mhurhangee/ep-ind-claims huggingface dataset:
A radio terminal for a radio communication system, the radio terminal comprising: a memory storing instructions; and at least one hardware processor configured to process the instructions to: control dual connectivity using a first cell served by a first radio station and a second cell served by a second radio station, transmit a first Power Headroom for the first cell and a second Power Headroom for the second cell to the second radio station, receive power configuration information related to transmission power determination of at least one of Uplink transmission in the first cell and Uplink transmission in the second cell, from the first radio station, and control Uplink transmission power based on the power configuration information, wherein the power configuration information includes information about maximum transmission power of the first cell and information about maximum transmission power of the second cell, the radio terminal being configured to receive the maximum transmission power in the second cell, which is adjusted in response to a request by the second radio station to the first radio station. a memory storing instructions; and at least one hardware processor configured to process the instructions to: control dual connectivity using a first cell served by a first radio station and a second cell served by a second radio station, transmit a first Power Headroom for the first cell and a second Power Headroom for the second cell to the second radio station, receive power configuration information related to transmission power determination of at least one of Uplink transmission in the first cell and Uplink transmission in the second cell, from the first radio station, and control Uplink transmission power based on the power configuration information, wherein control dual connectivity using a first cell served by a first radio station and a second cell served by a second radio station, transmit a first Power Headroom for the first cell and a second Power Headroom for the second cell to the second radio station, receive power configuration information related to transmission power determination of at least one of Uplink transmission in the first cell and Uplink transmission in the second cell, from the first radio station, and control Uplink transmission power based on the power configuration information, wherein the power configuration information includes information about maximum transmission power of the first cell and information about maximum transmission power of the second cell, the radio terminal being configured to receive the maximum transmission power in the second cell, which is adjusted in response to a request by the second radio station to the first radio station.
A computer implemented method for correcting a user interface device, UID, tracking input which is data representing movements of a UID in a robotic surgery system, the method comprising operations performed by a processor for: receiving a sequence of tracking input samples that are measures of position or orientation of a user interface device, UID, being held by a user; in a prediction phase of a linear quadratic estimator, LQE, computing a current output sample of a state of the LQE that is an estimate of the position or orientation of the UID, wherein the current output sample is computed based on i) a previously computed output sample, and ii) a velocity term, wherein computing the current output sample comprises fitting a line to a plurality of previously computed output samples that are within a window and taking a slope of the line as the velocity term; and in an update phase of the LQE, computing an updated output sample of the state of the LQE, based on i) a previously computed output sample from the prediction phase, and ii) a tracking input sample. receiving a sequence of tracking input samples that are measures of position or orientation of a user interface device, UID, being held by a user; in a prediction phase of a linear quadratic estimator, LQE, computing a current output sample of a state of the LQE that is an estimate of the position or orientation of the UID, wherein the current output sample is computed based on i) a previously computed output sample, and ii) a velocity term, wherein computing the current output sample comprises fitting a line to a plurality of previously computed output samples that are within a window and taking a slope of the line as the velocity term; and in an update phase of the LQE, computing an updated output sample of the state of the LQE, based on i) a previously computed output sample from the prediction phase, and ii) a tracking input sample.
A computer-implemented method comprising: receiving a plurality of user-defined routes (122, 142), each user-defined route comprising a plurality of tripwires along the route, each tripwire having an associated direction of travel to trigger the tripwire, wherein each tripwire is a respective geolocated region and detection that a user is traversing the respective geolocated region triggers a signal at the tripwire, wherein each user-defined route comprises a respective action of a plurality of actions to be executed by a sub-system of a home monitoring system; detecting a first signal at a first tripwire of the plurality of tripwires, the first tripwire comprising an associated first direction of movement to trigger the first tripwire; determining, from the plurality of user-defined routes, a set of user-defined routes including the first tripwire and the associated first direction; detecting a second signal at a second tripwire of the plurality of tripwires, the second tripwire including an associated second direction of movement to trigger the second tripwire; determining, from the first signal and the first tripwire and the second signal and the second tripwire, that a particular user-defined route of the set of user-defined routes is being traversed by the user, the particular user-defined route including the first tripwire and the second tripwire; determining an action to be executed by the sub-system of the home monitoring system for the particular user-defined route being traversed by the user; and triggering execution of the action based on the second signal at the second tripwire. receiving a plurality of user-defined routes (122, 142), each user-defined route comprising a plurality of tripwires along the route, each tripwire having an associated direction of travel to trigger the tripwire, wherein each tripwire is a respective geolocated region and detection that a user is traversing the respective geolocated region triggers a signal at the tripwire, wherein each user-defined route comprises a respective action of a plurality of actions to be executed by a sub-system of a home monitoring system; detecting a first signal at a first tripwire of the plurality of tripwires, the first tripwire comprising an associated first direction of movement to trigger the first tripwire; determining, from the plurality of user-defined routes, a set of user-defined routes including the first tripwire and the associated first direction; detecting a second signal at a second tripwire of the plurality of tripwires, the second tripwire including an associated second direction of movement to trigger the second tripwire; determining, from the first signal and the first tripwire and the second signal and the second tripwire, that a particular user-defined route of the set of user-defined routes is being traversed by the user, the particular user-defined route including the first tripwire and the second tripwire; determining an action to be executed by the sub-system of the home monitoring system for the particular user-defined route being traversed by the user; and triggering execution of the action based on the second signal at the second tripwire.
