mhurhangee/ep-ind-claims huggingface dataset:
A method for processing handover failure, comprising: a network element, to which User Equipment, UE, in a connected state is connected, sending a physical identifier of a second cell to a network element to which a first cell belongs; wherein before the network element, to which the UE in the connected state is connected, sends the physical identifier of the second cell to the network element to which the first cell belongs, the method comprises: the UE failing in handing over from the first cell to the second cell; characterized by the UE failing in performing Radio Resource Control, RRC, re-establishment in the first cell, the second cell or a third cell, and succeeding in performing RRC establishment in a fourth cell; wherein the network element to which the UE in the connected state is connected sending the physical identifier of the second cell to the network element to which the first cell belongs comprises: after the UE handing over from the fourth cell to a fifth cell, a network element to which the fifth cell belongs receiving the physical identifier of the second cell from the UE, the network element to which the fifth cell belongs sending the physical identifier of the second cell to the network element to which the first cell belongs. a network element, to which User Equipment, UE, in a connected state is connected, sending a physical identifier of a second cell to a network element to which a first cell belongs; wherein before the network element, to which the UE in the connected state is connected, sends the physical identifier of the second cell to the network element to which the first cell belongs, the method comprises: the UE failing in handing over from the first cell to the second cell; characterized by the UE failing in performing Radio Resource Control, RRC, re-establishment in the first cell, the second cell or a third cell, and succeeding in performing RRC establishment in a fourth cell; wherein the network element to which the UE in the connected state is connected sending the physical identifier of the second cell to the network element to which the first cell belongs comprises: after the UE handing over from the fourth cell to a fifth cell, a network element to which the fifth cell belongs receiving the physical identifier of the second cell from the UE, the network element to which the fifth cell belongs sending the physical identifier of the second cell to the network element to which the first cell belongs.
Drill coulter assembly, in particular a seed drill, comprising: at least one drill coulter for forming a furrow in soil, at least one pressure roller, which is arranged behind the drill coulter in the working direction of the drill coulter assembly and is designed to roll with pressure on the soil, and a drill coulter carrier which extends from a coulter frame and is connected to the drill coulter and the pressure roller, wherein the pressure roller is mounted adjustably relative to the drill coulter by means of a parallelogram linkage, an actuator element for adjusting the parallelogram linkage and for exerting a resulting movement of the pressure roller relative to the drill coulter, a force determination unit for detecting the force acting on the actuator element, and a control unit for determining the pressure exerted by the pressure roller on the soil using the force detected by the force determination unit, which acts on the actuator element, characterised in that said control unit is designed to run through a calibration phase in which a zero characteristic curve is recorded, in which no force is applied to the soil by the at least one drill coulter, so that the entire coulter pressure is transmitted to the at least one pressure roller, wherein the control unit is designed to compare the zero characteristic curve with a current measurement curve during field operation in order to thereby determine the force ratio of the total coulter pressure to the contact pressure of the pressure roller at a working point. at least one drill coulter for forming a furrow in soil, at least one pressure roller, which is arranged behind the drill coulter in the working direction of the drill coulter assembly and is designed to roll with pressure on the soil, and a drill coulter carrier which extends from a coulter frame and is connected to the drill coulter and the pressure roller, wherein the pressure roller is mounted adjustably relative to the drill coulter by means of a parallelogram linkage, an actuator element for adjusting the parallelogram linkage and for exerting a resulting movement of the pressure roller relative to the drill coulter, a force determination unit for detecting the force acting on the actuator element, and a control unit for determining the pressure exerted by the pressure roller on the soil using the force detected by the force determination unit, which acts on the actuator element, characterised in that said control unit is designed to run through a calibration phase in which a zero characteristic curve is recorded, in which no force is applied to the soil by the at least one drill coulter, so that the entire coulter pressure is transmitted to the at least one pressure roller, wherein the control unit is designed to compare the zero characteristic curve with a current measurement curve during field operation in order to thereby determine the force ratio of the total coulter pressure to the contact pressure of the pressure roller at a working point.
