mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a power allocation subsystem of a distributed antenna system, the comprising: receiving one or more key performance indicators representing a desired level of performance for achieving a coverage objective for a remote unit in the distributed antenna system; receiving one or more system factors representing measurements of the distributed antenna system that affect performance of the remote unit at the desired level based on a configuration of the distributed antenna system; determining a radio frequency power for the remote unit to achieve the one or more key performance indicators based, at least in part, on the one or more system factors; and configuring the remote unit to operate at the radio frequency power. receiving one or more key performance indicators representing a desired level of performance for achieving a coverage objective for a remote unit in the distributed antenna system; receiving one or more system factors representing measurements of the distributed antenna system that affect performance of the remote unit at the desired level based on a configuration of the distributed antenna system; determining a radio frequency power for the remote unit to achieve the one or more key performance indicators based, at least in part, on the one or more system factors; and configuring the remote unit to operate at the radio frequency power.
A topology switching method based on an isochronous channel applied to a first central slave device, wherein there are a plurality of first isochronous channels between the first central slave device and a master device, and there is a first communication channel between the first central slave device and a peripheral slave device; wherein the method comprises: sending, by the first central slave device, first isochronization information to the peripheral slave device through the first communication channel between the first central slave device and the peripheral slave device, wherein the first isochronization information comprises a channel parameter of a first isochronous channel, so that the peripheral slave device starts data transmission with the master device according to the channel parameter of the first isochronous channel; stopping, by the first central slave device, data transmission with the master device through the first isochronous channel, before the peripheral slave device starts the data transmission with the master device according to the channel parameter of the first isochronous channel. sending, by the first central slave device, first isochronization information to the peripheral slave device through the first communication channel between the first central slave device and the peripheral slave device, wherein the first isochronization information comprises a channel parameter of a first isochronous channel, so that the peripheral slave device starts data transmission with the master device according to the channel parameter of the first isochronous channel; stopping, by the first central slave device, data transmission with the master device through the first isochronous channel, before the peripheral slave device starts the data transmission with the master device according to the channel parameter of the first isochronous channel.
Organic light-emitting diode having a lossy optical resonator and an emitter layer in the optical resonator which can generate light by recombination of electrons with holes, the light-emitting diode comprising a photolithographically patternable material arranged within the resonator, the material being in particular photochemically crosslinkable or a photoresist which becomes soluble by exposure to light, wherein the photolithographically patternable material is present in the form of a layer with different layer thicknesses so that a plurality of colours can be produced, the emitter layer being adapted such that it is capable of emitting white light, characterised in that the layer with different layer thicknesses is made of a material with a structure based on triarylamine with oxetane as reactive group and is a hole-conducting layer in addition to the emitter layer
A support apparatus configured to support an object, the support apparatus comprising: a support body comprising an object holder to hold an object; an opening in the support body adjacent to an edge of the object holder; and a channel in fluid communication with the opening via each of a plurality of passageways in the support body; characterised by further comprising: a passageway liner mounted in at least one of the plurality of passageways, the passageway liner being thermally insulating substantially to thermally decouple the support body from fluid in the at least one of the plurality of passageways; and a roof liner above at least a portion of the opening, the roof liner being thermally insulating substantially to thermally decouple the support body from fluid in the at least one of the plurality of passageways. a support body comprising an object holder to hold an object; an opening in the support body adjacent to an edge of the object holder; and a channel in fluid communication with the opening via each of a plurality of passageways in the support body; characterised by further comprising: a passageway liner mounted in at least one of the plurality of passageways, the passageway liner being thermally insulating substantially to thermally decouple the support body from fluid in the at least one of the plurality of passageways; and a roof liner above at least a portion of the opening, the roof liner being thermally insulating substantially to thermally decouple the support body from fluid in the at least one of the plurality of passageways. a passageway liner mounted in at least one of the plurality of passageways, the passageway liner being thermally insulating substantially to thermally decouple the support body from fluid in the at least one of the plurality of passageways; and a roof liner above at least a portion of the opening, the roof liner being thermally insulating substantially to thermally decouple the support body from fluid in the at least one of the plurality of passageways.
