mhurhangee/ep-ind-claims huggingface dataset:
A method of a user device processing at least one signal received from at least one entity over a wireless transmission medium, the method comprising: (a) determining a transmitter fingerprint from the at least one signal, wherein the fingerprint represents a unique identification of the at least one entity; (b) determining, based at least in part on the transmitter fingerprint, whether a current network location of the user device is known by the user device, wherein determining includes matching the transmitter fingerprint against any transmitter fingerprint known by the user device; and (c) updating the known transmitter fingerprint if a similarity between the known transmitter fingerprint and the transmitter fingerprint of the at least one entity exceeds a first threshold and the similarity is below a second threshold, wherein updating comprises combining values from properties of the known transmitter fingerprint with values from properties of the transmitter fingerprint of the at least one entity to form a new known transmitter fingerprint. (a) determining a transmitter fingerprint from the at least one signal, wherein the fingerprint represents a unique identification of the at least one entity; (b) determining, based at least in part on the transmitter fingerprint, whether a current network location of the user device is known by the user device, wherein determining includes matching the transmitter fingerprint against any transmitter fingerprint known by the user device; and (c) updating the known transmitter fingerprint if a similarity between the known transmitter fingerprint and the transmitter fingerprint of the at least one entity exceeds a first threshold and the similarity is below a second threshold, wherein updating comprises combining values from properties of the known transmitter fingerprint with values from properties of the transmitter fingerprint of the at least one entity to form a new known transmitter fingerprint.
An antibody-like binding protein that specifically binds the tumor-associated MUC1 syaloglycotope CA6, characterized in that the antibody-like binding protein comprises two polypeptides having structures represented by the formulas and below: V L1 -L 1 -V L2 -C L V H1 -L 2 -V H2 -C H1 wherein: V L1 is an immunoglobulin light chain variable domain derived from the DS6 antibody; V L2 is an immunoglobulin light chain variable domain derived from the DS6 antibody; V H1 is an immunoglobulin heavy chain variable domain derived from the DS6 antibody; V H2 is an immunoglobulin heavy chain variable domain derived from the DS6 antibody; C L is an immunoglobulin light chain constant domain, such as a human IGKC immunoglobulin light chain constant domain; C H1 is an immunoglobulin C H1 heavy chain constant domain, such as a human immunoglobulin C H1 heavy chain constant domain; L 1 and L 2 are amino acid linkers; and wherein the polypeptides of formula I and the polypeptides of formula II form a bivalent monospecific tandem immunoglobulin antibody-like binding protein wherein the polypeptide of formula comprises a sequence at least 80% identical to SEQ ID NO: 1 and the polypeptide of formula comprises a sequence at least 80% identical to SEQ ID NO: 7. V L1 is an immunoglobulin light chain variable domain derived from the DS6 antibody; V L2 is an immunoglobulin light chain variable domain derived from the DS6 antibody; V H1 is an immunoglobulin heavy chain variable domain derived from the DS6 antibody; V H2 is an immunoglobulin heavy chain variable domain derived from the DS6 antibody; C L is an immunoglobulin light chain constant domain, such as a human IGKC immunoglobulin light chain constant domain; C H1 is an immunoglobulin C H1 heavy chain constant domain, such as a human immunoglobulin C H1 heavy chain constant domain; L 1 and L 2 are amino acid linkers; and
Seat device with spring device, comprising: a seat bar axially movable relative to a base body (320, 324), a lower guide spring having a first inner portion fixedly connected to the seat bar and a second outer portion fixedly connected to the base body (320, 324), the first inner portion being connected to the second outer portion by a spirally wound portion, and an upper guide spring having a first inner portion fixedly connected to the seat bar and a second outer portion fixedly connected to the base body (320, 324), the first inner portion being connected to the second outer portion through a spirally wound portion, and a plurality of stabilizing rods circumferentially spaced around the seat bar and connecting the spirally wound portion of the lower guide spring to the spirally wound portion of the upper guide spring. a seat bar axially movable relative to a base body (320, 324), a lower guide spring having a first inner portion fixedly connected to the seat bar and a second outer portion fixedly connected to the base body (320, 324), the first inner portion being connected to the second outer portion by a spirally wound portion, and an upper guide spring having a first inner portion fixedly connected to the seat bar and a second outer portion fixedly connected to the base body (320, 324), the first inner portion being connected to the second outer portion through a spirally wound portion, and a plurality of stabilizing rods circumferentially spaced around the seat bar and connecting the spirally wound portion of the lower guide spring to the spirally wound portion of the upper guide spring.
