mhurhangee/ep-ind-claims huggingface dataset:
A method for implementing bidirectional traffic on the same path in an aggregation group, the method comprising: receiving, by a portal of a Link Aggregation Group, LAG, indication information sent by an opposite end of the LAG, wherein the indication information carries port indexes of the opposite end and/or a traffic distribution method of the opposite end; determining, by the portal, port indexes of the portal and/or a traffic distribution method of the portal according to the indication information; distributing, by the portal, traffic according to the determined port indexes and/or traffic distribution method; wherein determining, by the portal, the port indexes of the portal and/or the traffic distribution method of the portal according to the indication information comprises: determining, by the portal, the port indexes of the portal and/or the traffic distribution method of the portal according to the received indication information based on a predetermined strategy; wherein determining, by the portal, the port indexes of the portal according to the received indication information based on the predetermined strategy comprises: when the port indexes of the opposite end carried in the indication information are inconsistent with the port indexes of the portal itself, setting, by the portal, the port indexes of the portal according to priorities of the portal and the opposite end or a master-slave relation between the portal and the opposite end. receiving, by a portal of a Link Aggregation Group, LAG, indication information sent by an opposite end of the LAG, wherein the indication information carries port indexes of the opposite end and/or a traffic distribution method of the opposite end; determining, by the portal, port indexes of the portal and/or a traffic distribution method of the portal according to the indication information; distributing, by the portal, traffic according to the determined port indexes and/or traffic distribution method; wherein determining, by the portal, the port indexes of the portal and/or the traffic distribution method of the portal according to the indication information comprises: determining, by the portal, the port indexes of the portal and/or the traffic distribution method of the portal according to the received indication information based on a predetermined strategy; wherein determining, by the portal, the port indexes of the portal according to the received indication information based on the predetermined strategy comprises: when the port indexes of the opposite end carried in the indication information are inconsistent with the port indexes of the portal itself, setting, by the portal, the port indexes of the portal according to priorities of the portal and the opposite end or a master-slave relation between the portal and the opposite end.
A porous panel with a surface area of at least 0.5 m 2, e.g. for use in the production of filters for molten polymer processing, comprising - a first layer of metal fibers of average equivalent diameter between 8 and 65 μm; wherein the metal fibers of the first layer of metal fibers have a cross-section, wherein the cross section has two neighboring straight sides with an included angle of less than 90° and one or more irregularly shaped curved sides; and wherein the metal fibers of the first layer of metal fibers have an average length of at least 6 mm; wherein the metal fibers of the first layer of metal fibers are bonded to each other by means of metal bonds; wherein the metal of the metal fibers of the first layer is the bonding agent forming the metal bonds; - a second layer of metal fibers; wherein the average equivalent diameter of the metal fibers of the second layer of metal fibers is smaller than the average equivalent diameter of the metal fibers of the first layer of metal fibers; - and wherein the first layer of metal fibers and the second layer of metal fibers are bonded to each other by means of metal bonds; wherein the metal of the metal fibers of the first layer of metal fibers and of the second layer of metal fibers is the bonding agent forming the metal bonds. - a first layer of metal fibers of average equivalent diameter between 8 and 65 μm; wherein the metal fibers of the first layer of metal fibers have a cross-section, wherein the cross section has two neighboring straight sides with an included angle of less than 90° and one or more irregularly shaped curved sides; and wherein the metal fibers of the first layer of metal fibers have an average length of at least 6 mm; wherein the metal fibers of the first layer of metal fibers are bonded to each other by means of metal bonds; wherein the metal of the metal fibers of the first layer is the bonding agent forming the metal bonds; - a second layer of metal fibers; wherein the average equivalent diameter of the metal fibers of the second layer of metal fibers is smaller than the average equivalent diameter of the metal fibers of the first layer of metal fibers; - and wherein the first layer of metal fibers and the second layer of metal fibers are bonded to each other by means of metal bonds; wherein the metal of the metal fibers of the first layer of metal fibers and of the second layer of metal fibers is the bonding agent forming the metal bonds.