A method for controlling an electric motor, the method comprising: establishing a first range of rotational speeds of a rotor of the electric motor from a first lower limit to a first higher limit; establishing a second range of rotational speeds of the rotor from a second lower limit to a second higher limit; establishing a hysteresis band such that during operation in the first range, adjusting the first higher limit by the hysteresis band to be greater than the second lower limit and/or during operation in the second range, adjusting the second lower limit by the hysteresis band to be less than the first higher limit; detecting or measuring a rotational speed of a rotor of the electric motor; determining whether the measured rotational speed falls within the first range or the second range, as adjusted by the hysteresis band, to identify a selected speed range; and varying a switching frequency of a pulse-width modulation signal in accordance with the selected speed range. establishing a first range of rotational speeds of a rotor of the electric motor from a first lower limit to a first higher limit; establishing a second range of rotational speeds of the rotor from a second lower limit to a second higher limit; establishing a hysteresis band such that during operation in the first range, adjusting the first higher limit by the hysteresis band to be greater than the second lower limit and/or during operation in the second range, adjusting the second lower limit by the hysteresis band to be less than the first higher limit; detecting or measuring a rotational speed of a rotor of the electric motor; determining whether the measured rotational speed falls within the first range or the second range, as adjusted by the hysteresis band, to identify a selected speed range; and varying a switching frequency of a pulse-width modulation signal in accordance with the selected speed range.
A soluble complement receptor type I polypeptide comprising at least one C3b/C4b binding site for use for the treatment of dense deposit disease and/or glomerulonephritis with isolated C3 deposits (GN-C3).
An alkylation process comprising contacting a hydrocarbon mixture comprising at least one olefin having from 2 to 6 carbon atoms and at least one isoparaffin having from 3 to 6 carbon atoms under alkylation conditions in the presence of an acidic ionic liquid catalyst, said acidic ionic liquid catalyst comprising a mixture of at least one acidic ionic liquid and at least one alkyl halide; where the acidic ionic liquid is a chloroaluminate ionic liquid, prepared by mixing aluminum trichloride (AlCl 3) and a hydrocarbyl substituted pyridinium halide having the general formula: where R = H, methyl, ethyl, propyl, butyl, pentyl or hexyl group and X - is a halide; wherein the isoparaffin and the olefin are alkylated; and wherein the at least one alkyl halide is used in an amount of from 0.05 mol% to 10 mol% of the aluminium trichloride.
A head restraint with a basic structure used to adjust the head restraint and receive a head of a person, wherein the basic structure comprises a holding structure and at least one framework structure, wherein the framework structure has flexible flanks (121, 122) and deflectable crosspieces lying between the flanks (121, 122) that are arranged on the flanks (121, 122) via elastic connecting means, whereby a force pulse acting on the crosspieces of the at least one framework structure via a flexible flank, which force pulse works from a direction (-x) to a front side of the at least one framework structure, causes a balancing autoreactive deformation of the at least one framework structure at another place in the opposite direction (+x), characterized in that the at least one framework structure is for forming side wings that are arranged on a holding element of the holding structure, wherein the side wings are conveyable from a starting position in the travel direction (+x direction) autoreactively to a comfort position and back.
Process for recovering metals, in particular heavy metals, from solid incineration residues in a waste incineration plant comprising the step of discharge of the incineration residues from the incineration part of the waste incineration plant, where the process comprises the wet-mechanical treatment of the incineration residues with a step of separation of the metals from the incineration residues, where the wet-mechanical treatment occurs at a time close to the step of discharge, where, before the step of separation, the incineration residues are mixed with a liquid, in particular water, to give a suspension, characterized in that a size-dependent sorting of the incineration residues present in the suspension is subsequently carried out by means of at least one classification apparatus (6, 7, 27), giving a suspension comprising incineration residues of suitable particle size, in particular of less than 2 mm, which suspension is subsequently fed to the step of separation, and in that the metals are separated off by means of density sorting in the step of separation. where, before the step of separation, the incineration residues are mixed with a liquid, in particular water, to give a suspension, characterized in that a size-dependent sorting of the incineration residues present in the suspension is subsequently carried out by means of at least one classification apparatus (6, 7, 27), giving a suspension comprising incineration residues of suitable particle size, in particular of less than 2 mm, which suspension is subsequently fed to the step of separation, and in that the metals are separated off by means of density sorting in the step of separation.
A continuous metal casting apparatus having elongated opposed rotating casting surfaces (22, 24) forming a casting cavity therebetween, and a side dam comprising an elongated upstream part and an elongated downstream part that are mutually laterally pivotable, and a smooth metal-contacting side surface extending continuously from an upstream end to a downstream end of the side dam and having regions (50A, 50B) thereof formed on said upstream part and said downstream part, whereby mutual pivoting of said upstream part and said downstream part of the side dam enables said regions (50A, 50B) of the smooth metal-contacting side surface to be moved out of mutual coplanar alignment, characterized in that the side dam further comprises at least one anchor point that is configured to prevent the side dam from being dragged in a casting direction by the rotating casting surfaces (22, 24) during use.