A method of processing video data, the method comprising: classifying (202, 252), by processing circuitry, luma samples of a neighboring luma block of a reference block and luma samples of a neighboring luma block of a current block into a plurality of groups using one or more of intensities of the luma samples, wherein classifying comprises restricting luma samples of the neighboring luma block of the reference block and luma samples of the neighboring luma block of the current block in a group of the plurality of groups such that a number of samples in the group after the classification is larger than or equal to a specific number of samples; deriving (204, 254), by the processing circuitry, one or more local illumination compensation parameters for each group of the plurality of groups to generate a plurality of local illumination compensation parameters for the current block; deriving (206, 256), by the processing circuitry, a plurality of linear models between the neighboring luma block of the reference block and the neighboring luma block of the current block using the plurality of local illumination compensation parameters for the current block; and generating (208, 258), by the processing circuitry, a prediction block using the plurality of linear models. classifying (202, 252), by processing circuitry, luma samples of a neighboring luma block of a reference block and luma samples of a neighboring luma block of a current block into a plurality of groups using one or more of intensities of the luma samples, wherein classifying comprises restricting luma samples of the neighboring luma block of the reference block and luma samples of the neighboring luma block of the current block in a group of the plurality of groups such that a number of samples in the group after the classification is larger than or equal to a specific number of samples; deriving (204, 254), by the processing circuitry, one or more local illumination compensation parameters for each group of the plurality of groups to generate a plurality of local illumination compensation parameters for the current block; deriving (206, 256), by the processing circuitry, a plurality of linear models between the neighboring luma block of the reference block and the neighboring luma block of the current block using the plurality of local illumination compensation parameters for the current block; and generating (208, 258), by the processing circuitry, a prediction block using the plurality of linear models.
A training device for performing holistic balance, meditation and/or yoga exercises having a body which comprises a planar upper side and a convex bottom side (20, 21), the bottom side being in contact with a floor and/or a horizontal surface, the body being formed in one piece and being movable around several spatial axes due to the convex bottom side (20, 21), characterised in that the convex design has a radius of at least 1.00 m in the longitudinal direction of the body and a radius of at least 0.10 m in the transverse direction of the body, and in that the body is elongated and narrow.
A measuring apparatus for measuring a substrate concentration by using a sensor including an enzyme reagent layer, comprising: state detecting means adapted to apply a first voltage and a second voltage different from the first voltage to the sensor to detect a state of the enzyme reagent layer based on a difference between a first response current value obtained under application of the first voltage and a second response current value obtained under application of the second voltage, characterized in that the state detecting means is adapted to detect that the enzyme reagent layer is in a degraded state when the difference is larger than a threshold value, wherein the second voltage is higher than the first voltage which corresponds to a general measurement voltage. state detecting means adapted to apply a first voltage and a second voltage different from the first voltage to the sensor to detect a state of the enzyme reagent layer based on a difference between a first response current value obtained under application of the first voltage and a second response current value obtained under application of the second voltage, characterized in that the state detecting means is adapted to detect that the enzyme reagent layer is in a degraded state when the difference is larger than a threshold value, wherein the second voltage is higher than the first voltage which corresponds to a general measurement voltage.
Method for operating automated guided transport vehicles for containers, which are each guided in an automated manner during forwards travel and also during rearwards travel and which comprise a towing vehicle and a trailer having a loading surface for at least one container, wherein the respective transport vehicle, in particular the towing vehicle, comprises a vehicle controller in order to actuate a steering mechanism and a travel drive of the transport vehicle such that the transport vehicle follows a desired route, characterised in that the desired route is specified in consideration of a previously determined trajectory of the respective transport vehicle, wherein trajectory is understood to mean a movement path of the respective transport vehicle during a driving manoeuvre, wherein the trajectory and/or the currently specified desired route of at least one other transport vehicle is considered in order to avoid conflicts between the trajectories and/or the desired routes of a plurality of transport vehicles, wherein different trajectories are determined and different desired routes are specified for different transport vehicles.
