mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting an indication of user equipment uplink buffer status in a wireless communications network in which said user equipment is configured to communicate with more than one base station at a given time using dual connectivity techniques in which a scheduler is provided at each serving base station, said method comprising: receiving an indication of a dual connectivity configuration to be used by said user equipment for uplink transmission; structuring an uplink buffer status report to group uplink buffer status by one or more scheduler to be used by said user equipment according to said received indication of a dual connectivity configuration; and transmitting said structured uplink buffer status report to one or more of said base stations; wherein structuring said uplink buffer status report comprises constructing an independent uplink buffer status report for each scheduler to be used by said user equipment; transmitting said structured uplink buffer status report comprises using resources granted by said more than one base station; wherein the resource used to transmit each said independent uplink buffer status report is used as an implicit indication of which scheduler each said independent uplink buffer status report is intended for. receiving an indication of a dual connectivity configuration to be used by said user equipment for uplink transmission; structuring an uplink buffer status report to group uplink buffer status by one or more scheduler to be used by said user equipment according to said received indication of a dual connectivity configuration; and transmitting said structured uplink buffer status report to one or more of said base stations; wherein structuring said uplink buffer status report comprises constructing an independent uplink buffer status report for each scheduler to be used by said user equipment; transmitting said structured uplink buffer status report comprises using resources granted by said more than one base station; wherein the resource used to transmit each said independent uplink buffer status report is used as an implicit indication of which scheduler each said independent uplink buffer status report is intended for.
A management server in communicable relation with a telecommunications network, the server configured to enable communications between first and second telecommunications devices (1; 15), where the second telecommunications device is not directly routable in the telecommunications network in regard to communications with the first telecommunications device, the management server being configured to: receive a communication being transmitted between the first device and the second device, the communication having been diverted from the telecommunications network; determine whether the first device has a pairing with the second device; where the first device does have a pairing with the second device: adapt the communication so that it is routable in the telecommunications network towards the first or second device; and return the adapted communication to the telecommunications network, such that the communication is only adapted and returned to the telecommunications network when the first device has a pairing with the second device. receive a communication being transmitted between the first device and the second device, the communication having been diverted from the telecommunications network; determine whether the first device has a pairing with the second device; where the first device does have a pairing with the second device: adapt the communication so that it is routable in the telecommunications network towards the first or second device; and adapt the communication so that it is routable in the telecommunications network towards the first or second device; and return the adapted communication to the telecommunications network, such that the communication is only adapted and returned to the telecommunications network when the first device has a pairing with the second device.
A position detection device comprising: a lighting fixture; a control device; a position correction unit being a suction conveying unit; a conveyor for conveying a sheet member, the sheet member being cut out from a sheet material wound up in a roll shape, and composing a battery element; a pressing unit that presses the sheet member against a flat reference surface on the conveyor; a position detection unit being a imaging camera, for imaging the sheet member under light, which is irradiated by the lighting fixture, to detect a position of the sheet member in a state where the sheet member is pressed against the reference surface by the pressing unit and for transmitting a signal that is based on an image of the sheet member imaged in the event where the sheet member is conveyed to a predetermined position and stopped there; wherein the control device receives the signal, calculates position information and controls the movement of a drive device of the position correction unit based on a result of the calculated position information; and wherein the position of the sheet member, the position being detected by the position detection unit, is used as position information of the sheet member in a subsequent step in which the position correction unit corrects the position of the sheet member by using the position of the sheet member being detected by the position detection unit as the position information of the sheet member, wherein the position correction unit appropriately corrects the position and attitude of the sheet member and conveys the sheet member. a lighting fixture; a control device; a position correction unit being a suction conveying unit; a conveyor for conveying a sheet member, the sheet member being cut out from a sheet material wound up in a roll shape, and composing a battery element; a pressing unit that presses the sheet member against a flat reference surface on the conveyor; a position detection unit being a imaging camera, for imaging the sheet member under light, which is irradiated by the lighting fixture, to detect a position of the sheet member in a state where the sheet member is pressed against the reference surface by the pressing unit and for transmitting a signal that is based on an image of the sheet member imaged in the event where the sheet member is conveyed to a predetermined position and stopped there; wherein the control device receives the signal, calculates position information and controls the movement of a drive device of the position correction unit based on a result of the calculated position information; and wherein the position of the sheet member, the position being detected by the position detection unit, is used as position information of the sheet member in a subsequent step in which the position correction unit corrects the position of the sheet member by using the position of the sheet member being detected by the position detection unit as the position information of the sheet member, wherein the position correction unit appropriately corrects the position and attitude of the sheet member and conveys the sheet member.