A system for processing signals delivered by an ultrasonic sensor, the ultrasonic sensor comprising a set of transducers, at least some of the transducers of the set of transducers being configured to emit signals and/or receive echoes corresponding to the reflection of said signals by a detected object, signals being transmitted by a plurality of transducers of the ultrasonic sensor to the processing system in response to the reception of echoes by said transducers, the processing system being configured to determine at least one characteristic item of information relating to the detected object, based on the signals received from the transducers of the ultrasonic sensor, characterised in that it comprises a coupling device configured to transform the signals received from at least some transducers of the set of transducers into pulses, and a pulse processing unit configured to process the pulses delivered by the coupling device, and in that the coupling device comprises: - a thresholding unit configured to apply, for each signal received from a transducer, thresholding to a signal derived from said signal received from the transducer, so as to extract an item of directional information contained in the phase of the derived signal, using at least one threshold, the extracted item of information comprising the rising and/or falling edges of the derived signal; - a signal-to-pulse transformation unit configured to transform the signal derived from the signal received from the transducer into pulses containing the phase of the signal, using the one or more signal edges extracted by the thresholding unit; the pulse processing unit being configured to determine at least one characteristic item of information relating to the detected object based on the pulses determined by the coupling device for all of the signals received from said transducers. - a thresholding unit configured to apply, for each signal received from a transducer, thresholding to a signal derived from said signal received from the transducer, so as to extract an item of directional information contained in the phase of the derived signal, using at least one threshold, the extracted item of information comprising the rising and/or falling edges of the derived signal; - a signal-to-pulse transformation unit configured to transform the signal derived from the signal received from the transducer into pulses containing the phase of the signal, using the one or more signal edges extracted by the thresholding unit;
Method for operating a vehicle, comprising the following steps: - making available a multi-dimensional analytical vehicle operating cost function which defines a dependence of consumption of vehicle drive energy by a route lying ahead of the vehicle or an upcoming travel time of the vehicle as well as of a plurality of manipulated variables, - calculating (403 1) a profile of a manipulated variable of the plurality of manipulated variables, wherein the profile minimizes the vehicle operating cost function for the route lying ahead or for the upcoming travel time, wherein the remaining manipulated variables can be kept constant for the calculation of the profile, - repeated calculation (403 2, 403 3,..., 403 i) of further respective profiles of the plurality of manipulated variables, wherein the respective profile of one manipulated variable of the plurality of manipulated variables minimizes the vehicle operating cost function for the route lying ahead or for the upcoming travel time, wherein for the calculation of the respective profile the manipulated variables are predefined in accordance with the correspondingly previously calculated profiles and the remaining manipulated variables are kept constant, - controlling the vehicle as a function of the respective calculated profiles of the plurality of manipulated variables while the vehicle is travelling along the route or while the travel time elapses, characterized in that - a sequence in which the profiles are calculated is predefined as a function of at least one parameter. - making available a multi-dimensional analytical vehicle operating cost function which defines a dependence of consumption of vehicle drive energy by a route lying ahead of the vehicle or an upcoming travel time of the vehicle as well as of a plurality of manipulated variables, - calculating (403 1) a profile of a manipulated variable of the plurality of manipulated variables, wherein the profile minimizes the vehicle operating cost function for the route lying ahead or for the upcoming travel time, wherein the remaining manipulated variables can be kept constant for the calculation of the profile, - repeated calculation (403 2, 403 3,..., 403 i) of further respective profiles of the plurality of manipulated variables, wherein the respective profile of one manipulated variable of the plurality of manipulated variables minimizes the vehicle operating cost function for the route lying ahead or for the upcoming travel time, wherein for the calculation of the respective profile the manipulated variables are predefined in accordance with the correspondingly previously calculated profiles and the remaining manipulated variables are kept constant, - controlling the vehicle as a function of the respective calculated profiles of the plurality of manipulated variables while the vehicle is travelling along the route or while the travel time elapses, characterized in that - a sequence in which the profiles are calculated is predefined as a function of at least one parameter.
