mhurhangee/ep-ind-claims huggingface dataset:
A method for handling, by a user equipment, UE, radio access network, RAN, assistance information in a wireless communication system, the method comprising: receiving, by the UE, first RAN assistance information including a first threshold value for traffic steering of a non-roaming UE; receiving, by the UE, offset values for a roaming UE, wherein each of the offset values is related with each of visited public land mobile networks, VPLMNs; determining, by the UE, whether the UE is the roaming UE or the non-roaming UE; when the UE is determined to be the roaming UE: manipulating the first threshold value included in the received first RAN assistance information, based on a certain offset value among the received offset values, wherein the certain offset value is an offset value related with a home PLMN, HPLMN, or an equivalent HPLMN, EHPLMN, of the roaming UE, and applying the manipulated first threshold value for traffic steering of the roaming UE; and when the UE is determined to be the non-roaming UE, applying the first threshold value included in the received first RAN assistance information for traffic steering of the non-roaming UE. receiving, by the UE, first RAN assistance information including a first threshold value for traffic steering of a non-roaming UE; receiving, by the UE, offset values for a roaming UE, wherein each of the offset values is related with each of visited public land mobile networks, VPLMNs; determining, by the UE, whether the UE is the roaming UE or the non-roaming UE; when the UE is determined to be the roaming UE: manipulating the first threshold value included in the received first RAN assistance information, based on a certain offset value among the received offset values, wherein the certain offset value is an offset value related with a home PLMN, HPLMN, or an equivalent HPLMN, EHPLMN, of the roaming UE, and applying the manipulated first threshold value for traffic steering of the roaming UE; and manipulating the first threshold value included in the received first RAN assistance information, based on a certain offset value among the received offset values, wherein the certain offset value is an offset value related with a home PLMN, HPLMN, or an equivalent HPLMN, EHPLMN, of the roaming UE, and applying the manipulated first threshold value for traffic steering of the roaming UE; and when the UE is determined to be the non-roaming UE, applying the first threshold value included in the received first RAN assistance information for traffic steering of the non-roaming UE.
An Immunogenic composition for use in a method of treatment by inducing an immune response against enterotoxigenic Escherichia coli, wherein said immune response inhibits enterotoxigenic Escherichia coli fimbriae adherence to human cells, the immunogenic composition comprising a purified fusion protein containing Escherichia coli fimbrial adhesin polypeptide, wherein the fimbrial adhesin polypeptide is any one of CfaE, CsfD, CsuD, CooD, CosD, CsdD, CsbD, CotD and CstH, and is connected via a linker and donor beta-strand polypeptide sequence to a toxin A subunit polypeptide, wherein said linker is composed of the amino acid sequence selected from the croup consisting of SEQ ID No.1, SEQ ID No. 2, and SEQ ID No. 3, wherein said donor beta-strand is an 8 to 20 amino acid sequence from Escherichia coli fimbrial major subunit or adhesin monomer selected from the group consisting of CfaB, CsfA, CsuA1, CsuA2,[[.]] CooA, CosA, CsbA, CsdA, CotA and CstH, and wherein the inducing of an immune response comprises: a. administrating a priming dose of an immunogen comprising the immunogenic composition; and b. administrating boosting doses of the immunogen, wherein the first dose is administered at least 1 week after the priming dose with a unit dose range of 50 μg to 1 mg of said immunogen in a buffered aqueous solution. a. administrating a priming dose of an immunogen comprising the immunogenic composition; and b. administrating boosting doses of the immunogen, wherein the first dose is administered at least 1 week after the priming dose with a unit dose range of 50 μg to 1 mg of said immunogen in a buffered aqueous solution.
A data frame transmission method for a virtual elastic Common Public Radio Interface, CPRI, interface, wherein the method comprises: constructing a super frame of a virtual elastic CPRI interface, wherein the super frame of the virtual elastic CPRI interface is a data frame of a CPRI physical interface that is equivalent to N times of a reference rate, and N is a positive integer; dividing a frame structure of a physical interface into multiple timeslots, wherein bandwidth of the timeslots is not less than the reference rate; the method being characterized by placing the super frame of the virtual elastic CPRI interface into at least one timeslot of the multiple timeslots in the frame structure of the physical interface to obtain a new data frame; and sending the new data frame to a receive end using the physical interface. constructing a super frame of a virtual elastic CPRI interface, wherein the super frame of the virtual elastic CPRI interface is a data frame of a CPRI physical interface that is equivalent to N times of a reference rate, and N is a positive integer; dividing a frame structure of a physical interface into multiple timeslots, wherein bandwidth of the timeslots is not less than the reference rate; the method being characterized by placing the super frame of the virtual elastic CPRI interface into at least one timeslot of the multiple timeslots in the frame structure of the physical interface to obtain a new data frame; and sending the new data frame to a receive end using the physical interface.