A method for controlling an interference torque of a vehicle, applied to a vehicle comprising an electric motor and an engine, and the method for controlling an interference torque of a vehicle comprising: arbitrating between a pedal torque of a driver and an interference torque required by an electronic stability program, ESP, and outputting an arbitrated torque; performing an initial allocation on the motor and/or the engine in response to the pedal torque when the vehicle is in a hybrid drive mode, to meet a torque request of the engine while ensuring that the engine is operated at an optimum operation point; and determining, based on the initial allocation, whether the motor is capable of fully responding to the arbitrated torque, controlling the motor to respond to the arbitrated torque in priority when it is determined that the motor is capable of fully responding to the arbitrated torque, and controlling the engine and the motor to cooperatively respond to the arbitrated torque when it is determined that the motor is incapable of fully responding to the arbitrated torque. arbitrating between a pedal torque of a driver and an interference torque required by an electronic stability program, ESP, and outputting an arbitrated torque; performing an initial allocation on the motor and/or the engine in response to the pedal torque when the vehicle is in a hybrid drive mode, to meet a torque request of the engine while ensuring that the engine is operated at an optimum operation point; and determining, based on the initial allocation, whether the motor is capable of fully responding to the arbitrated torque, controlling the motor to respond to the arbitrated torque in priority when it is determined that the motor is capable of fully responding to the arbitrated torque, and controlling the engine and the motor to cooperatively respond to the arbitrated torque when it is determined that the motor is incapable of fully responding to the arbitrated torque.
A paper-feeding cutting machine, comprising: a frame, the frame being provided with a paper-loading platform, a cutting table, a receiving hopper and a crossbeam, wherein a linear guide rail is disposed on both sides of the frame, and the cross beam is connected to the linear guide rail; a machine head, disposed on the crossbeam, the machine head comprising: a fixing plate; a cutter holder; and a cutting component; characterized in that the machine head further comprises: a machine head lifting mechanism; and a machine head rotating mechanism; wherein a cutter holder guide rode is disposed on the fixing plate; the cutter holder is connected to the cutter holder guide rode; the machine head lifting mechanism is connected to the cutter holder, and is used to drive the cutter holder to move up and down; the cutting component comprises at least two cutter head assemblies (63, 64, 65) mounted on the cutter holder; and the machine head rotating mechanism is connected to the cutter head assemblies for driving the cutter head assemblies to rotate, wherein the machine is prepared such that in use, when the cutting machine performs a cutting operation, it is possible to set each of those two cutter head assemblies at different heights, so that only one cutter head assembly operates at a time. a frame, the frame being provided with a paper-loading platform, a cutting table, a receiving hopper and a crossbeam, wherein a linear guide rail is disposed on both sides of the frame, and the cross beam is connected to the linear guide rail; a machine head, disposed on the crossbeam, the machine head comprising: a fixing plate; a cutter holder; and a cutting component; a fixing plate; a cutter holder; and a cutting component; characterized in that the machine head further comprises: a machine head lifting mechanism; and a machine head rotating mechanism; wherein a cutter holder guide rode is disposed on the fixing plate; the cutter holder is connected to the cutter holder guide rode; a machine head lifting mechanism; and a machine head rotating mechanism; wherein a cutter holder guide rode is disposed on the fixing plate; the cutter holder is connected to the cutter holder guide rode; the machine head lifting mechanism is connected to the cutter holder, and is used to drive the cutter holder to move up and down; the cutting component comprises at least two cutter head assemblies (63, 64, 65) mounted on the cutter holder; and the machine head rotating mechanism is connected to the cutter head assemblies for driving the cutter head assemblies to rotate, wherein the machine is prepared such that in use, when the cutting machine performs a cutting operation, it is possible to set each of those two cutter head assemblies at different heights, so that only one cutter head assembly operates at a time.