An interior permanent magnet rotor, comprising: a cylindrical rotor core having an axial hole; and a resin magnet that is formed to fill the axial hole by injection molding and that has a pair of axial end faces (5, 6), wherein the resin magnet includes a linear portion that has a linear shape in section perpendicular to an axial direction of the rotor core and that has a first end and a second end located closer to an outer periphery of the rotor core than the first end is, characterized in that a gate mark is located on the second end of the linear portion on at least one of the axial end faces (5; 6) of the resin magnet. a cylindrical rotor core having an axial hole; and a resin magnet that is formed to fill the axial hole by injection molding and that has a pair of axial end faces (5, 6), wherein the resin magnet includes a linear portion that has a linear shape in section perpendicular to an axial direction of the rotor core and that has a first end and a second end located closer to an outer periphery of the rotor core than the first end is, characterized in that a gate mark is located on the second end of the linear portion on at least one of the axial end faces (5; 6) of the resin magnet.
A method performed by a wireless device configured to communicate with a network (12, 14), the method comprising: communicating with the network at a radio link control layer; initiating a temporary block flow to transfer data through the network; communicating, via the radio link control layer, an indication that a higher layer protocol is operating in an acknowledged mode, wherein the higher layer protocol is above the radio link control layer; and receiving a resource allocation from the network, wherein, when the higher layer protocol is operating in the acknowledged mode, the resource allocation allocates sufficient resources to enable completion of the temporary block flow and transmission of at least one of acknowledgment information and retransmissions as required by the higher layer protocol operating in the acknowledged mode. communicating with the network at a radio link control layer; initiating a temporary block flow to transfer data through the network; communicating, via the radio link control layer, an indication that a higher layer protocol is operating in an acknowledged mode, wherein the higher layer protocol is above the radio link control layer; and receiving a resource allocation from the network, wherein, when the higher layer protocol is operating in the acknowledged mode, the resource allocation allocates sufficient resources to enable completion of the temporary block flow and transmission of at least one of acknowledgment information and retransmissions as required by the higher layer protocol operating in the acknowledged mode.
A method of controlling a transgene, comprising the steps of: obtaining a primary T-cell comprising a chimeric antigen receptor, and a heterologous nucleic acid comprising a polynucleotide encoding the transgene that is operably linked to a polynucleotide encoding a RNA degradation element, wherein the RDE is an AU rich element, wherein the heterologous nucleic acid is transcribed to make a transcript encoding the transgene operably linked to the RDE; exposing the primary T-cell to a ligand for the CAR wherein binding of the ligand by the CAR activates the primary T-cell and thereby changes a metabolic state of the primary T-cell; and expressing the transgene wherein the amount of polypeptide made from the transgene is increased after the change in metabolic state of the primary T-cell, wherein the CAR is capable of binding to a ligand, selected from the group consisting of tumor-associated antigens, CD19, CD20, and CD22.