Fastening system for the fastening of an adapter module in a vehicle passenger compartment, the fastening system comprising: - a fastening rail, comprising a hollow body of elongated shape, intended to be fastened to a trim element of a motor vehicle, such as a dashboard, the body comprising two conductors (36, 38) arranged respectively along an upper end and a lower end of a cavity made within the body, the cavity communicating with an opening extending along the body; - at least one adapter module, the adapter module being configured to be removably fixed to the fastening rail, the adapter module comprising a body and two movable contacts (44, 46), characterized in that the two movable contacts (44, 46) are movable in rotation relative to the body between an engagement position in which they make it possible to adhere the adapter module to the fastening rail by inserting the movable contacts (44, 46) through the opening, the movable contacts (44, 46) are then arranged within the cavity of the fastening rail, and a fastening position, which does not allow extraction of the movable contacts (44, 46) from the cavity and in which a first end (44a, 46a) of each movable contact (44, 46) is in contact with the corresponding conductor (36, 38) of the fastening rail and electrically connected thereto, thus making it possible to electrically connect the adapter module and the fastening rail. - a fastening rail, comprising a hollow body of elongated shape, intended to be fastened to a trim element of a motor vehicle, such as a dashboard, the body comprising two conductors (36, 38) arranged respectively along an upper end and a lower end of a cavity made within the body, the cavity communicating with an opening extending along the body; - at least one adapter module, the adapter module being configured to be removably fixed to the fastening rail, the adapter module comprising a body and two movable contacts (44, 46), characterized in that the two movable contacts (44, 46) are movable in rotation relative to the body between an engagement position in which they make it possible to adhere the adapter module to the fastening rail by inserting the movable contacts (44, 46) through the opening, the movable contacts (44, 46) are then arranged within the cavity of the fastening rail, and a fastening position, which does not allow extraction of the movable contacts (44, 46) from the cavity and in which a first end (44a, 46a) of each movable contact (44, 46) is in contact with the corresponding conductor (36, 38) of the fastening rail and electrically connected thereto, thus making it possible to electrically connect the adapter module and the fastening rail.
An electrosurgical electrospinning device, comprising: a reservoir having a polymer solution disposed therein, the reservoir cooperating with a dispensing apparatus configured to dispense the polymer solution from the reservoir; characterised by: a plurality of nozzles (322, 324, 326, 328) connected to the reservoir, each nozzle of the plurality of nozzles including a plurality of needles (342, 344, 346, 348); and a blow-spraying mechanism for blowing gas around each nozzle of the plurality of nozzles when the polymer solution is dispensed from the plurality of needles; wherein the nozzles are co-cyclic about a centre point and a gap is provided surrounding the needles within each nozzle whereby the gas from the blow-spraying mechanism and the polymer solution from the plurality of needles are coaxially applied directly on tissue at voltages of less than or equal to 3kV. a plurality of nozzles (322, 324, 326, 328) connected to the reservoir, each nozzle of the plurality of nozzles including a plurality of needles (342, 344, 346, 348); and a blow-spraying mechanism for blowing gas around each nozzle of the plurality of nozzles when the polymer solution is dispensed from the plurality of needles; wherein the nozzles are co-cyclic about a centre point and a gap is provided surrounding the needles within each nozzle whereby the gas from the blow-spraying mechanism and the polymer solution from the plurality of needles are coaxially applied directly on tissue at voltages of less than or equal to 3kV.
An uplink load control method used in a wireless communication system, characterized in that the method comprises: estimating uplink load budget in a cell of the wireless communication system; determining whether the cell is over-loaded based on Block Error Rate, BLER, statistics of users in the cell; decreasing the uplink load budget if it is determined that the cell is over-loaded. estimating uplink load budget in a cell of the wireless communication system; determining whether the cell is over-loaded based on Block Error Rate, BLER, statistics of users in the cell; decreasing the uplink load budget if it is determined that the cell is over-loaded.
A method for forming a heater, said process comprising the steps of: (a) providing a graphite body configured from a solid self standing body with at least one surface coated with a first coating layer comprising at least one of a nitride, carbide, carbonitride or oxynitride of elements selected from a group consisting of B, Al, Si, Ga, refractory hard metals, transition metals, and rare earth metals, or complexes and/or combinations thereof; (b) configuring a pattern for an electrical flow path defining at least one zone of an electrical heating circuit in the coated graphite body obtained in step (a) by a machining operation, wherein the machining operation is conducted through the graphite body up to the first coating layer, but not going through the first coating layer, for some portions of the coated graphite body, while in other portions of the coated graphite body, the coated graphite body is machined through; (c) coating the patterned graphite body obtained in step (b) with a second coating layer comprising at least one of a nitride, carbide, carbonitride or oxynitride of elements selected from a group consisting of B, Al, Si, Ga, refractory hard metals, transition metals, and rare earth metals, or complexes and/or combinations thereof. (a) providing a graphite body configured from a solid self standing body with at least one surface coated with a first coating layer comprising at least one of a nitride, carbide, carbonitride or oxynitride of elements selected from a group consisting of B, Al, Si, Ga, refractory hard metals, transition metals, and rare earth metals, or complexes and/or combinations thereof; (b) configuring a pattern for an electrical flow path defining at least one zone of an electrical heating circuit in the coated graphite body obtained in step (a) by a machining operation, wherein the machining operation is conducted through the graphite body up to the first coating layer, but not going through the first coating layer, for some portions of the coated graphite body, while in other portions of the coated graphite body, the coated graphite body is machined through; (c) coating the patterned graphite body obtained in step (b) with a second coating layer comprising at least one of a nitride, carbide, carbonitride or oxynitride of elements selected from a group consisting of B, Al, Si, Ga, refractory hard metals, transition metals, and rare earth metals, or complexes and/or combinations thereof.
