mhurhangee/ep-ind-claims huggingface dataset:
An annular die on an extrusion head for producing tubular or sheet-like preforms with an arcuate die gap and with a melt channel delimited by a mandrel and a die body, the cross-sectional profile of the melt channel being variable by way of adjusting elements, wherein the circumference of the melt channel is at least partially delimited directly by at least one radially adjustable slide, the slide being formed by a number of segments (5a, 5b, 5c) that can be adjusted together from at least one first position into at least one second position, wherein the slide comprises a main slide segment and two secondary slide segments (5b, 5c), wherein the main slide segment and two secondary slide segments (5b, 5c) form a circular arc segment delimiting the melt channel, characterized in that the segments (5a, 5b, 5c) of the slide are kinematically positively coupled, in that a guidance of the secondary slide segments (5b, 5c) on the main slide segment is provided at an angle to the adjusting direction of the main slide segment and in that the segments (5a, 5b, 5c) in each position form a respectively closed arc portion of the delimitation of the melt channel, the radius of the arc portion being different according to the position of the segments (5a, 5b, 5c).
An electroabsorption modulator comprising: an SOI waveguide; an active region, the active region comprising a SiGe multiple quantum well region; and an evanescent coupling structure for coupling the SOI waveguide to the active region; the coupling structure comprising: a SiGe transit waveguide coupling region; a SiGe buffer waveguide coupling region doped with P- type dopants; and a taper region; wherein, the transit waveguide coupling region couples light between the SOI waveguide and the buffer waveguide coupling region; and the buffer waveguide coupling region couples light between the transit waveguide region and the active region via the taper region characterised in that: the transit waveguide tapered coupling region comprises a first tapered portion and a second portion; the buffer waveguide comprises a tapered coupling region located on top of the second portion of the transit waveguide; and the refractive index of the transit waveguide coupling region is smaller than that of the buffer waveguide coupling region. an SOI waveguide; an active region, the active region comprising a SiGe multiple quantum well region; and an evanescent coupling structure for coupling the SOI waveguide to the active region; the coupling structure comprising: a SiGe transit waveguide coupling region; a SiGe buffer waveguide coupling region doped with P- type dopants; and a taper region; a SiGe transit waveguide coupling region; a SiGe buffer waveguide coupling region doped with P- type dopants; and a taper region; wherein, the transit waveguide coupling region couples light between the SOI waveguide and the buffer waveguide coupling region; and the buffer waveguide coupling region couples light between the transit waveguide region and the active region via the taper region characterised in that: the transit waveguide tapered coupling region comprises a first tapered portion and a second portion; the buffer waveguide comprises a tapered coupling region located on top of the second portion of the transit waveguide; and the refractive index of the transit waveguide coupling region is smaller than that of the buffer waveguide coupling region. the transit waveguide tapered coupling region comprises a first tapered portion and a second portion; the buffer waveguide comprises a tapered coupling region located on top of the second portion of the transit waveguide; and the refractive index of the transit waveguide coupling region is smaller than that of the buffer waveguide coupling region.
A method implemented by a wireless transmit/receive unit, WTRU, the method comprising: transmitting a combination of uplink control information and uplink data, via an uplink data channel, wherein the uplink control information comprises physical layer control information; and transmitting the uplink control information, via an uplink control channel, on condition that the uplink data channel is not allocated to the WTRU for transmitting uplink data during a time transmission interval, TTI. transmitting a combination of uplink control information and uplink data, via an uplink data channel, wherein the uplink control information comprises physical layer control information; and transmitting the uplink control information, via an uplink control channel, on condition that the uplink data channel is not allocated to the WTRU for transmitting uplink data during a time transmission interval, TTI.
A lyophilized formulation of a long-acting human growth hormone (hGH) conjugate, the formulation comprising a lyophilized mixture of an aqueous solution comprising a long-acting human growth hormone conjugate in which human growth hormone is linked to an immunoglobulin Fc region and an albumin-free solution comprising a citrate or acetate buffer, a non-ionic surfactant, a sugar alcohol, and histidine; wherein the human growth hormone has an amino acid sequence of wild-type hGH or is a protein having a hGH activity, which possesses an amino acid sequence having a sequence homology of 70% or higher to an amino acid sequence of a wild-type hGH, wherein the sugar alcohol is mannitol in a concentration ranging from 2.5% (w/v) to 5% (w/v) of the total volume of the aqueous solution, and wherein the concentration of the histidine ranges from 1 to 10 mM.