A control apparatus for an electric vehicle, wherein the electric vehicle is configured to drive a wheel (FL, FR) by an electric motor and wherein the control apparatus comprises: - a vibration damping control torque calculation portion configured to selectively output a first vibration damping control torque calculated by a first calculation method, or a second vibration damping control torque calculated by a second calculation method; and - a motor torque instruction calculation portion configured to calculate a motor torque instruction for driving the electric motor, based on a requested drive torque and the selectively output first vibration damping control torque or second vibration damping control torque, characterized in that the control apparatus is configured such that - the first calculation method is based on a difference between an estimated value of a vehicle body speed calculated based on a pulsed signal of a wheel speed sensor on a trailer wheel (RL, RR) side, and a signal of a motor rotational speed sensor configured to detect a rotational speed (Nm) of the electric motor, and - the second calculation method is based on a difference between an estimated value of the vehicle body speed calculated based on the signal of the motor rotational speed sensor or calculated based on a vehicle acceleration, and the signal of the motor rotational speed sensor, and the vibration damping control torque calculation portion is configured to output the second vibration damping control torque when the rotational speed of the electric motor is lower than a first threshold value. - a vibration damping control torque calculation portion configured to selectively output a first vibration damping control torque calculated by a first calculation method, or a second vibration damping control torque calculated by a second calculation method; and - a motor torque instruction calculation portion configured to calculate a motor torque instruction for driving the electric motor, based on a requested drive torque and the selectively output first vibration damping control torque or second vibration damping control torque, - the first calculation method is based on a difference between an estimated value of a vehicle body speed calculated based on a pulsed signal of a wheel speed sensor on a trailer wheel (RL, RR) side, and a signal of a motor rotational speed sensor configured to detect a rotational speed (Nm) of the electric motor, and - the second calculation method is based on a difference between an estimated value of the vehicle body speed calculated based on the signal of the motor rotational speed sensor or calculated based on a vehicle acceleration, and the signal of the motor rotational speed sensor, and
A tangential thread rolling head, comprising two fork-shaped rolling head arms (12, 12', 14, 14'), in which one thread roll (28, 28', 128, 128') at a time is rotatably mounted on an axis (18, 18', 22, 22'), wherein the thread rolls (28, 28', 128, 128') each at a time mesh with a sprocket (38, 38', 138, 138') sitting on one of the axes (18, 18', 22, 22') of a gearing coupling the thread rolls (28, 28', 128, 128'), wherein before the installation of the axes (18, 18', 22, 22'), the thread rolls (28, 28', 128, 128') can be laterally inserted into the rolling head arms (12, 12'; 14, 14') into a mounting position in which one of the axes (18, 18', 22, 22') at a time can be inserted into a bearing bore (32, 32', 132, 132') of the thread rolls (28, 28', 128, 128'), wherein the thread rolls (28, 28', 128, 128') and the sprockets (38, 38', 138, 138') have co-operating claws (34, 34', 36, 36', 44, 44', 46, 46', 134, 134', 144, 144', 146, 146'), the claws of the thread rolls (28, 28', 128, 128') and of the sprockets (38, 38', 138, 138') being designed such that the thread rolls (28, 28', 128, 128') can be laterally inserted into the mounting position only in one single defined rotational position, characterised in that the claws of the thread rolls (28, 28', 128, 128') and of the sprockets (38, 38', 138, 138') are furthermore designed such that the claws (34, 34', 36, 36', 134, 134') of the thread rolls (28, 28', 128, 128') can co-operate only with the claws (44, 44', 46, 46' 144, 144' 146, 146') of one single associated sprocket (38, 38', 138, 138') at a time for reaching the mounting position.
A compact polyurethane having a density of ≥ 850 g/l, obtained or obtainable by reacting at least the components: i) polyisocyanate composition; ii) polyol composition, comprising at least one polyether polyol (ii.1) which is obtained or obtainable by reacting ii.1.1) a polyol starter with a functionality of 3 to 6 with ii.1.2) propylene oxide and/or butylene oxide, in the presence of a boron-based, fluorine-containing Lewis acid catalyst (ii.1.3), wherein the polyether polyol (ii.1) has an equivalent molecular weight of 50 to 150 g/mol, ii.1.4) optionally further auxiliaries and/or additives. i) polyisocyanate composition; ii) polyol composition, comprising at least one polyether polyol (ii.1) which is obtained or obtainable by reacting ii.1.1) a polyol starter with a functionality of 3 to 6 with ii.1.2) propylene oxide and/or butylene oxide, in the presence of a boron-based, fluorine-containing Lewis acid catalyst (ii.1.3), wherein the polyether polyol (ii.1) has an equivalent molecular weight of 50 to 150 g/mol, ii.1.4) optionally further auxiliaries and/or additives. ii.1.1) a polyol starter with a functionality of 3 to 6 with ii.1.2) propylene oxide and/or butylene oxide, in the presence of a boron-based, fluorine-containing Lewis acid catalyst (ii.1.3), wherein the polyether polyol (ii.1) has an equivalent molecular weight of 50 to 150 g/mol, ii.1.4) optionally further auxiliaries and/or additives.
A configurable high directional support comprising: a plurality of telescoping legs (3,4,5); a head comprising a plurality of head units (21,22,23), wherein each head unit is pivotally attachable with one of the telescoping legs depending therefrom and each head unit is releasably coupled with at least one other adjacent head unit, characterised in that each of the head units is adapted to be coupled to two other head units to form a chain of head units. a plurality of telescoping legs (3,4,5); a head comprising a plurality of head units (21,22,23), wherein each head unit is pivotally attachable with one of the telescoping legs depending therefrom and each head unit is releasably coupled with at least one other adjacent head unit, characterised in that each of the head units is adapted to be coupled to two other head units to form a chain of head units.