An electrosurgical device comprising: a probe having a proximal end and a distal end; bipolar surface electrodes adjacent the distal end of the probe, the bipolar surface electrodes being separated from each other by a gap and extending over the distal end of the probe; and a bipolar snare extending distally from the distal end of the probe and including first and second snare electrodes (112, 114), the device further comprising first and second terminals (302, 304) by which the electrosurgical device is coupled to a bipolar energy source; and circuitry (200a, 200b, 200c) coupling the first and second terminals to the bipolar surface electrodes and to the first and second snare electrodes; wherein the circuitry (200a, 200b, 200c) couples the first and second terminals to proximal ends (122a, 124a) of the bipolar surface electrodes and to proximal ends (112a, 114a) of the first and second snare electrodes; and wherein the circuitry (200a, 200b) includes a switching device (250, 260) by which the first and second terminals are selectively coupled to either (i) the proximal ends of the bipolar surface electrodes, or (ii) the proximal ends of the first and second snare electrodes. a probe having a proximal end and a distal end; bipolar surface electrodes adjacent the distal end of the probe, the bipolar surface electrodes being separated from each other by a gap and extending over the distal end of the probe; and a bipolar snare extending distally from the distal end of the probe and including first and second snare electrodes (112, 114), the device further comprising first and second terminals (302, 304) by which the electrosurgical device is coupled to a bipolar energy source; and circuitry (200a, 200b, 200c) coupling the first and second terminals to the bipolar surface electrodes and to the first and second snare electrodes; wherein the circuitry (200a, 200b, 200c) couples the first and second terminals to proximal ends (122a, 124a) of the bipolar surface electrodes and to proximal ends (112a, 114a) of the first and second snare electrodes; and wherein the circuitry (200a, 200b) includes a switching device (250, 260) by which the first and second terminals are selectively coupled to either (i) the proximal ends of the bipolar surface electrodes, or (ii) the proximal ends of the first and second snare electrodes.
A system for implanting an interbody device between adjacent vertebrae comprising: an interbody device having a plurality of lobes extending therefrom, said interbody device having a relaxed shape approximating the shape of the disc being replaced; an insertion guide having a bore therein from a proximal end to a distal end thereof to accept said interbody device in an unrelaxed shape, wherein said distal end is shaped for insertion into an intervertebral space; and an insertion rod positioned within said bore of said insertion guide whereby said interbody device is positioned within said intervertebral space by advancing said insertion rod into said insertion guide, characterized in that the distal end of the insertion guide has a curved or arcuate tip that is configured to direct proper placement of the interbody device by turning the interbody device as the interbody device exits the distal end of the insertion guide. an interbody device having a plurality of lobes extending therefrom, said interbody device having a relaxed shape approximating the shape of the disc being replaced; an insertion guide having a bore therein from a proximal end to a distal end thereof to accept said interbody device in an unrelaxed shape, wherein said distal end is shaped for insertion into an intervertebral space; and an insertion rod positioned within said bore of said insertion guide whereby said interbody device is positioned within said intervertebral space by advancing said insertion rod into said insertion guide, characterized in that the distal end of the insertion guide has a curved or arcuate tip that is configured to direct proper placement of the interbody device by turning the interbody device as the interbody device exits the distal end of the insertion guide.
An apparatus comprising: a controller configured to: generate a first indication for a vehicle braking system depending upon an oxidation state of a wheel brake of the vehicle, wherein the controller is configured to: determine a brake temperature characteristic criterion of the brake according to the oxidation state of the brake; determine whether a temperature characteristic of the brake satisfies the brake temperature characteristic criterion; and generate the first indication for the braking system depending upon whether the brake temperature characteristic satisfies the brake temperature characteristic criterion, and wherein: the temperature characteristic of the brake comprises a temperature of the brake; characterised in that the brake temperature characteristic criterion is satisfied if the temperature of the brake exceeds a brake temperature threshold; and the controller is configured such that the higher the level of thermal oxidation of the brake, the lower the brake temperature threshold of the determined brake temperature characteristic criterion is. a controller configured to: generate a first indication for a vehicle braking system depending upon an oxidation state of a wheel brake of the vehicle, wherein the controller is configured to: determine a brake temperature characteristic criterion of the brake according to the oxidation state of the brake; determine whether a temperature characteristic of the brake satisfies the brake temperature characteristic criterion; and generate the first indication for the braking system depending upon whether the brake temperature characteristic satisfies the brake temperature characteristic criterion, and determine a brake temperature characteristic criterion of the brake according to the oxidation state of the brake; determine whether a temperature characteristic of the brake satisfies the brake temperature characteristic criterion; and generate the first indication for the braking system depending upon whether the brake temperature characteristic satisfies the brake temperature characteristic criterion, and wherein: the temperature characteristic of the brake comprises a temperature of the brake; characterised in that the brake temperature characteristic criterion is satisfied if the temperature of the brake exceeds a brake temperature threshold; and the controller is configured such that the higher the level of thermal oxidation of the brake, the lower the brake temperature threshold of the determined brake temperature characteristic criterion is. the temperature characteristic of the brake comprises a temperature of the brake; characterised in that the brake temperature characteristic criterion is satisfied if the temperature of the brake exceeds a brake temperature threshold; and the controller is configured such that the higher the level of thermal oxidation of the brake, the lower the brake temperature threshold of the determined brake temperature characteristic criterion is.