A hydraulic control system in a working machine, comprising: an accumulator that pressure-accumulates hydraulic energy contained in oil discharged from a hydraulic actuator; a variable-capacity hydraulic pump that serves as a hydraulic supply source for hydraulic actuators (8, 9, Al-An) including at least the hydraulic actuator; and a merging oil passage that allows pressure-accumulated oil in the accumulator to merge into oil discharged from the hydraulic pump, characterized in that: the hydraulic control system further includes: an accumulator flow rate control valve that controls an accumulator flow rate (Qa) to be merged from the accumulator into the oil discharged from the hydraulic pump; and a controller that controls the accumulator flow rate control valve and a discharge flow rate of the hydraulic pump, wherein the controller: determines a pump flow rate (Qd) according to a pump constant horsepower curve (P-Q curve) that is set according to a pump output signal (Pw) that adjusts an output of the main pump, and a discharge pressure (Pp) of the main pump, and determines a minimum value among the pump flow rate (Qd), a total operation demand flow rate (Qsum (Qsum = Qr + Qr ••• + Qr)) of an operation demand flow rate (Qr) to be demanded by an operation amount of hydraulic actuator operating members, and a maximum flow rate (Qmax) of the hydraulic pump, so that the determined minimum value is an actuator supply flow rate (Qc) to be supplied to the hydraulic actuators (8, 9, Al-An), and controls a discharge flow rate (Qp) of the hydraulic pump and the accumulator flow rate (Qa) so as to supply the actuator supply flow rate (Qc) corresponding to a total flow rate of the discharge flow rate (Qp) of the hydraulic pump _and the accumulator flow rate (Qa). an accumulator flow rate control valve that controls an accumulator flow rate (Qa) to be merged from the accumulator into the oil discharged from the hydraulic pump; and a controller that controls the accumulator flow rate control valve and a discharge flow rate of the hydraulic pump, wherein the controller: determines a pump flow rate (Qd) according to a pump constant horsepower curve (P-Q curve) that is set according to a pump output signal (Pw) that adjusts an output of the main pump, and a discharge pressure (Pp) of the main pump, and determines a minimum value among the pump flow rate (Qd), a total operation demand flow rate (Qsum (Qsum = Qr + Qr ••• + Qr)) of an operation demand flow rate (Qr) to be demanded by an operation amount of hydraulic actuator operating members, and a maximum flow rate (Qmax) of the hydraulic pump, so that the determined minimum value is an actuator supply flow rate (Qc) to be supplied to the hydraulic actuators (8, 9, Al-An), and controls a discharge flow rate (Qp) of the hydraulic pump and the accumulator flow rate (Qa) so as to supply the actuator supply flow rate (Qc) corresponding to a total flow rate of the discharge flow rate (Qp) of the hydraulic pump _and the accumulator flow rate (Qa).
A method for increasing the wear resistance of parts of a centrifugal pump characterized by comprising the steps: a) making of the part with wear portion having dimension different than required, b) applying at least one coating of an aluminum-bronze alloy to the denoted portion of the part by means of welding deposition, c) machining it and subsequent applying a hard alloy coating by electroerosion deposition, wherein said machining is prosecuted to the stage that allows obtaining the final required dimension after said hard alloy deposition. a) making of the part with wear portion having dimension different than required, b) applying at least one coating of an aluminum-bronze alloy to the denoted portion of the part by means of welding deposition, c) machining it and subsequent applying a hard alloy coating by electroerosion deposition,
Fexinidazole for use in treating a Leishmania infantum infection in a canine animal, wherein the canine suffers no relapse for at least thirty days post fexinidazole treatment.
A system comprising: multiple relay base stations; a base station configured to backhaul user-plane and control-plane communications of a wireless communications network via one or more of the multiple relay base stations; and an Integrated Backhaul Access and Mobility Function, IB-AMF, server connected to the multiple relay base stations and configured to: receive monitoring data from the base station, a first relay base station, or both for a wireless backhaul link between the base station and the first relay base station; based at least in part on the received monitoring data, determine to handover the wireless backhaul link from the first relay base station to a second relay base station; allocate resources for the wireless backhaul link between the base station and the second relay base station; and transmit handover trigger messages to the base station, the first relay base station, and the second relay base station, the transmission being effective to cause the handover of the wireless backhaul link from the first relay base station to the second relay base station. multiple relay base stations; a base station configured to backhaul user-plane and control-plane communications of a wireless communications network via one or more of the multiple relay base stations; and an Integrated Backhaul Access and Mobility Function, IB-AMF, server connected to the multiple relay base stations and configured to: receive monitoring data from the base station, a first relay base station, or both for a wireless backhaul link between the base station and the first relay base station; based at least in part on the received monitoring data, determine to handover the wireless backhaul link from the first relay base station to a second relay base station; allocate resources for the wireless backhaul link between the base station and the second relay base station; and transmit handover trigger messages to the base station, the first relay base station, and the second relay base station, the transmission being effective to cause the handover of the wireless backhaul link from the first relay base station to the second relay base station. receive monitoring data from the base station, a first relay base station, or both for a wireless backhaul link between the base station and the first relay base station; based at least in part on the received monitoring data, determine to handover the wireless backhaul link from the first relay base station to a second relay base station; allocate resources for the wireless backhaul link between the base station and the second relay base station; and transmit handover trigger messages to the base station, the first relay base station, and the second relay base station, the transmission being effective to cause the handover of the wireless backhaul link from the first relay base station to the second relay base station.
