation (A); a support structure ; a blade outer air seal mounted in the support structure and arranged radially outward of the outer tip, wherein the blade outer air seal has a hook near a first axial side (A1) and a lip near a second axial side (A2) for engagement with the support structure ; and a flow guide arranged between the support structure and the blade outer air seal , defining a passage (P) between the flow guide and the blade outer air seal configured to communicate air in a generally axial direction, wherein the flow guide has a flow guide hook and flow guide lip that engage with the blade outer air seal ; characterised in that : the blade outer air seal has an air inlet in the hook and the flow guide has an air outlet near the second axial side (A2) of the blade outer air seal . a turbine blade extending radially outwardly to a radially outer tip and for rotation about an axis of rotation (A); a support structure ; a blade outer air seal mounted in the support structure and arranged radially outward of the outer tip, wherein the blade outer air seal has a hook near a first axial side (A1) and a lip near a second axial side (A2) for engagement with the support structure ; and a flow guide arranged between the support structure and the blade outer air seal , defining a passage (P) between the flow guide and the blade outer air seal configured to communicate air in a generally axial direction, wherein the flow guide has a flow guide hook and flow guide lip that engage with the blade outer air seal ; characterised in that : the blade outer air seal has an air inlet in the hook and the flow guide has an air outlet near the second axial side (A2) of the blade outer air seal .
A device , comprising: - a receiver configured to receive symbols on a downstream channel , - at least one circuitry configured to detect an interference event on the downstream channel , wherein the at least one circuitry is configured to determine a first phase gradient in the frequency domain based on a symbol received at a first point in time prior to a start point of the interference event and to determine a second phase gradient in the frequency domain based on a symbol received at a second point in time subsequent to an end point of the interference event , wherein the at least one circuitry is configured to determine a timing drift between the first point in time and the second point in time based on the first phase gradient and the second phase gradient. - a receiver configured to receive symbols on a downstream channel , - at least one circuitry configured to detect an interference event on the downstream channel ,
A manufacturing method of a hollow body product, comprising: a film arrangement step in which a film is arranged on a fiber layer ; a shaped member arrangement step in which a shaped member having a concave part is arranged on the film after the film arrangement step so that an opening of the concave part faces the film ; a step of covering the shaped member with a bagging film ; a fiber layer/film gas discharging step in which gas existing between the fiber layer and the film is discharged; a film/shaped member gas discharging step in which gas existing between the film and the shaped member is discharged; a film/shaped member joining step in which the film and the shaped member are joined together after the film/shaped member gas discharging step; and a fiber layer/film joining step in which the fiber layer and the film are joined together after the fiber layer/film gas discharging step, wherein the discharging of the gas in the gas discharging steps is executed so that a condition that the pressure P1 of the gas existing between the fiber layer and the film is lower than the pressure P2 of the gas existing between the film and the bagging film is satisfied, and wherein the fiber layer/film joining step is conducted after or concurrently with the film/shaped member joining step. a film arrangement step in which a film is arranged on a fiber layer ; a shaped member arrangement step in which a shaped member having a concave part is arranged on the film after the film arrangement step so that an opening of the concave part faces the film ; a step of covering the shaped member with a bagging film ; a fiber layer/film gas discharging step in which gas existing between the fiber layer and the film is discharged; a film/shaped member gas discharging step in which gas existing between the film and the shaped member is discharged; a film/shaped member joining step in which the film and the shaped member are joined together after the film/shaped member gas discharging step; and a fiber layer/film joining step in which the fiber layer and the film are joined together after the fiber layer/film gas discharging step, wherein the discharging of the gas in the gas discharging steps is executed so that a condition that the pressure P1 of the gas existing between the fiber layer and the film is lower than the pressure P2 of the gas existing between the film and the bagging film is satisfied, and wherein the fiber layer/film joining step is conducted after or concurrently with the film/shaped member joining step.
A stand-off breaching round for generating an overpressure for breaching a barrier, comprising a housing containing an explosive main charge having a barrier-end and a rear-end , a detonator , and means for initiating the detonator when the explosive main charge is at a preselected distance from a barrier, characterised in that the detonator is configured to detonate the explosive main charge at the rear-end , such that the detonation wave propagates from the rear-end towards the barrier end, such that in-use a barrier can be breached by an explosively generated overpressure.
Device for chemical looping combustion using a solid fuel generating unburnt particles and employing oxygen carrier particles, such as metal oxides, and comprising at least a combustion zone , a separator for particles contained in a gas mixture from said combustion zone , and a gas-solid separator , said particle separator comprising a chamber equipped with at least one intake duct connected to said combustion zone , at least one discharge duct situated in the lower part of said chamber, and at least one outlet duct situated in the upper part of said chamber and connected to said gas-solid separator , said chamber being able to comprise a dense phase in the lower part and a dilute phase in the upper part, said intake duct comprising successively, in the intake direction, a vertical portion , an elbow and an inclined intake end , said intake end being inclined by an angle α with respect to a horizontal plane (H) and opening out within said chamber.