Vehicle having an apparatus for producing a warning, comprising: - a first camera for capturing a first image of a vehicle environment of a vehicle from a first camera perspective, - a second camera for capturing a second image of the vehicle environment of the vehicle from a second camera perspective, - at least one third camera (1H, 1F) for capturing a third image of the vehicle environment of the vehicle from a third camera perspective, wherein the third camera (1H, 1F) is provided as a separate camera, - wherein the first image, the second image and the third image overlap in a first overlap region (6, 6'), and - a warning unit, which is set up to emit a warning if position information, which is a position of an object or is an expected position of the object in relation to the vehicle, is within a specified warning region in relation to the vehicle, and - the first camera and the second camera are separate cameras which are arranged at external positions of the vehicle at a distance from one another in the longitudinal direction or transverse direction of the vehicle, characterized in that - an evaluation unit is provided, which is set up to determine the position information in the first overlap region based on the first image, the second image and the third image and to transmit it to the warning unit. - a first camera for capturing a first image of a vehicle environment of a vehicle from a first camera perspective, - a second camera for capturing a second image of the vehicle environment of the vehicle from a second camera perspective, - at least one third camera (1H, 1F) for capturing a third image of the vehicle environment of the vehicle from a third camera perspective, wherein the third camera (1H, 1F) is provided as a separate camera, - wherein the first image, the second image and the third image overlap in a first overlap region (6, 6'), and - a warning unit, which is set up to emit a warning if position information, which is a position of an object or is an expected position of the object in relation to the vehicle, is within a specified warning region in relation to the vehicle, and - the first camera and the second camera are separate cameras which are arranged at external positions of the vehicle at a distance from one another in the longitudinal direction or transverse direction of the vehicle, - an evaluation unit is provided, which is set up to determine the position information in the first overlap region based on the first image, the second image and the third image and to transmit it to the warning unit.
A computer-implemented detection method for detecting occurrence of nonspecific reaction in analysis for an antigen or an antibody contained in a biological sample with use of a measurement reagent containing an antibody or an antigen that causes antigen-antibody reaction with the antigen or the antibody in the biological sample, the detection method comprising: generating a data group about progress of antigen-antibody reaction between the antigen or the antibody contained in the biological sample and the antibody or the antigen contained in the measurement reagent; inputting the data group to a deep learning algorithm; and generating information about occurrence of nonspecific reaction, based on a result outputted by the deep learning algorithm, wherein the generating of the data group comprises receiving detection information indicating an intensity of detected light that is detected through a measurement sample to which light is applied for a predetermined time period, and generating the data group from the detection information having been received, wherein each piece of data included in the data group expresses an intensity of the detected light that is detected at each measurement time point in the predetermined time period. inputting the data group to a deep learning algorithm; and generating information about occurrence of nonspecific reaction, based on a result outputted by the deep learning algorithm, wherein the generating of the data group comprises receiving detection information indicating an intensity of detected light that is detected through a measurement sample to which light is applied for a predetermined time period, and generating the data group from the detection information having been received, wherein each piece of data included in the data group expresses an intensity of the detected light that is detected at each measurement time point in the predetermined time period.