A method comprising: detecting a change in a voltage standing wave ratio, VSWR, between a radio frequency, RF, transmitter (112; 202) and an RF antenna (106; 204) relative to a predetermined VSWR baseline, wherein the change in VSWR is associated with a conductive body (101; 201) moving into proximity of the RF antenna; and adjusting transmission power of a carrier wave transmitted from the RF transmitter (112; 202), if the change fails to satisfy an acceptable VSWR condition based on a plurality of predefined acceptable VSWR conditions at various signal transmission frequencies, by reducing the transmission power of the carrier wave transmitted from the RF transmitter (112; 202) while each of the predefined acceptable VSWR conditions are not satisfied. detecting a change in a voltage standing wave ratio, VSWR, between a radio frequency, RF, transmitter (112; 202) and an RF antenna (106; 204) relative to a predetermined VSWR baseline, wherein the change in VSWR is associated with a conductive body (101; 201) moving into proximity of the RF antenna; and adjusting transmission power of a carrier wave transmitted from the RF transmitter (112; 202), if the change fails to satisfy an acceptable VSWR condition based on a plurality of predefined acceptable VSWR conditions at various signal transmission frequencies, by reducing the transmission power of the carrier wave transmitted from the RF transmitter (112; 202) while each of the predefined acceptable VSWR conditions are not satisfied.
A transposon system comprising (a) a transposon unit containing inverted terminal repeats (ITRs) or direct terminal repeats (DTRs) that flank a sequence of interest to be inserted into the genome of a target cell; and (b) an RNA encoding a transposase capable of recognizing said ITRs or DTRs and transposing said sequence of interest into said genome; wherein said RNA encoding said transposase is characterized in that it contains a combination of unmodified and modified nucleotides, wherein 5 to 50% of the uridine nucleotides and 5 to 50% of the cytidine nucleotides are respectively modified uridine nucleotides and modified cytidine nucleotides. (a) a transposon unit containing inverted terminal repeats (ITRs) or direct terminal repeats (DTRs) that flank a sequence of interest to be inserted into the genome of a target cell; and (b) an RNA encoding a transposase capable of recognizing said ITRs or DTRs and transposing said sequence of interest into said genome; wherein said RNA encoding said transposase is characterized in that it contains a combination of unmodified and modified nucleotides, wherein 5 to 50% of the uridine nucleotides and 5 to 50% of the cytidine nucleotides are respectively modified uridine nucleotides and modified cytidine nucleotides.
A transmission apparatus comprising: control circuitry, which is configured to randomly select a single preamble number from one or more preamble numbers included in a group corresponding to a number of antenna ports to be applied to a data part of a random access signal, wherein a plurality of preamble numbers are grouped into groups according to different numbers of antenna ports usable for the data part of the random access signal, the control circuitry, which is configured to generate a preamble part of the random access signal, based on the selected single preamble number, the control circuitry, which is configured to generate the data part of the random access signal based on the number of antenna ports associated with the selected preamble number, and transmission circuitry, which is configured to transmit the random access signal including the preamble part and the data part. control circuitry, which is configured to randomly select a single preamble number from one or more preamble numbers included in a group corresponding to a number of antenna ports to be applied to a data part of a random access signal, wherein a plurality of preamble numbers are grouped into groups according to different numbers of antenna ports usable for the data part of the random access signal, the control circuitry, which is configured to generate a preamble part of the random access signal, based on the selected single preamble number, the control circuitry, which is configured to generate the data part of the random access signal based on the number of antenna ports associated with the selected preamble number, and transmission circuitry, which is configured to transmit the random access signal including the preamble part and the data part.