Process for the preparation of flame-retarded parts by powder bed fusion, in which the powder comprises at least one polyamide and/or copolyamide and at least one flame-retardant agent of cyclic phosphonate ester type, in which the flame-retardant agent of cyclic phosphonate ester type is of general formula: in which: j, k, 1 and m, which are identical or different, represent an integer from 1 to 3; A 1 and A 2, which are identical or different, represent an alkyl group of 1 to 4 carbon atoms or an aryl group of 5 to 7 carbon atoms. j, k, 1 and m, which are identical or different, represent an integer from 1 to 3; A 1 and A 2, which are identical or different, represent an alkyl group of 1 to 4 carbon atoms or an aryl group of 5 to 7 carbon atoms.
A computer-implemented method for determining one or more operating modes for a crude oil displacement system, the crude oil displacement system being arranged to inject an aqueous displacement fluid into one or more reservoirs, each reservoir comprising a porous and permeable rock formation, wherein crude oil and formation water are contained within a pore space of the rock formation, said crude oil displacement system being for use in displacing crude oil from the pore space of the rock formation, the method comprising the steps of: receiving measurement data associated with one or more chemical characteristics of the displacement fluid and one or more chemical characteristics of the rock formation, the crude oil and the formation water of the one or more reservoirs; inputting said measurement data and data representing a predetermined volume of oil into a computer-implemented predictive model, wherein the predictive model is based on correlations between data indicative of known incremental displacement of oil and data indicative of chemical characteristics corresponding to the rock formation, the crude oil, the formation water and the displacement fluid; operating the predictive model so as to generate predicted data indicative of a predicted additional amount of oil, compared with the predetermined volume of oil, that will be displaced from the pore space of the one or more rock formations by configuring the crude oil displacement system so as to inject said displacement fluid having said measured chemical characteristics into the one or more reservoirs, wherein said predicted data is generated based on said measured chemical characteristics; and determining, on the basis of the predicted data, said one or more operating modes of the crude oil displacement system. receiving measurement data associated with one or more chemical characteristics of the displacement fluid and one or more chemical characteristics of the rock formation, the crude oil and the formation water of the one or more reservoirs; inputting said measurement data and data representing a predetermined volume of oil into a computer-implemented predictive model, wherein the predictive model is based on correlations between data indicative of known incremental displacement of oil and data indicative of chemical characteristics corresponding to the rock formation, the crude oil, the formation water and the displacement fluid; operating the predictive model so as to generate predicted data indicative of a predicted additional amount of oil, compared with the predetermined volume of oil, that will be displaced from the pore space of the one or more rock formations by configuring the crude oil displacement system so as to inject said displacement fluid having said measured chemical characteristics into the one or more reservoirs, wherein said predicted data is generated based on said measured chemical characteristics; and determining, on the basis of the predicted data, said one or more operating modes of the crude oil displacement system.
A method for evaluation of a multi-component medicine comprising judging the degree of difference of the multi-component medicine to be evaluated from a group of multi-component medicines selected as a reference group by using a Mahalanobis distance obtained by a process comprising the following steps to, a step of obtaining fingerprint data of three-dimensional high performance liquid chromatography of the multi-component medicine to be evaluated, a step of combining the fingerprint data obtained in with fingerprint data of three-dimensional high performance liquid chromatography of other multi-component medicines of the same kind forming a reference group, a step of allocating variable axes in the MT method to the number of multi-component medicine and the elution time or detection wavelength of the fingerprint data of above and regarding a signal strength as a characteristic amount in the MT method, a step of obtaining a unit space from the characteristic amount of using the MT method, and a step of obtaining the Mahalanobis distance of the multi-component medicine to be evaluated using the MT method from the unit space obtained in. a step of obtaining fingerprint data of three-dimensional high performance liquid chromatography of the multi-component medicine to be evaluated, a step of combining the fingerprint data obtained in with fingerprint data of three-dimensional high performance liquid chromatography of other multi-component medicines of the same kind forming a reference group, a step of allocating variable axes in the MT method to the number of multi-component medicine and the elution time or detection wavelength of the fingerprint data of above and regarding a signal strength as a characteristic amount in the MT method, a step of obtaining a unit space from the characteristic amount of using the MT method, and a step of obtaining the Mahalanobis distance of the multi-component medicine to be evaluated using the MT method from the unit space obtained in.