An assembly comprising a jig, a first structural aeronautical article with a coupling arrangement, and a second structural aeronautical article with a coupling arrangement, the jig comprises a plurality of elongated connection bars and a set of second level connection bars and is configured for holding in mutual position the first structural aeronautical article relative to the second structural aeronautical article, the plurality of elongated connection bars connectable to the respective first and second structural aeronautical article (3, 5) via their respective coupling arrangement each connection bar comprises a first end and a second end (15, 15', 15"), each of the ends being provided for coupling to the opposite positioned structural aeronautical articles (3, 5), the connection bars exhibit a pre-determined length, wherein each of said coupling arrangements is provided to be releasably coupled to the structural aeronautical articles (3, 5) and to the connection bars; the coupling arrangements are provided to be fitted in apertures of the structural aeronautical articles (3, 5) and to be coupled to the set of second level connection bars (7, 8", 14) also exhibiting first and second ends, wherein first ends of the second level connection bars (7, 8", 14) are provided to be coupled to the coupling arrangement of the second structural article and second ends of the second level connection bars are provided to be coupled to a coupling arrangement of a third structural article.
A rolling mill area production equipment with a laser lineation positioning device, comprising: a laser lineation positioning device and a rotary roller table, wherein the laser lineation positioning device is able to calibrate a preset angle of a rolling piece through laser light rays emitted outwards, so that the preset angle is formed between a center line of the rolling piece and a rolling center line, wherein the laser lineation positioning device is disposed above the rotary roller table and is able to transversely move on a corresponding rotary roller table, and the rotary roller table is configured to drive the rolling piece to rotate to the preset angle, wherein the rotary roller table comprises an entry side rotary roller table and an exit side rotary roller table, there are at least two sets of the laser lineation positioning devices, two sets of the laser lineation positioning devices are correspondingly disposed on the entry side rotary roller table and the exit side rotary roller table, and a mill roll is disposed between the entry side rotary roller table and the exit side rotary roller table, wherein the entry side rotary roller table and the exit side rotary roller table are both composed of a plurality of first roller tables disposed side by side in a horizontal direction, each of the first roller tables is connected to a first roller table motor, and adjacent first roller table motors can drive corresponding first roller tables to rotate in a same direction or in opposite directions.
A drug delivery device for selecting and dispensing a number of user variable doses of a medicament, comprising a housing, a cartridge holder for receiving a cartridge, a lead screw, means (40, 90) for driving the lead screw during dose dispensing and a cartridge containing a medicament, characterized in that the lead screw is coupled to the cartridge holder such that the cartridge holder is axially displaced with respect to the housing and the lead screw during dose dispensing, wherein the lead screw is coupled to the cartridge holder by a retraction nut which is axially constrained to the cartridge holder and in threaded engagement with the lead screw.
Round baler for producing bales, with: a baling chamber, at least one driveable roller (46, 48, 50, 52) which bounds part of the circumference of the baling chamber and is fastened to a movable holder, and a driveable, endless, flexible pressing means which bounds a further part of the circumference of the baling chamber and lies against a first rotary body and a second rotary body, of which the first rotary body is attached to the holder, wherein the second rotary body is coupled in terms of movement to the holder by a drive connection which inevitably couples the position of the second rotary body to the position of the holder, and the second rotary body is pretensioned by a tension-generating means in order to tighten the pressing means, characterized in that the tension-generating means is fitted into the drive connection between the holder and the second rotary body. a baling chamber, at least one driveable roller (46, 48, 50, 52) which bounds part of the circumference of the baling chamber and is fastened to a movable holder, and a driveable, endless, flexible pressing means which bounds a further part of the circumference of the baling chamber and lies against a first rotary body and a second rotary body, of which the first rotary body is attached to the holder, wherein the second rotary body is coupled in terms of movement to the holder by a drive connection which inevitably couples the position of the second rotary body to the position of the holder, and the second rotary body is pretensioned by a tension-generating means in order to tighten the pressing means, characterized in that the tension-generating means is fitted into the drive connection between the holder and the second rotary body.