A non-transitory computer-readable storage medium storing instructions that when executed cause a processor to perform a process for hybrid transform coding of an intra-frame, the instructions comprising instructions to: identify a video data block using a video codec; and select a set of one-dimensional transforms amongst either butterfly Asymmetric Discrete Sine Transform or Discrete Cosine Transform depending on a prediction direction to form a two-dimensional transform; apply a transform kernel of the two-dimensional transform to the video data block in a pipeline, wherein: the transform kernel of the butterfly Asymmetric Discrete Sine Transform is of the form sin 2 n − 1 2 k − 1 π 4 ⁢ N, where N is the block dimension, and where n and k, respectively, denote a time index and a frequency index, where both n and k range from 1 to N, and the transform kernel of the Discrete Cosine Transform is of the form cos 2 n − 1 k − 1 π 2 ⁢ N. identify a video data block using a video codec; and select a set of one-dimensional transforms amongst either butterfly Asymmetric Discrete Sine Transform or Discrete Cosine Transform depending on a prediction direction to form a two-dimensional transform; apply a transform kernel of the two-dimensional transform to the video data block in a pipeline, wherein: the transform kernel of the butterfly Asymmetric Discrete Sine Transform is of the form sin 2 n − 1 2 k − 1 π 4 ⁢ N, where N is the block dimension, and where n and k, respectively, denote a time index and a frequency index, where both n and k range from 1 to N, and the transform kernel of the Discrete Cosine Transform is of the form cos 2 n − 1 k − 1 π 2 ⁢ N. the transform kernel of the butterfly Asymmetric Discrete Sine Transform is of the form sin 2 n − 1 2 k − 1 π 4 ⁢ N, where N is the block dimension, and where n and k, respectively, denote a time index and a frequency index, where both n and k range from 1 to N, and the transform kernel of the Discrete Cosine Transform is of the form cos 2 n − 1 k − 1 π 2 ⁢ N.
A motor, comprising; a housing; a motor assembly accommodated in the housing; a mold cover having a conductive layer formed on an outer circumferential surface thereof, the outer circumferential surface being coupled to the housing; a noise filter accommodated in the mold cover; wherein a ground terminal of the noise filter is electrically connected to the outer circumferential surface of the mold cover; characterized in that the ground terminal of the noise filter is electrically connected to the conductive layer by a contact pin disposed between the ground terminal of the noise filter and the conductive layer; and in that the motor further comprises a conductive tape by which the contact pin is attached to the conductive layer.
A self-adjusting drum system for use with a pump, comprising: - a balancing drum mounted on a central shaft for joint rotation therewith, said shaft extending along an axial direction (A-A), said balancing drum having an outer surface thereof; - a fixed, stationary structure surrounding said balancing drum, said stationary structure having an inner surface arranged so as to face said outer surface of the balancing drum with an annular gap being provided therebetween; - a bush element arranged in said annular gap so as to leave a clearance with respect to said inner and/or outer surfaces (5, 6); and - fixing means (9, 10, 11) for fixing said bush element to said stationary structure so as to lock the bush element against rotation movement and movement along the axial direction (A-A) and allow it to freely move along a radial direction (B-B), inside said annular gap. - a balancing drum mounted on a central shaft for joint rotation therewith, said shaft extending along an axial direction (A-A), said balancing drum having an outer surface thereof; - a fixed, stationary structure surrounding said balancing drum, said stationary structure having an inner surface arranged so as to face said outer surface of the balancing drum with an annular gap being provided therebetween; - a bush element arranged in said annular gap so as to leave a clearance with respect to said inner and/or outer surfaces (5, 6); and - fixing means (9, 10, 11) for fixing said bush element to said stationary structure so as to lock the bush element against rotation movement and movement along the axial direction (A-A) and allow it to freely move along a radial direction (B-B), inside said annular gap.
A jet pipe servovalve comprising: a fluid source; a fluid transfer valve assembly comprising a supply port and a control port; a moveable valve spool arranged to regulate flow of fluid from the fluid source, via the supply port, to the control port in response to a control signal; and a drive assembly configured to axially move the valve spool relative to the fluid transfer valve assembly in response to the control signal to regulate the fluid flow; wherein the drive assembly comprises a steerable jet pipe moveable by an amount determined by the control signal to cause corresponding movement of the valve spool; the jet pipe terminating at one end in a nozzle and at the other end being in fluid flow engagement with a fluid supply pipe and fixedly attached thereto, whereby movement of the valve spool is caused by fluid flowing from the nozzle to engage with the valve spool, and wherein the end of the supply pipe furthest from the jet pipe is attached to a slider component mounted within a housing of the fluid transfer valve assembly for sliding movement relative to the housing, responsive to movement of the jet pipe responsive to the control signal; and wherein the slider component comprises a port in fluid flow engagement with the fluid supply pipe and the fluid source, via which port fluid from the fluid source enters the fluid supply pipe for conveyance to the spool via the steerable jet pipe and the nozzle.
An actuating device for a charging device, in particular for an exhaust gas turbocharger, comprising at least one holding element, in particular a holding ring at which a plurality of guide vanes are held which may be brought into an effective connection with an actuating element, in particular with an actuating ring, via a respective connecting element, and whose respective angles of incidence are adjustable by means of the actuating element, characterised in that the respective connecting element may be brought into an effective connection with the actuating element via at least one effective surface (34, 36) which extends at an angle to the axial direction of the actuating device.