mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: in response to detecting, at a terminal device, that a buffer state report, BSR, is to be triggered, determining whether data buffered at the terminal device and available for transmission is included in a single logical channel group, LCG, the BSR indicating amount of the data buffered; characterised in that in response to determining that the data buffered is included in a single LCG, determining a format of the BSR based on: determining a transport block size allocated for the amount of the data buffered, a configuration of the LCG, and a comparison between the transport block size with a predefined first transport block size threshold; or determining whether the data buffered is included in a single LCH within the LCG and determining the format of the BSR based on a configuration of the LCH in response to the determination that the data buffered is included in the single LCH within the LCG, and determining the format of the BSR based on the configuration of the LCH that has a highest priority among a plurality of LCHs in response to determining that the data buffered is included in the plurality of LCHs within the LCG. in response to detecting, at a terminal device, that a buffer state report, BSR, is to be triggered, determining whether data buffered at the terminal device and available for transmission is included in a single logical channel group, LCG, the BSR indicating amount of the data buffered; characterised in that in response to determining that the data buffered is included in a single LCG, determining a format of the BSR based on: determining a transport block size allocated for the amount of the data buffered, a configuration of the LCG, and a comparison between the transport block size with a predefined first transport block size threshold; or determining whether the data buffered is included in a single LCH within the LCG and determining the format of the BSR based on a configuration of the LCH in response to the determination that the data buffered is included in the single LCH within the LCG, and determining the format of the BSR based on the configuration of the LCH that has a highest priority among a plurality of LCHs in response to determining that the data buffered is included in the plurality of LCHs within the LCG. determining a transport block size allocated for the amount of the data buffered, a configuration of the LCG, and a comparison between the transport block size with a predefined first transport block size threshold; or determining whether the data buffered is included in a single LCH within the LCG and determining the format of the BSR based on a configuration of the LCH in response to the determination that the data buffered is included in the single LCH within the LCG, and determining the format of the BSR based on the configuration of the LCH that has a highest priority among a plurality of LCHs in response to determining that the data buffered is included in the plurality of LCHs within the LCG.
A compound of formula wherein L is a bond, -C(O)NH-, -NHC(O)-, -CH 2 NHC(O)-, CH 2 C(O)NH-, -CH 2 NH-, -NH- or -NHC(O)NH-; R 1 is hydrogen, C 1-7 -alkyl, halogen, C 1-7 -alkoxy-alkyl, C 1-7 -alkoxy substituted by halogen, C 1-7 -alkyl substituted by halogen or is phenyl or heteroaryl selected from the group consisting of pyridinyl, pyrimidinyl, pyrazinyl or pyrazolyl, and wherein phenyl and heteroaryl are optionally substituted by one, two or three substituents selected from the group consisting of halogen, C 1-7 -alkyl, C 1-7 -alkoxy, C 1-7 -alkyl substituted by halogen, C 1-7 -alkoxy substituted by halogen, C 3-6 -cycloalkyl or O-CH 2 -C 3-6 -cycloalkyl; X is CH or N; or a pharmaceutically suitable acid addition salt thereof, all racemic mixtures, all their corresponding enantiomers and/or optical isomers. L is a bond, -C(O)NH-, -NHC(O)-, -CH 2 NHC(O)-, CH 2 C(O)NH-, -CH 2 NH-, -NH- or -NHC(O)NH-; R 1 is hydrogen, C 1-7 -alkyl, halogen, C 1-7 -alkoxy-alkyl, C 1-7 -alkoxy substituted by halogen, C 1-7 -alkyl substituted by halogen or is phenyl or heteroaryl selected from the group consisting of pyridinyl, pyrimidinyl, pyrazinyl or pyrazolyl, and wherein phenyl and heteroaryl are optionally substituted by one, two or three substituents selected from the group consisting of halogen, C 1-7 -alkyl, C 1-7 -alkoxy, C 1-7 -alkyl substituted by halogen, C 1-7 -alkoxy substituted by halogen, C 3-6 -cycloalkyl or O-CH 2 -C 3-6 -cycloalkyl; X is CH or N;
A measuring device for determining a substance concentration of a fluid arranged in a measurement volume with: - a source that emits a source spectrum, - a wavelength-selective means arranged before the measurement volume, - a measurement chamber that delimits the measurement volume at least in a beam path and - a detector for measuring a wavelength-related absorption of a measurement spectrum that has transited the measurement volume, wherein a fluorescence-reducing element is arranged in the beam path between the detector and the measurement volume, characterised in that the fluorescence-reducing element is configured as a component that delimits the measurement volume along the beam path. - a source that emits a source spectrum, - a wavelength-selective means arranged before the measurement volume, - a measurement chamber that delimits the measurement volume at least in a beam path and - a detector for measuring a wavelength-related absorption of a measurement spectrum that has transited the measurement volume,