A motor comprising: a rotary shaft ; a rotor mounted on the rotary shaft ; a stator surrounding an outer periphery of the rotor ; an impeller mounted on the rotary shaft to be spaced apart from the rotor ; a bearing housing positioned between the impeller and the rotor and formed with a through hole (H) through which the rotary shaft passes; and a gas bearing disposed in the bearing housing , wherein a rolling bearing disposed to be spaced apart from the gas bearing to support the rotary shaft , wherein the gas bearing includes a metal body having a major arc shape in cross section and having a slit open in a radial direction (R), a coating layer coated on the inner surface of the metal body , wherein the rotary shaft includes a gas bearing facing portion facing the coating layer in a radial direction (R), and wherein a bearing clearance (G2) is formed between the gas bearing facing portion and the coating layer , wherein the thickness (T1) of the gas bearing is thinner than a thickness (T2) of an inner race of the rolling bearing . a rotor mounted on the rotary shaft ; a stator surrounding an outer periphery of the rotor ; an impeller mounted on the rotary shaft to be spaced apart from the rotor ; a bearing housing positioned between the impeller and the rotor and formed with a through hole (H) through which the rotary shaft passes; and a gas bearing disposed in the bearing housing , wherein a rolling bearing disposed to be spaced apart from the gas bearing to support the rotary shaft , wherein the gas bearing includes a metal body having a major arc shape in cross section and having a slit open in a radial direction (R), a coating layer coated on the inner surface of the metal body , wherein the rotary shaft includes a gas bearing facing portion facing the coating layer in a radial direction (R), and wherein a bearing clearance (G2) is formed between the gas bearing facing portion and the coating layer , wherein the thickness (T1) of the gas bearing is thinner than a thickness (T2) of an inner race of the rolling bearing .
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, signaling configuring a rate matching pattern; receiving, from the base station, downlink control information, DCI, scheduling a physical downlink shared channel, PDSCH, the DCI including one bit information associated with the rate matching pattern; and receiving, from the base station, downlink data on the PDSCH based on the DCI, wherein a union of resources corresponding to the rate matching pattern is indicated, by the one bit information, as not available for the PDSCH, and wherein the rate matching pattern is associated with a physical downlink control channel, PDCCH. receiving, from a base station, a radio resource control, RRC, signaling configuring a rate matching pattern; receiving, from the base station, downlink control information, DCI, scheduling a physical downlink shared channel, PDSCH, the DCI including one bit information associated with the rate matching pattern; and receiving, from the base station, downlink data on the PDSCH based on the DCI, wherein a union of resources corresponding to the rate matching pattern is indicated, by the one bit information, as not available for the PDSCH, and wherein the rate matching pattern is associated with a physical downlink control channel, PDCCH.
A non-therapeutic method for controlling a system comprising a control module, a current source and one or more stimulation electrodes, the method comprising: obtaining pre-recorded uterine electrical traces from normal contracting patients after labor and delivery; storing, using the system, the pre-recorded uterine electrical traces digitally within a memory of the control module; performing, using the control module, at least one of preprogrammed stimulation tasks and user-defined stimulation tasks including controlling the current source to output stimulation current of selected frequency, amplitude, pulse width, and train duration automatically for selected periods of time to the one or more electrodes; generating, using the current source, biphasic, sinusoidal electrical stimulating current signals at a frequency greater than 5.0 Hertz with patterns identical to the pre-recorded uterine electrical traces; and controlling operation of the system to apply the electrical stimulating current signals to the one or more stimulation electrodes. obtaining pre-recorded uterine electrical traces from normal contracting patients after labor and delivery; storing, using the system, the pre-recorded uterine electrical traces digitally within a memory of the control module; performing, using the control module, at least one of preprogrammed stimulation tasks and user-defined stimulation tasks including controlling the current source to output stimulation current of selected frequency, amplitude, pulse width, and train duration automatically for selected periods of time to the one or more electrodes; generating, using the current source, biphasic, sinusoidal electrical stimulating current signals at a frequency greater than 5.0 Hertz with patterns identical to the pre-recorded uterine electrical traces; and controlling operation of the system to apply the electrical stimulating current signals to the one or more stimulation electrodes.