A Radio Frequency ("RF") Energy Harvesting System ("RFHS") ( 100, 200, 300) comprising: a phased array antenna ( 102, 302, 400), wherein the phased array antenna is configured to receive ambient RF energy and, in response, produce an input power signal; a power harvesting unit ("PHU") ( 104, 202) in signal communication with the phased array antenna, wherein the PHU includes a rectifier module ( 122, 502) including at least two quantum tunnel diodes ( 504, 506), in signal communication with the phased array antenna and a storage module in signal communication with the rectifier module, the storage module being a battery or capacitor, wherein the PHU is configured to receive the input power signal and, in response, produce a rectified power signal; and a controller in signal communication with the phased array antenna, wherein the controller is configured to steer an antenna beam of the phased array antenna to increase the received ambient RF energy. a phased array antenna ( 102, 302, 400), wherein the phased array antenna is configured to receive ambient RF energy and, in response, produce an input power signal; a power harvesting unit ("PHU") ( 104, 202) in signal communication with the phased array antenna, wherein the PHU includes a rectifier module ( 122, 502) including at least two quantum tunnel diodes ( 504, 506), in signal communication with the phased array antenna and a storage module in signal communication with the rectifier module, the storage module being a battery or capacitor, a rectifier module ( 122, 502) including at least two quantum tunnel diodes ( 504, 506), in signal communication with the phased array antenna and a storage module in signal communication with the rectifier module, the storage module being a battery or capacitor, wherein the PHU is configured to receive the input power signal and, in response, produce a rectified power signal; and a controller in signal communication with the phased array antenna, wherein the controller is configured to steer an antenna beam of the phased array antenna to increase the received ambient RF energy.
Method for at least temporarily increasing the accuracy of a measurement apparatus, having a measurement space and a measurement means, which is displaceable along at least two measurement axes and is designed for sensing a body, wherein a correction matrix, with which the measurement values recorded by the measurement means are corrected, is stored in the measurement apparatus, comprising the method steps of: placing a calibration body into the measurement space of the measurement apparatus, measuring the calibration body using its stored dimensions and ascertaining deviations between the measured dimensions of the calibration body and the stored dimensions of the calibration body, correcting the correction matrix using the ascertained deviations and storing the corrected correction matrix as deviation matrix, characterized by the method steps of: determining the measurement errors of the measurement apparatus, wherein determining the measurement errors comprises the following steps: re-calculating the calibration body with the deviation matrix and outputting the deviations between the calculated calibration body and the stored dimensions of the calibration body as measurement errors of the measurement apparatus. placing a calibration body into the measurement space of the measurement apparatus, measuring the calibration body using its stored dimensions and ascertaining deviations between the measured dimensions of the calibration body and the stored dimensions of the calibration body, correcting the correction matrix using the ascertained deviations and storing the corrected correction matrix as deviation matrix, characterized by the method steps of: determining the measurement errors of the measurement apparatus, wherein determining the measurement errors comprises the following steps: re-calculating the calibration body with the deviation matrix and outputting the deviations between the calculated calibration body and the stored dimensions of the calibration body as measurement errors of the measurement apparatus. re-calculating the calibration body with the deviation matrix and outputting the deviations between the calculated calibration body and the stored dimensions of the calibration body as measurement errors of the measurement apparatus.
A method comprising: receiving, by a first endpoint, a request for a video conferencing session from a second endpoint; and determining, by the first endpoint, whether the first endpoint is in a peek accepting mode in which a first filter is activated at the first endpoint, wherein the first filter reduces clarity of a multimedia stream, and in response to the first endpoint determining that the first endpoint is in a peek accepting mode: establishing the video conferencing session in Auto Answer mode, loading, at the first endpoint, the first filter, providing a first multimedia stream from one or more first media sources associated with the first endpoint, modifying the first multimedia stream by the first filter to produce a first modified multimedia stream having reduced clarity, and transmitting the first modified multimedia stream to the second endpoint. receiving, by a first endpoint, a request for a video conferencing session from a second endpoint; and determining, by the first endpoint, whether the first endpoint is in a peek accepting mode in which a first filter is activated at the first endpoint, wherein the first filter reduces clarity of a multimedia stream, and establishing the video conferencing session in Auto Answer mode, loading, at the first endpoint, the first filter, providing a first multimedia stream from one or more first media sources associated with the first endpoint, modifying the first multimedia stream by the first filter to produce a first modified multimedia stream having reduced clarity, and transmitting the first modified multimedia stream to the second endpoint.