A control system for an articulated vehicle comprising a towing vehicle , a trailer and an autonomous emergency braking system , the control system comprising: brake control means adapted to apply a friction-estimating braking; brake force capacity estimation means adapted to estimate the brake force capacity of the vehicle as a function of longitudinal wheel slip based on the applied friction-estimating braking, axle load estimation means adapted to estimate the normal force on each wheel axle (20a-c, 22a-b) of the vehicle; friction estimation means adapted to estimate a friction coefficient based on the estimated brake force capacity and at least one of the estimated normal forces; and brake strategy adaptation means configured to adapt the brake strategy of the autonomous emergency braking system by adjusting the brake force for at least one wheel axle of the vehicle based on the estimated friction coefficient and the at least one wheel axle's estimated normal force, wherein longitudinal tyre force (F x ) of the estimated brake force is determined based on: F x = BrakePressure * ToWheelTorque − d wheelspeed / d t * InertiaWheel / WheelRadius , wherein BrakePressure comes from the friction-estimating braking, ToWheelTorque is brake factor, (d wheelspeed /d t ) is wheel acceleration, InertiaWheel is the rotational inertia of a studied wheel, and WheelRadius is the radius of the studied wheel. brake control means adapted to apply a friction-estimating braking; brake force capacity estimation means adapted to estimate the brake force capacity of the vehicle as a function of longitudinal wheel slip based on the applied friction-estimating braking, axle load estimation means adapted to estimate the normal force on each wheel axle (20a-c, 22a-b) of the vehicle; friction estimation means adapted to estimate a friction coefficient based on the estimated brake force capacity and at least one of the estimated normal forces; and brake strategy adaptation means configured to adapt the brake strategy of the autonomous emergency braking system by adjusting the brake force for at least one wheel axle of the vehicle based on the estimated friction coefficient and the at least one wheel axle's estimated normal force, wherein longitudinal tyre force (F x ) of the estimated brake force is determined based on: F x = BrakePressure * ToWheelTorque − d wheelspeed / d t * InertiaWheel / WheelRadius , wherein BrakePressure comes from the friction-estimating braking, ToWheelTorque is brake factor, (d wheelspeed /d t ) is wheel acceleration, InertiaWheel is the rotational inertia of a studied wheel, and WheelRadius is the radius of the studied wheel.
Axle suspension system for a vehicle, the axle suspension system comprising at least one vehicle body member (50; 50'), an axle for supporting left and right wheels, at least two shock absorber units (40; 40') and a Panhard rod , wherein a first end of the Panhard rod is connected to the axle , and at least one shock absorber unit (40; 40') and a second end of the Panhard rod are mounted to the vehicle body member (50; 50'), wherein the at least one shock absorber unit (40; 40') and the second end of the Panhard rod are both connected to a continuous mounting support (60; 61; 62) which is mounted to the vehicle body member (50; 50') characterized in, that the mounting support (60; 61; 62) is S-shaped between a supporting point (70; 70') for a shock absorber unit (40; 40) and a supporting point for the Panhard rod , wherein an upper part for supporting the shock absorber unit (40; 40) is curved outwards in the direction of the shock absorber, and wherein a lower part for supporting the Panhard rod is curved inwards in the opposite direction.
A mechanical circulatory assist system , comprising: a blood pump ; a first patient interface module operatively coupled with the blood pump and configured to control operation of the blood pump ; a second patient interface module ; and a first connector operatively coupled with the blood pump and configured to couple with the second patient interface module , characterized in that the second patient interface module is configured to control operation of the blood pump without decoupling of the first patient interface module from the blood pump . a blood pump ; a first patient interface module operatively coupled with the blood pump and configured to control operation of the blood pump ; a second patient interface module ; and a first connector operatively coupled with the blood pump and configured to couple with the second patient interface module , characterized in that the second patient interface module is configured to control operation of the blood pump without decoupling of the first patient interface module from the blood pump .