A position sensor, comprising: a flexible substrate, which is formed into a three-dimensional, 3D, shape, wherein the 3D shape comprises a cylindrical shape; a first field-sensing coil formed in a first layer of the flexible substrate, wherein the first field-sensing coil has a rectangular closed-loop shape; and a second field-sensing coil formed in a second layer of the flexible substrate, wherein the second field-sensing coil is formed from a stripe passing end-to-end along the flexible substrate, and wherein, when the flexible substrate is formed into the cylindrical shape, edges of the stripe are coupled to one another so that the second field sensing coil forms a symmetrical loop along a circumference of the cylinder, wherein, in the 3D shape, the first field-sensing coil has a first axis, the second field-sensing coil has a second axis, and the first axis and second axis are orthogonal to one another. a flexible substrate, which is formed into a three-dimensional, 3D, shape, wherein the 3D shape comprises a cylindrical shape; a first field-sensing coil formed in a first layer of the flexible substrate, wherein the first field-sensing coil has a rectangular closed-loop shape; and a second field-sensing coil formed in a second layer of the flexible substrate, wherein the second field-sensing coil is formed from a stripe passing end-to-end along the flexible substrate, and wherein, when the flexible substrate is formed into the cylindrical shape, edges of the stripe are coupled to one another so that the second field sensing coil forms a symmetrical loop along a circumference of the cylinder, wherein, in the 3D shape, the first field-sensing coil has a first axis, the second field-sensing coil has a second axis, and the first axis and second axis are orthogonal to one another.
Turn-lock fastener, in particular quarter-turn-lock fastener, for releasably connecting at least two, in particular plate-shaped, components (1, 2, 3) which each comprise at least one through-opening, wherein at least one of the through-openings is not rotationally symmetrical, having a closure element comprising a first abutment surface, a second abutment surface and a connecting pin, which can rotate about an axis of rotation and connects the two abutment surfaces (11, 12) to one another spaced apart from one another and is connected centrally to the first and second abutment surface (11, 12), wherein the abutment surfaces (11, 12) project radially away from the axis of rotation of the connecting pin, characterized in that in that the turn-lock fastener additionally comprises at least one guide element having a guide channel which extends along the axis of rotation of the connecting pin, wherein the connecting pin is rotatably mounted in the guide channel, wherein one of the abutment surfaces (11, 12) can be pivoted from an assembly position into a locking position by a relative rotational movement of the locking element with respect to the guide element, wherein said pivotable abutment surface (11, 12) lies inside an envelope described by the non-rotationally symmetrical through-opening in the assembly position and outside an envelope described by the non-rotationally symmetrical through-opening in the locking position, wherein a projection is configured on the closure element and/or the guide element which engages in an, in particular quarter-circular, recess provided on the guide element and/or on the closure element and/or wherein the guide channel is disposed centrally in the guide element. having a closure element comprising a first abutment surface, a second abutment surface and a connecting pin, which can rotate about an axis of rotation and connects the two abutment surfaces (11, 12) to one another spaced apart from one another and is connected centrally to the first and second abutment surface (11, 12), wherein the abutment surfaces (11, 12) project radially away from the axis of rotation of the connecting pin, characterized in that in that the turn-lock fastener additionally comprises at least one guide element having a guide channel which extends along the axis of rotation of the connecting pin, wherein the connecting pin is rotatably mounted in the guide channel, wherein one of the abutment surfaces (11, 12) can be pivoted from an assembly position into a locking position by a relative rotational movement of the locking element with respect to the guide element, wherein said pivotable abutment surface (11, 12) lies inside an envelope described by the non-rotationally symmetrical through-opening in the assembly position and outside an envelope described by the non-rotationally symmetrical through-opening in the locking position, wherein a projection is configured on the closure element and/or the guide element which engages in an, in particular quarter-circular, recess provided on the guide element and/or on the closure element and/or wherein the guide channel is disposed centrally in the guide element.