A method of determining a degree of yaw error of a wind turbine comprising a spinner with an essentially flat windward surface, which method comprises - obtaining wind pressure measurement values (300, S) from in front of the rotor plane, which wind pressure measurement values (300, S) exhibit a periodic nature related to a rotation of the spinner; - performing a signal processing step to process the wind pressure measurement values (300, S) to determine a phase offset (50_4, 40_offset, 41_offset) of the wind pressure measurement values (300, S) relative to an angular reference; - deriving a yaw error angle (332, 332', α) from the phase offset (50_4, 40_offset, 41_offset); wherein the wind pressure measurement values (300, S) are obtained at a number of measurement points (101, 102) arranged in the spinner windward surface, wherein the spinner windward surface precedes or coincides with the rotor plane (P R) of the wind turbine. - obtaining wind pressure measurement values (300, S) from in front of the rotor plane, which wind pressure measurement values (300, S) exhibit a periodic nature related to a rotation of the spinner; - performing a signal processing step to process the wind pressure measurement values (300, S) to determine a phase offset (50_4, 40_offset, 41_offset) of the wind pressure measurement values (300, S) relative to an angular reference; - deriving a yaw error angle (332, 332', α) from the phase offset (50_4, 40_offset, 41_offset);
Method for producing a rotor and/or a stator of a dynamoelectric rotary machine by means of the following steps: - producing pre-formed coils from an integral electrically conductive material or pre-insulated or coated electrically conductive wires, - fixing spacers to the pre-formed coil at predefinable axial intervals, - inserting the pre-formed coil, which is provided with spacers, into slots in a laminated core of a stator or rotor, - making contact with the individual pre-formed coils to form groups of coils and forming a winding system (6, 3) of a rotor and/or stator in accordance with a predefined circuit plan, - insulating the pre-formed coils or the winding system (6, 3) in the slots by complete encapsulation, in particular by complete vacuum encapsulation. - producing pre-formed coils from an integral electrically conductive material or pre-insulated or coated electrically conductive wires, - fixing spacers to the pre-formed coil at predefinable axial intervals, - inserting the pre-formed coil, which is provided with spacers, into slots in a laminated core of a stator or rotor, - making contact with the individual pre-formed coils to form groups of coils and forming a winding system (6, 3) of a rotor and/or stator in accordance with a predefined circuit plan, - insulating the pre-formed coils or the winding system (6, 3) in the slots by complete encapsulation, in particular by complete vacuum encapsulation.
Pipe flaring apparatus comprising a tool holder for at least one pipe flaring tool, a pipe holder, a hand powered actuator for generating a force for causing said pipe holder to hold a pipe therein and said tool holder to move to positions at which a pipe flaring tool held by said tool holder engages an end of said pipe, a first biasing device for biasing said pipe holder to an open position and a second biasing device for biasing said tool holder in a direction away from said pipe holder, characterised by a user operable control device (42, 43) operable to permit movement of said tool holder under an influence of said second biasing device to a position at which said pipe flaring tool is disengaged from said pipe to permit tool changing while opening of said pipe holder by biasing of said pipe holder to said open position by said first biasing device is prevented.
A method for operating a radar device implementing built-in self-test (BIST), the radar device (100, 200, 300, 400, 700) having a transmitter (105, 110, 115) and a receiver (120, 125, 130), the method comprising: generating a chirp signal based on a local oscillator, LO, signal, wherein the LO signal is a frequency-modulated continuous-wave, FMCW, signal; secondary modulating the chirp signal by providing a periodically switched control signal to a transmitter component, which control signal controls the transmitter component to secondary modulate the chirp signal to produce a twice-modulated output signal; transmitting the output signal on a transmitting antenna of the radar device (100, 200, 300, 400, 700); receiving an echo signal on a receiving antenna of the radar device (100, 200, 300, 400, 700); downmixing an amplified version of the echo signal with the LO signal to produce a low frequency signal; and outputting an error detection signal based on expected spectral components of the low frequency signal that correspond to the secondary modulating. generating a chirp signal based on a local oscillator, LO, signal, wherein the LO signal is a frequency-modulated continuous-wave, FMCW, signal; secondary modulating the chirp signal by providing a periodically switched control signal to a transmitter component, which control signal controls the transmitter component to secondary modulate the chirp signal to produce a twice-modulated output signal; transmitting the output signal on a transmitting antenna of the radar device (100, 200, 300, 400, 700); receiving an echo signal on a receiving antenna of the radar device (100, 200, 300, 400, 700); downmixing an amplified version of the echo signal with the LO signal to produce a low frequency signal; and outputting an error detection signal based on expected spectral components of the low frequency signal that correspond to the secondary modulating.