A ram assembly , comprising: a ram or a ram wedge having a tubular cavity therethrough for receiving a tubular , the ram or ram wedge slidably positionable in a ram channel between a retracted and an extended position; a blade positionable about the tubular cavity , wherein the blade is carried by the ram or ram wedge to cuttingly engage the tubular ; and a ram seat positionable in a housing about a passage , the ram seat having a hole for receiving the tubular therethrough; characterized in that the blade includes a pair of rails extending therefrom; and in that the ram seat has an outer surface interlockingly engageable with the rails as the blade moves relative thereto whereby a gap (G) is reduced therebetween. a ram or a ram wedge having a tubular cavity therethrough for receiving a tubular , the ram or ram wedge slidably positionable in a ram channel between a retracted and an extended position; a blade positionable about the tubular cavity , wherein the blade is carried by the ram or ram wedge to cuttingly engage the tubular ; and a ram seat positionable in a housing about a passage , the ram seat having a hole for receiving the tubular therethrough; characterized in that the blade includes a pair of rails extending therefrom; and in that the ram seat has an outer surface interlockingly engageable with the rails as the blade moves relative thereto whereby a gap (G) is reduced therebetween.
A method of crimping a transcatheter heart valve having a first end and a second end and comprising a valve frame and a plurality of valve leaflets, the method comprising: crimping the heart valve to a first position where the first end of the heart valve is crimped from a first width to a second width smaller than the first width, while the second end of the heart valve remains at the first width; and packaging the heart valve when the heart valve is in the first position. crimping the heart valve to a first position where the first end of the heart valve is crimped from a first width to a second width smaller than the first width, while the second end of the heart valve remains at the first width; and packaging the heart valve when the heart valve is in the first position.
A fluid discharge head , comprising: a base comprising a groove row comprising a plurality of first grooves disposed side by side in a first direction and a plurality of second grooves disposed side by side in the first direction and respectively disposed among the plurality of first grooves, the first grooves and the second grooves extending along a second direction crossing the first direction; and a nozzle plate comprising nozzles that communicate with the first grooves of the base, characterized by further comprising: an individual wire comprising individual electrodes formed in the second grooves, the individual wire being extended to one side of the groove row in the second direction; a common wire comprising common electrodes formed in the first grooves, the common wire being extended to another side of the groove row in the second direction; and a connection wire connected to the common wire on the another side of the groove row in the second direction and leading to the one side of the groove row. a base comprising a groove row comprising a plurality of first grooves disposed side by side in a first direction and a plurality of second grooves disposed side by side in the first direction and respectively disposed among the plurality of first grooves, the first grooves and the second grooves extending along a second direction crossing the first direction; and a nozzle plate comprising nozzles that communicate with the first grooves of the base, characterized by further comprising: an individual wire comprising individual electrodes formed in the second grooves, the individual wire being extended to one side of the groove row in the second direction; a common wire comprising common electrodes formed in the first grooves, the common wire being extended to another side of the groove row in the second direction; and a connection wire connected to the common wire on the another side of the groove row in the second direction and leading to the one side of the groove row. an individual wire comprising individual electrodes formed in the second grooves, the individual wire being extended to one side of the groove row in the second direction; a common wire comprising common electrodes formed in the first grooves, the common wire being extended to another side of the groove row in the second direction; and a connection wire connected to the common wire on the another side of the groove row in the second direction and leading to the one side of the groove row.
An imaging system , comprising: a light source configured to generate a light beam; a first light guiding optical element having a first entry portion and configured to propagate at least a first portion of the light beam by total internal reflection; a second light guiding optical element having a second entry portion and configured to propagate at least a second portion of the light beam by total internal reflection; and a light distributor having a light distributor entry portion , a first exit portion on a first arm and a second exit portion on a second arm , and configured to direct the first and second portions of the light beam toward the first and second entry portions , respectively, wherein the light distributor entry portion and the first exit portion are aligned along a first axis, wherein the light distributor entry portion and the second exit portion are aligned along a second axis different from the first axis wherein the first arm extends along the first axis, wherein the second arm extends along the second axis, wherein the light distributor is configured to direct the first and second portions of the light beam toward the first and second entry portions .along respective third axis and fourth axis, wherein the third axis is perpendicular to the first axis, wherein the fourth axis is perpendicular to the second axis, and wherein the third axis is parallel to the fourth axis. a light source configured to generate a light beam; a first light guiding optical element having a first entry portion and configured to propagate at least a first portion of the light beam by total internal reflection; a second light guiding optical element having a second entry portion and configured to propagate at least a second portion of the light beam by total internal reflection; and a light distributor having a light distributor entry portion , a first exit portion on a first arm and a second exit portion on a second arm , and configured to direct the first and second portions of the light beam toward the first and second entry portions , respectively, wherein the light distributor entry portion and the first exit portion are aligned along a first axis, wherein the light distributor entry portion and the second exit portion are aligned along a second axis different from the first axis wherein the first arm extends along the first axis, wherein the second arm extends along the second axis, wherein the light distributor is configured to direct the first and second portions of the light beam toward the first and second entry portions .along respective third axis and fourth axis, wherein the third axis is perpendicular to the first axis, wherein the fourth axis is perpendicular to the second axis, and wherein the third axis is parallel to the fourth axis.