Leading edge phase control in two-wire technology for a low-energy consumer, such as an LED lamp, comprising an electronic power setting with an inductance provided by a coil having a core and with an interference suppression capacitor, the electronic power setting being designed as a thyristor control with two antiparallel thyristor circuits each having at least one thyristor (4, 4.1), characterized by the fact that the core of the coil of the inductor is made of a low-magnetostriction or magnetostriction-free material, the interference suppression capacitor having a capacitance of less than 35 nF and the inductance of the coil being high, such that the capacitance of the interference suppression capacitor is reduced to a minimum to satisfy the EMC requirements.
A method for producing drawn PTA-based polyester yarn in a continuous spin-draw- winding process comprising extruding molten polyester through spinning holes in a spinneret to form a bundle of molten spun filaments, solidifying the spun filaments by a gaseous cooling medium, fixing the spinning speed of the solidified filaments at a first godet, drawing the solidified filaments to form drawn filaments and winding the drawn filaments as yarn wherein the spinning speed at the first godet is in the range of 4600 to 5500 m/min, the draw ratio, defined as the maximum speed of the yarn in the spinning line over the spinning speed at the first godet, is in the range of 1.27 to 1.56, and the spun filaments are solidified by a gaseous cooling medium in two cooling steps, wherein in the first cooling step the gaseous cooling medium flows transversely through the bundle of filaments and leaves the bundle of filaments substantially completely on the opposite side of the inflow and wherein in the second cooling step the filament bundle is cooled further through self-suction of a gaseous cooling medium surrounding the filament bundle.
A flame retardant composition comprising a (poly)phosphate, wherein a content of the (poly)phosphate is 50% by weight or more with respect to 100% by weight of the flame retardant composition, and wherein F and N satisfy 8.0 × 10 -4 ≤ F/N ≤ 20.0 and F ≤ 21.0, assuming that F (ppm) is a content of elemental iron and N (ppm) is a content of elemental sodium in the flame retardant composition as measured in accordance with the following procedure, (Procedure) the flame retardant composition is used as a sample and mixed with a 1 M nitric acid aqueous solution, and the mixture is stirred at room temperature of 25°C for 24 hours and then passed through a membrane filter to prepare a measurement solution, and the contents of elemental iron and elemental sodium are measured for the obtained measurement solution by using ICP emission spectroscopic analysis. wherein a content of the (poly)phosphate is 50% by weight or more with respect to 100% by weight of the flame retardant composition, and wherein F and N satisfy 8.0 × 10 -4 ≤ F/N ≤ 20.0 and F ≤ 21.0, assuming that F (ppm) is a content of elemental iron and N (ppm) is a content of elemental sodium in the flame retardant composition as measured in accordance with the following procedure, (Procedure) the flame retardant composition is used as a sample and mixed with a 1 M nitric acid aqueous solution, and the mixture is stirred at room temperature of 25°C for 24 hours and then passed through a membrane filter to prepare a measurement solution, and the contents of elemental iron and elemental sodium are measured for the obtained measurement solution by using ICP emission spectroscopic analysis.
A blade for a wind turbine, wherein at least a third of the total length, measured from tip to hub, of said blade comprises a layer (1,2) along an outer periphery of the cross-section of said blade, characterised in that the layer (1,2) is at least partly constituted by a number of pre-fabricated pultruded strips (1, 2) formed from a fibrous composite material and arranged in a sequence along the outer periphery, wherein the fibrous composite material comprises a fibre volume fraction from 50% to 90%, and wherein the strips of the layer (1,2) are joined by means of resin.