A capacitor comprising: a support substrate; a lower electrode disposed on the support substrate; a dielectric disposed on the lower electrode; and an upper electrode disposed on the dielectric, wherein an upper face of the dielectric comprises a first region (a-b) that is covered with the upper electrode and a second region (b-c) that is a region except the first region, characterised in that the first region (a-b) of the dielectric has a higher crystallinity than that of the second region (b-c), and a surface roughness of said first region (a-b) is greater than that of said second region (b-c). a support substrate; a lower electrode disposed on the support substrate; a dielectric disposed on the lower electrode; and an upper electrode disposed on the dielectric, wherein an upper face of the dielectric comprises a first region (a-b) that is covered with the upper electrode and a second region (b-c) that is a region except the first region, the first region (a-b) of the dielectric has a higher crystallinity than that of the second region (b-c), and a surface roughness of said first region (a-b) is greater than that of said second region (b-c).
A control apparatus for controlling an image forming system, wherein the image forming system includes transparent toner image forming means for forming a transparent toner image on a sheet on which a color toner image has been fixed, the color toner image being formed in an image formable area in which the image forming system is capable of forming a toner image on the sheet, and includes fixing means for fixing the transparent toner image formed on the sheet, said control apparatus comprising: area obtaining means for obtaining a first area of the color toner image where partial adjustment of image gloss of the color toner image is to be performed by using the transparent toner; and control means for controlling the transparent toner image forming means so that the transparent toner is placed on the first area in a toner amount per unit area which is a predetermined amount and so that the transparent toner is placed on a second area being the image formable area excluding the first area in a toner amount per unit area which is less than the predetermined amount. area obtaining means for obtaining a first area of the color toner image where partial adjustment of image gloss of the color toner image is to be performed by using the transparent toner; and control means for controlling the transparent toner image forming means so that the transparent toner is placed on the first area in a toner amount per unit area which is a predetermined amount and so that the transparent toner is placed on a second area being the image formable area excluding the first area in a toner amount per unit area which is less than the predetermined amount.
A fusion polypeptide comprising an antibody heavy chain variable domain, an antibody CH3 domain as multimerization domain and an antibody light chain variable domain, wherein - the antibody heavy chain variable domain is fused via a first (peptidic) linker to one terminus of the antibody CH3 multimerization domain, - the antibody light chain variable domain is fused via a second (peptidic) linker to the respective other terminus of the antibody CH3 multimerization domain, and - the antibody heavy chain variable domain has an intra-peptidic disulphide bond to the antibody CH3 multimerization domain, wherein the heavy chain variable domain comprises at position 82b, according to Kabat, a cysteine amino acid residue, wherein the antibody CH3 domain has at position 433, numbering according to Kabat EU index, a cysteine amino acid residue, wherein the disulfide bond is between the cysteine residue at position 82b of the heavy chain variable domain and the cysteine residue at position 433 of the CH3 domain, and wherein the N-terminal and C-terminal domains of the fusion polypeptide form a binding site. wherein - the antibody heavy chain variable domain is fused via a first (peptidic) linker to one terminus of the antibody CH3 multimerization domain, - the antibody light chain variable domain is fused via a second (peptidic) linker to the respective other terminus of the antibody CH3 multimerization domain, and - the antibody heavy chain variable domain has an intra-peptidic disulphide bond to the antibody CH3 multimerization domain, - the antibody heavy chain variable domain is fused via a first (peptidic) linker to one terminus of the antibody CH3 multimerization domain, - the antibody light chain variable domain is fused via a second (peptidic) linker to the respective other terminus of the antibody CH3 multimerization domain, and - the antibody heavy chain variable domain has an intra-peptidic disulphide bond to the antibody CH3 multimerization domain, wherein the heavy chain variable domain comprises at position 82b, according to Kabat, a cysteine amino acid residue, wherein the antibody CH3 domain has at position 433, numbering according to Kabat EU index, a cysteine amino acid residue, wherein the disulfide bond is between the cysteine residue at position 82b of the heavy chain variable domain and the cysteine residue at position 433 of the CH3 domain, and wherein the N-terminal and C-terminal domains of the fusion polypeptide form a binding site.