A copolymer having the structure wherein each occurrence of Q 1 and Q 2 is independently selected from the group consisting of halogen, unsubstituted or substituted C 1 -C 12 hydrocarbyl provided that the hydrocarbyl group is not tertiary hydrocarbyl, C 1 -C 12 hydrocarbylthio, C 1 -C 12 hydrocarbyloxy, and C 2 -C 12 halohydrocarbyloxy wherein at least two carbon atoms separate the halogen and oxygen atoms; each occurrence of Q 3 and Q 4 is independently selected from the group consisting of hydrogen, halogen, unsubstituted or substituted C 1 -C 12 hydrocarbyl provided that the hydrocarbyl group is not tertiary hydrocarbyl, C 1 -C 12 hydrocarbylthio, C 1 -C 12 hydrocarbyloxy, and C 2 -C 12 halohydrocarbyloxy wherein at least two carbon atoms separate the halogen and oxygen atoms; and m and n are independently 0 to 50, provided that the sum of m and n is at least 3.
A method for deleting a cascaded snapshot, wherein the method is applied to a storage device, the storage device comprises a logical volume and a plurality of cascaded snapshots taken from each other in a cascaded manner, the plurality of cascaded snapshots comprise at least a first snapshot, a second snapshot, and a third snapshot, wherein the first snapshot is the child snapshot of the logical volume and the parent snapshot of the second snapshot, and the third snapshot is the child snapshot of the second snapshot, and the method comprises: receiving an instruction for deleting the first snapshot, wherein the first snapshot comprises target data; migrating the target data to the second snapshot; setting a parent snapshot identifier corresponding to the third snapshot to an identifier of the second snapshot, wherein the set parent snapshot identifier corresponding to the third snapshot indicates that the parent snapshot of the third snapshot is the second snapshot; and deleting the first snapshot, characterized in that the target data comprise a timestamp of the first snapshot, and the timestamp of the first snapshot is set when the first snapshot is created, wherein each cascaded snapshot of the logical volume has one timestamp, and the timestamp of each cascaded snapshot is unique, and wherein the timestamp of each snapshot is the sum of an original timestamp of the logical volume and a preset threshold, such that the equidistant timestamp values are in descending order from the logical volume to the third snapshot. receiving an instruction for deleting the first snapshot, wherein the first snapshot comprises target data; migrating the target data to the second snapshot; setting a parent snapshot identifier corresponding to the third snapshot to an identifier of the second snapshot, wherein the set parent snapshot identifier corresponding to the third snapshot indicates that the parent snapshot of the third snapshot is the second snapshot; and deleting the first snapshot, characterized in that the target data comprise a timestamp of the first snapshot, and the timestamp of the first snapshot is set when the first snapshot is created, wherein each cascaded snapshot of the logical volume has one timestamp, and the timestamp of each cascaded snapshot is unique, and wherein the timestamp of each snapshot is the sum of an original timestamp of the logical volume and a preset threshold, such that the equidistant timestamp values are in descending order from the logical volume to the third snapshot.
A first wireless transmit/receive unit, WTRU, comprising: a processor configured to: monitor a first sidelink resource associated with a first set of carriers; receive, from a second WTRU, a resource usage parameter for a second sidelink resource, wherein the second sidelink resource is associated with a second set of carriers and the second sidelink resource is associated with the second WTRU, and wherein the first set of carriers is different from the second set of carriers; generate an aggregated carrier usage report based on weighting criteria associated with the monitored first sidelink resource associated with the first set of carriers and the resource usage parameter for the second sidelink resource associated with the second set of carriers; and transmit the generated aggregated carrier usage report. monitor a first sidelink resource associated with a first set of carriers; receive, from a second WTRU, a resource usage parameter for a second sidelink resource, wherein the second sidelink resource is associated with a second set of carriers and the second sidelink resource is associated with the second WTRU, and wherein the first set of carriers is different from the second set of carriers; generate an aggregated carrier usage report based on weighting criteria associated with the monitored first sidelink resource associated with the first set of carriers and the resource usage parameter for the second sidelink resource associated with the second set of carriers; and transmit the generated aggregated carrier usage report.