A method for purifying a ribonucleic acid transcript comprising a polyA tail, the method comprising: a) obtaining a first sample comprising the RNA transcript, wherein the first sample comprises at least 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 91%, 92%, 93%, 94%, or 95% RNA transcript and at least 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 91%, 92%, 93%, 94%, or 95% impurities, and wherein the percentage of RNA transcript and the percentage of impurities are the inverse of each other; b) contacting the first sample with a surface linked to a plurality of thymidines having the structure: under conditions such that the RNA transcript binds to the surface; c) eluting the RNA transcript from the surface; and d) collecting the RNA transcript in a second sample, wherein the second sample comprises at least 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, or 99% RNA transcript and no more than less than 1%, 1%, 2%, 3%, 4%, 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 91%, 92%, 93%, 94%, or 95% impurities, and wherein the percentage of RNA transcript and the percentage of impurities are the inverse of each other. a) obtaining a first sample comprising the RNA transcript, wherein the first sample comprises at least 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 91%, 92%, 93%, 94%, or 95% RNA transcript and at least 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 91%, 92%, 93%, 94%, or 95% impurities, and wherein the percentage of RNA transcript and the percentage of impurities are the inverse of each other; b) contacting the first sample with a surface linked to a plurality of thymidines having the structure: under conditions such that the RNA transcript binds to the surface; c) eluting the RNA transcript from the surface; and d) collecting the RNA transcript in a second sample, wherein the second sample comprises at least 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, or 99% RNA transcript and no more than less than 1%, 1%, 2%, 3%, 4%, 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 91%, 92%, 93%, 94%, or 95% impurities, and wherein the percentage of RNA transcript and the percentage of impurities are the inverse of each other.
A lighting glazing comprising - a first sheet of glass of refractive index n 1 with a first main face, a second main face and a rim; - a transparent polymer film in adhesive contact with the second main face of the first sheet, said film having a refractive index n 2 < n 1; - a light source, preferably a light-emitting diode module (LED module), positioned facing the rim of the first sheet of glass, characterized in that an area of the second main face of the first sheet of glass is provided with a reflecting relief essentially of specular type or else is covered with a transparent flat structure, of refractive index n 3 greater than or equal to n 1, provided with a reflecting relief essentially of specular type. - a first sheet of glass of refractive index n 1 with a first main face, a second main face and a rim; - a transparent polymer film in adhesive contact with the second main face of the first sheet, said film having a refractive index n 2 < n 1; - a light source, preferably a light-emitting diode module (LED module), positioned facing the rim of the first sheet of glass,
A method of manufacturing a golf club head comprising: providing a hollow golf club head having an interior surface; characterised in that the method further comprises: injecting a granular thermoplastic sealant material into said hollow golf club head; heating said golf club head to a temperature at least equal to the melting point of said thermoplastic sealant material; rotating said golf club head simultaneously through a vertical and horizontal axis to thereby coat said interior surface with said sealant material, said temperature being maintained whilst the golf club head is rotated; cooling said golf club head to solidify said thermoplastic sealant material; filling said hollow golf club head with a gas under pressure; and providing a valve having a plunger movable between open and closed positions carried by said hollow golf club head, moving said plunger to its open position to fill said hollow head with gas and moving said plunger to its closed position. providing a hollow golf club head having an interior surface; characterised in that the method further comprises: injecting a granular thermoplastic sealant material into said hollow golf club head; heating said golf club head to a temperature at least equal to the melting point of said thermoplastic sealant material; rotating said golf club head simultaneously through a vertical and horizontal axis to thereby coat said interior surface with said sealant material, said temperature being maintained whilst the golf club head is rotated; cooling said golf club head to solidify said thermoplastic sealant material; filling said hollow golf club head with a gas under pressure; and providing a valve having a plunger movable between open and closed positions carried by said hollow golf club head, moving said plunger to its open position to fill said hollow head with gas and moving said plunger to its closed position. injecting a granular thermoplastic sealant material into said hollow golf club head; heating said golf club head to a temperature at least equal to the melting point of said thermoplastic sealant material; rotating said golf club head simultaneously through a vertical and horizontal axis to thereby coat said interior surface with said sealant material, said temperature being maintained whilst the golf club head is rotated; cooling said golf club head to solidify said thermoplastic sealant material; filling said hollow golf club head with a gas under pressure; and providing a valve having a plunger movable between open and closed positions carried by said hollow golf club head, moving said plunger to its open position to fill said hollow head with gas and moving said plunger to its closed position.