A method for processing a multimedia signal, the method comprising: receiving a multimedia signal having a plurality of subbands; receiving one or more sets of proto-type filter coefficients, wherein each of the sets corresponds to one of predetermined locations in a virtual reproduction space; and converting the set of proto-type filter coefficients to a plurality sets of subband filter coefficients; characterized in that the method further comprising: truncating each of the sets of subband filter coefficients frequency-dependently based on a filter order for a corresponding subband, wherein the filter order is determined based at least in part on energy decay time information of the corresponding subband, and wherein the filter order determines a length of the set of truncated subband filter coefficients and is determined to be variable in a frequency domain; and filtering each subband signal of the multimedia signal by using the set of truncated subband filter coefficients corresponding thereto. receiving a multimedia signal having a plurality of subbands; receiving one or more sets of proto-type filter coefficients, wherein each of the sets corresponds to one of predetermined locations in a virtual reproduction space; and converting the set of proto-type filter coefficients to a plurality sets of subband filter coefficients; characterized in that the method further comprising: truncating each of the sets of subband filter coefficients frequency-dependently based on a filter order for a corresponding subband, wherein the filter order is determined based at least in part on energy decay time information of the corresponding subband, and wherein the filter order determines a length of the set of truncated subband filter coefficients and is determined to be variable in a frequency domain; and filtering each subband signal of the multimedia signal by using the set of truncated subband filter coefficients corresponding thereto. truncating each of the sets of subband filter coefficients frequency-dependently based on a filter order for a corresponding subband, wherein the filter order is determined based at least in part on energy decay time information of the corresponding subband, and wherein the filter order determines a length of the set of truncated subband filter coefficients and is determined to be variable in a frequency domain; and filtering each subband signal of the multimedia signal by using the set of truncated subband filter coefficients corresponding thereto.
An apparatus for cooling a downhole device, comprising: a chamber configured to store a refrigerant in a liquid phase and a gaseous phase; and an outlet configured to allow the refrigerant to discharge from the chamber to the downhole device; the apparatus being characterized by a device associated with the chamber configured to extract the liquid phase of the refrigerant from the chamber to the outlet and retain the gaseous phase in the chamber , wherein the device within the chamber includes a device selected from a group consisting of: a wick ; a float device ; and a pendulum . a chamber configured to store a refrigerant in a liquid phase and a gaseous phase; and an outlet configured to allow the refrigerant to discharge from the chamber to the downhole device; the apparatus being characterized by a device associated with the chamber configured to extract the liquid phase of the refrigerant from the chamber to the outlet and retain the gaseous phase in the chamber , wherein the device within the chamber includes a device selected from a group consisting of: a wick ; a float device ; and a pendulum .
A model generation apparatus comprising: a data acquisition unit configured to acquire a plurality of learning datasets each constituted by a first sample of a first time of predetermined data obtained in time series and feature information included in a second sample of the predetermined data of a future second time relative to the first time, with a rarity degree indicating a degree of rarity of the learning dataset being set for each of the learning dataset; a learning processing unit configured to build, by machine learning, a prediction model trained to predict, from the first sample of the first time, the corresponding feature information of the second time, for each of the learning datasets, wherein learning datasets having a higher rarity degree are trained on more preponderantly in the machine learning; a rarity degree setting unit configured to set the rarity degree of each of the learning datasets, wherein the rarity degree setting unit includes a discordance predictor configured to predict a discordance of the prediction by the prediction model from the first sample of the first time, for each of the learning datasets, and the rarity degree setting unit is configured to set the rarity degree of each of the learning datasets, according to a result of predicting the discordance of the prediction by the prediction model with the discordance predictor. a data acquisition unit configured to acquire a plurality of learning datasets each constituted by a first sample of a first time of predetermined data obtained in time series and feature information included in a second sample of the predetermined data of a future second time relative to the first time, with a rarity degree indicating a degree of rarity of the learning dataset being set for each of the learning dataset; a learning processing unit configured to build, by machine learning, a prediction model trained to predict, from the first sample of the first time, the corresponding feature information of the second time, for each of the learning datasets, wherein learning datasets having a higher rarity degree are trained on more preponderantly in the machine learning; a rarity degree setting unit configured to set the rarity degree of each of the learning datasets, wherein the rarity degree setting unit includes a discordance predictor configured to predict a discordance of the prediction by the prediction model from the first sample of the first time, for each of the learning datasets, and the rarity degree setting unit is configured to set the rarity degree of each of the learning datasets, according to a result of predicting the discordance of the prediction by the prediction model with the discordance predictor.
Shaped ceramic precursor particles, wherein each shaped ceramic precursor particle comprises a ceramic precursor that can be converted into alpha alumina and is bounded by a surface having a plurality of faces joined along common edges, wherein the surface has voids on at least a portion thereof, wherein the voids are shaped as hollow ellipsoidal sections, wherein the plurality of faces comprises: an exposed face having a portion of the voids thereon, wherein the exposed face has a first density of the voids; and a mold face, wherein the mold face has a portion of the voids thereon, wherein the mold face has a second density of the voids, and wherein the first density of the voids is greater than the second density of the voids. an exposed face having a portion of the voids thereon, wherein the exposed face has a first density of the voids; and a mold face, wherein the mold face has a portion of the voids thereon, wherein the mold face has a second density of the voids, and wherein the first density of the voids is greater than the second density of the voids.