An in vitro method of preparing a therapeutic cell population and a support cell population suitable for clinical use from a starting population of cells comprising haematopoietic stem cells, said method comprising separating a population of cells that substantially do not express CD38 but which express CD34 from the starting population of cells, and transducing the separated cell population with a vector to obtain the therapeutic cell population which has the CD34 + CD38 - phenotype, and wherein the separated CD38-expressing cells or portion thereof are retained to form a support cell population which has the CD34 + CD38 int1, CD34 + CD38 int2 and/or CD34 + CD38 + phenotype.
Vehicle provided with a chassis that is movable on ground via a plurality of wheels carried by axles connected to the chassis via respective axle system, each wheel being provided with pressure sensor means configured to acquire data related to the pressure of said wheel, said vehicle comprising a weighting system comprising image acquisition means for each of said wheels and an electronic control unit electronically connected to said image acquisition means and to said pressure sensor means, wherein said image acquisition means are carried by said chassis and configured to acquire an image of the respective wheel in a longitudinal direction of said vehicle, wherein said electronic control unit comprises elaboration means configured to memorize dimensional parameters of said vehicle and configured to elaborate said image acquired by said image acquisition means in function of said dimensional parameters, characterized in that said electronic control unit being configured to estimate the load acting on said wheel on the base of said pressure of said wheel and on the base of said elaboration of said image acquired by said image acquisition means, said electronic control unit being configured to estimate the weight of said vehicle on the base of the load acting on each wheel. said vehicle comprising a weighting system comprising image acquisition means for each of said wheels and an electronic control unit electronically connected to said image acquisition means and to said pressure sensor means, wherein said image acquisition means are carried by said chassis and configured to acquire an image of the respective wheel in a longitudinal direction of said vehicle, wherein said electronic control unit comprises elaboration means configured to memorize dimensional parameters of said vehicle and configured to elaborate said image acquired by said image acquisition means in function of said dimensional parameters, characterized in that said electronic control unit being configured to estimate the load acting on said wheel on the base of said pressure of said wheel and on the base of said elaboration of said image acquired by said image acquisition means, said electronic control unit being configured to estimate the weight of said vehicle on the base of the load acting on each wheel.
A method for manufacturing a pellet formulation containing a single or complex herbal extract, the method comprising: (a) preparing a concentrate for seeds and a concentrate for fluidized bed coating from a single or complex herbal extract, wherein the concentrate for fluidized bed coating having a lower sugar content than the concentrate for seeds; (b) molding a seed by mixing the concentrate for seed and an excipient; and (c) coating surfaces of the seeds by mixing the concentrate for fluidized bed coating and an excipient, and wherein the excipient is at least one kind selected from the group consisting of precipitated calcium carbonate (precipitated CaCO 3), magnesium oxide (MgO), calcium silicate (CaSiO 3), magnesium silicate (3MgSiO 3 -5H 2 O), silicon dioxide (SiO 2), titanium dioxide (TiO 2), bentonite, kaolin, talc, CMC-Ca, casein, dextrin, hydroxypropyl methylcellulose (HPMC), pullulan, microcrystalline cellulose, lactose, stearic acid-magnesium (stearate-Mg), stearic acid-calcium (stearate-Ca), PEG 6000, beta-cyclodextrin powder, zein powder, starch sodium octenyl succinate (SSOC), and sucrose fatty acid esters. (a) preparing a concentrate for seeds and a concentrate for fluidized bed coating from a single or complex herbal extract, wherein the concentrate for fluidized bed coating having a lower sugar content than the concentrate for seeds; (b) molding a seed by mixing the concentrate for seed and an excipient; and (c) coating surfaces of the seeds by mixing the concentrate for fluidized bed coating and an excipient,