A method comprising: requesting, by an unmanned aerial vehicle, UAV, (102a, 102b), navigation assistance data for a flight from a server, wherein the requesting includes sending flight-specific information to the server; receiving, by the UAV (102a, 102b), the navigation assistance data from the server, wherein the navigation assistance data includes flight-specific ranking data for each zone of a plurality of geographic zones, the flight-specific ranking data including a flight-specific ranking value for each of the plurality of geographic zones, and wherein the flight-specific ranking data and the flight specific ranking value for each zone are determined based on the flight-specific information; and determining, by the UAV (102a, 102b), a flight route for the flight through the plurality of geographic zones based on the flight-specific ranking data for each zone of the plurality of geographic zones wherein determining the flight route for the flight through the plurality of geographic zones includes selecting the flight route from a plurality of possible flight routes based on a sum of the flight-specific ranking data for each geographic zone of the plurality of geographic zones. requesting, by an unmanned aerial vehicle, UAV, (102a, 102b), navigation assistance data for a flight from a server, wherein the requesting includes sending flight-specific information to the server; receiving, by the UAV (102a, 102b), the navigation assistance data from the server, wherein the navigation assistance data includes flight-specific ranking data for each zone of a plurality of geographic zones, the flight-specific ranking data including a flight-specific ranking value for each of the plurality of geographic zones, and wherein the flight-specific ranking data and the flight specific ranking value for each zone are determined based on the flight-specific information; and determining, by the UAV (102a, 102b), a flight route for the flight through the plurality of geographic zones based on the flight-specific ranking data for each zone of the plurality of geographic zones wherein determining the flight route for the flight through the plurality of geographic zones includes selecting the flight route from a plurality of possible flight routes based on a sum of the flight-specific ranking data for each geographic zone of the plurality of geographic zones.
Plug for mechanical and electrical connection to a corresponding mating plug, having a housing, a plug insert and a protective conductor bridge, wherein the housing has at least one connecting region for connection to the plug insert, and wherein the plug insert is retained on the at least one connecting region, wherein the connecting region and the housing are formed in one piece, wherein the protective conductor bridge can be inserted into the housing, and wherein the protective conductor bridge has at least one bracket with at least one angled portion, wherein the bracket is designed in the form of a shallow cuboid and is located in a single plane, wherein the plane of the angled portions is arranged perpendicularly to the plane of the bracket, wherein the angled portions each have a through-hole, wherein the at least one connecting region, for establishing a screw connection to the plug insert, has a through-hole which has an internal thread, wherein the through-hole of the connecting region and the through-hole of the angled portion are oriented with circular symmetry and in alignment with one another, characterized in that the at least one bracket of the protective conductor bridge is arranged in a slot in the housing and has a length equal to the length of the internal dimensioning of the housing.
A composition comprising: a) at least one organic solvent; b) at least one conductive polymer; c) at least one fluorinated compound; d) at least one polymeric anion, wherein the at least one polymeric anion is a copolymer comprising ionic and non-ionic repeating units; characterized in that the fluorinated compound c) is a non-ionic compound. a) at least one organic solvent; b) at least one conductive polymer; c) at least one fluorinated compound; d) at least one polymeric anion, wherein the at least one polymeric anion is a copolymer comprising ionic and non-ionic repeating units;
An integrated platform and folding carton that comprises: a unitary folding carton that has a bottom surface, sidewalls (3, 4, 5, 6) and flaps(7, 8, 9, 10), wherein each sidewall is connected to the bottom surface along a first fold line (3a, 4a, 5a, 6a) and connected to a flap along a second fold line (7a, 8a, 9a, 10a); and a platform that has a top surface, sidewalls (23, 24, 25, 26) and flaps (27, 28, 29, 30), wherein each sidewall is connected to the top surface and connected to a flap along a fold line (23a, 24a, 25a, 26a, 23c, 24c, 25c, 26c); the flaps (27, 28, 29, 30) of the platform are positioned between the sidewalls (3, 4, 5, 6) and flaps (7, 8, 9, 10) of the folding carton, and the flaps (7, 8, 9, 10) of the folding carton are positioned between the sidewalls (23, 24, 25, 26) and flaps (27, 28, 29, 30) of the platform; characterized in that the flaps (27, 28, 29, 30) of the platform are fastened to the sidewalls (23, 24, 25, 26) of the platform to hold the flaps of the platform in an upright position. a unitary folding carton that has a bottom surface, sidewalls (3, 4, 5, 6) and flaps(7, 8, 9, 10), wherein each sidewall is connected to the bottom surface along a first fold line (3a, 4a, 5a, 6a) and connected to a flap along a second fold line (7a, 8a, 9a, 10a); and a platform that has a top surface, sidewalls (23, 24, 25, 26) and flaps (27, 28, 29, 30), wherein each sidewall is connected to the top surface and connected to a flap along a fold line (23a, 24a, 25a, 26a, 23c, 24c, 25c, 26c); the flaps (27, 28, 29, 30) of the platform are positioned between the sidewalls (3, 4, 5, 6) and flaps (7, 8, 9, 10) of the folding carton, and the flaps (7, 8, 9, 10) of the folding carton are positioned between the sidewalls (23, 24, 25, 26) and flaps (27, 28, 29, 30) of the platform; characterized in that the flaps (27, 28, 29, 30) of the platform are fastened to the sidewalls (23, 24, 25, 26) of the platform to hold the flaps of the platform in an upright position.