Circuitry for an implantable medical device, comprising: an electrode configured to pass a therapeutic current through a patient's tissue; a non-rechargeable battery outputting a battery voltage; boosting circuitry configured to boost the battery voltage to a boosted voltage at an output of the boosting circuitry; first circuitry powered only by the boosting circuitry output, wherein the boosted voltage is always supplied to the first circuitry at the boosting circuitry output regardless of a magnitude of the battery voltage; and second circuitry powered by and directly connected to the battery voltage, wherein the second circuitry comprises: a DC-DC converter configured to produce a compliance voltage for powering a digital-to-analog converter configured to produce the therapeutic current; and tank circuitry coupled to a telemetry coil configured to communicate data wirelessly with an external device. an electrode configured to pass a therapeutic current through a patient's tissue; a non-rechargeable battery outputting a battery voltage; boosting circuitry configured to boost the battery voltage to a boosted voltage at an output of the boosting circuitry; first circuitry powered only by the boosting circuitry output, wherein the boosted voltage is always supplied to the first circuitry at the boosting circuitry output regardless of a magnitude of the battery voltage; and second circuitry powered by and directly connected to the battery voltage, wherein the second circuitry comprises: a DC-DC converter configured to produce a compliance voltage for powering a digital-to-analog converter configured to produce the therapeutic current; and tank circuitry coupled to a telemetry coil configured to communicate data wirelessly with an external device. a DC-DC converter configured to produce a compliance voltage for powering a digital-to-analog converter configured to produce the therapeutic current; and tank circuitry coupled to a telemetry coil configured to communicate data wirelessly with an external device.
A method for processing audio, comprising: obtaining a first target feature vector from original audio, wherein the first target feature vector is used for representing a phoneme feature of the original audio; obtaining a second target feature vector and a third target feature vector from audio to be transferred, wherein the second target feature vector is used for representing a style prosody feature of the audio to be transferred, and the third target feature vector is used for representing a speaker feature of the audio to be transferred; performing spectrogram decoding on the first target feature vector, the second target feature vector and the third target feature vector to obtain a target spectrogram feature; and converting the target spectrogram feature into target audio. obtaining a first target feature vector from original audio, wherein the first target feature vector is used for representing a phoneme feature of the original audio; obtaining a second target feature vector and a third target feature vector from audio to be transferred, wherein the second target feature vector is used for representing a style prosody feature of the audio to be transferred, and the third target feature vector is used for representing a speaker feature of the audio to be transferred; performing spectrogram decoding on the first target feature vector, the second target feature vector and the third target feature vector to obtain a target spectrogram feature; and converting the target spectrogram feature into target audio.
A induction heating power supply , comprising: - a power conversion circuit configured to: - convert input power into induction heating power; and - transmit the induction heating power via an induction heating cable ; characterized by - at least one of a receiver circuit configured to be coupled to the induction heating cable and configured to receive data via the induction heating cable or a transmitter circuit coupled to the induction heating cable and configured to transmit data via the induction heating cable ; and - an isolation circuit to selectively electrically isolate the at least one of the receiver circuit or the transmitter circuit based on whether the induction heating power is flowing through the induction heating cable . - a power conversion circuit configured to: - convert input power into induction heating power; and - transmit the induction heating power via an induction heating cable ; - convert input power into induction heating power; and - transmit the induction heating power via an induction heating cable ; - at least one of a receiver circuit configured to be coupled to the induction heating cable and configured to receive data via the induction heating cable or a transmitter circuit coupled to the induction heating cable and configured to transmit data via the induction heating cable ; and - an isolation circuit to selectively electrically isolate the at least one of the receiver circuit or the transmitter circuit based on whether the induction heating power is flowing through the induction heating cable .