A method of producing an E3 ubiquitin ligase RNF8 FHA domain-modified protein that exhibits a new binding affinity for a predetermined antigen as a result of a modification of the FHA domain, comprising: the step of preparing randomized-loop polypeptides obtained by randomizing more than two loops among (a) to (d): (a) a loop consisting of the 41st-43rd amino acid residues of the RNF8 protein shown by SEQ ID NO:1, (b) a loop consisting of the 53rd-60th amino acid residues of the RNF8 protein shown by SEQ ID NO:1, (c) a loop consisting of the 80th-82nd amino acid residues of the RNF8 protein shown by SEQ ID NO:1, and (d) a loop consisting of the 109th-114th amino acid residues of the RNF8 protein shown by SEQ ID NO:1; and the step of selecting a protein that binds to the antigen from among the randomized-loop polypeptides. the step of preparing randomized-loop polypeptides obtained by randomizing more than two loops among (a) to (d): (a) a loop consisting of the 41st-43rd amino acid residues of the RNF8 protein shown by SEQ ID NO:1, (b) a loop consisting of the 53rd-60th amino acid residues of the RNF8 protein shown by SEQ ID NO:1, (c) a loop consisting of the 80th-82nd amino acid residues of the RNF8 protein shown by SEQ ID NO:1, and (d) a loop consisting of the 109th-114th amino acid residues of the RNF8 protein shown by SEQ ID NO:1; and (a) a loop consisting of the 41st-43rd amino acid residues of the RNF8 protein shown by SEQ ID NO:1, (b) a loop consisting of the 53rd-60th amino acid residues of the RNF8 protein shown by SEQ ID NO:1, (c) a loop consisting of the 80th-82nd amino acid residues of the RNF8 protein shown by SEQ ID NO:1, and (d) a loop consisting of the 109th-114th amino acid residues of the RNF8 protein shown by SEQ ID NO:1; and the step of selecting a protein that binds to the antigen from among the randomized-loop polypeptides.
A method for controlling the operation of a washing machine comprising a wash tub, a washing and/or rinsing water tank, a hydraulic water distribution circuit, wherein said hydraulic water distribution circuit connects said wash tub of said washing machine to said water tank, said method comprising a step of filling said water tank with washing and/or rinsing water, characterized in that said step of filling with water comprises: - a first step of supplying said water tank with washing and/or rinsing water by turning on a water recovery pump; - a step of stopping the filling of said water tank with washing and/or rinsing water for a predetermined period of time; and - a second step of supplying said water tank with washing and/or rinsing water by turning on said water recovery pump, until reaching a water level in said water tank that exceeds the maximum permissible water level in said water tank so as to discharge washing and/or rinsing water by spilling over into a sump of said wash tub. - a first step of supplying said water tank with washing and/or rinsing water by turning on a water recovery pump; - a step of stopping the filling of said water tank with washing and/or rinsing water for a predetermined period of time; and - a second step of supplying said water tank with washing and/or rinsing water by turning on said water recovery pump, until reaching a water level in said water tank that exceeds the maximum permissible water level in said water tank so as to discharge washing and/or rinsing water by spilling over into a sump of said wash tub.
A method for cleaning an apparatus for taking samples of a gaseous medium containing solid particles, said apparatus comprising a pipe having one end adapted for introduction into said gaseous medium, a tubular filter for filtering off the solid particles, said filter being positioned coaxially with the pipe and communicating with the interior of the pipe, a removable closure being positioned on the downstream side of the tubular filter and coaxially with the pipe and withdrawal means for withdrawing the filtered gaseous medium from the outer side of the tubular filter, the apparatus further comprising separate blow back means in communication with the outer side of the tubular filter, said separate blow back means comprising one of the walls embracing a chamber positioned on the outside of the filter and further comprising means for connecting a gas source to the apparatus and said method comprising the steps of: - introducing a first cleaning gas to the outer side of a tubular filter via the separate blow back means, - passing the cleaning gas from the outer side of the tubular filter to the inner side of the tubular filter, - introducing a stream of a second cleaning gas coaxially with the axis of the pipe so as to carry particulate matter to the end of the pipe adapted for introduction into the gaseous medium. - introducing a first cleaning gas to the outer side of a tubular filter via the separate blow back means, - passing the cleaning gas from the outer side of the tubular filter to the inner side of the tubular filter, - introducing a stream of a second cleaning gas coaxially with the axis of the pipe so as to carry particulate matter to the end of the pipe adapted for introduction into the gaseous medium.