A method of digitally compensating distortions of rays of a light beam in tomography-based additive manufacturing, wherein said tomography-based additive manufacturing involves projecting light patterns from multiple angles into a container comprising photoresponsive material, characterized in that said method comprises the steps of: - simulating the path of the light rays through the container and the photoresponsive material; - digitally compensating the light projections based on the simulated path of the light rays, so as to obtain modified light projections. - simulating the path of the light rays through the container and the photoresponsive material; - digitally compensating the light projections based on the simulated path of the light rays, so as to obtain modified light projections.
A semiconductor radiation detector device, comprising a bulk layer of semiconductor material, and on a first surface of the bulk layer in the following order: - a modified internal gate layer (104, 304) of semiconductor of second conductivity type, - a barrier layer of semiconductor of first conductivity type and - pixel dopings (111, 112, 1331, 1332, 1333, 1334, 2206) of semiconductor of the second conductivity type, adapted to be coupled to at least one pixel voltage in order to create pixels corresponding to pixel dopings, characterised in that: - the device comprises a first conductivity type first contact, said pixel voltage being defined as a potential difference between the pixel doping and the first contact, - the bulk layer is of the first conductivity type, and - the device does not comprise, on a second surface of the bulk layer opposite to the first surface, a conductive back side layer that would transport secondary charges out of an active area of the device, and wherein - the secondary charges being collected by at least one of the following: a channel stop area (121, 122, 123, 124, 125) between pixels, a bulk contact. - a modified internal gate layer (104, 304) of semiconductor of second conductivity type, - a barrier layer of semiconductor of first conductivity type and - pixel dopings (111, 112, 1331, 1332, 1333, 1334, 2206) of semiconductor of the second conductivity type, adapted to be coupled to at least one pixel voltage in order to create pixels corresponding to pixel dopings, characterised in that: - the device comprises a first conductivity type first contact, said pixel voltage being defined as a potential difference between the pixel doping and the first contact, - the bulk layer is of the first conductivity type, and - the device does not comprise, on a second surface of the bulk layer opposite to the first surface, a conductive back side layer that would transport secondary charges out of an active area of the device, and wherein - the secondary charges being collected by at least one of the following: a channel stop area (121, 122, 123, 124, 125) between pixels, a bulk contact.
Use of polyether polyesters obtainable by reacting of 20 to 50 mol % of one or more dicarboxylic compounds, 10.1 to 29.9 mol % of one or more polyol compounds with at least 3 OH-groups, 10.1 to 50 mol % of one or more water-soluble alkylene oxide addition products of one or more C2- to C4-alkylene oxide to a C1- to C6-alcohol in a molar ratio of 4 to 100 mol alkylene oxide, to 1 mole of alcohol, and 0 to 30 mole % of one or more diol compounds for avoiding the transfer of textile dyes from dyed textiles onto undyed or differently coloured textiles when they are jointly washed in surfactant-containing aqueous solutions. 20 to 50 mol % of one or more dicarboxylic compounds, 10.1 to 29.9 mol % of one or more polyol compounds with at least 3 OH-groups, 10.1 to 50 mol % of one or more water-soluble alkylene oxide addition products of one or more C2- to C4-alkylene oxide to a C1- to C6-alcohol in a molar ratio of 4 to 100 mol alkylene oxide, to 1 mole of alcohol, and 0 to 30 mole % of one or more diol compounds for avoiding the transfer of textile dyes from dyed textiles onto undyed or differently coloured textiles when they are jointly washed in surfactant-containing aqueous solutions.
A process for the production of aripiprazole or a pharmaceutically acceptable salt thereof comprising the steps of preparing and isolating an oxalic acid addition salt of aripiprazole or a solvate thereof and converting the oxalic acid addition salt or solvate thereof into aripiprazole in free form isolated with less than 0.1% (w/w) of a compound of formula and optionally converting aripiprazole in free form into a pharmaceutically acceptable salt of aripiprazole.
Winding/unwinding device for rolled products, adapted to be interposed between at least a rolling unit located upstream and at least a rolling unit located downstream, the device comprising a heating furnace and two winding/unwinding drums (18a, 18b) positioned inside said furnace, wherein said winding/unwinding drums (18a, 18b) are mounted on a support structure disposed outside the heating furnace, characterized in that the support structure comprises two discs, selectively rotating, to which the respective ends of said drums (18a, 18b) are attached in a diametrically opposite position, said furnace comprising lateral covers through which the ends of said drums (18a, 18b) extend, said covers being made to rotate with said disks, the disks engaging movement devices each comprising a motor and a reduction unit (43, 44), said reduction units being mechanically synchronized by means of a transmission shaft, said motors being electrically synchronized to rotate said disks so as to alternatively dispose a first of said two drums (18a or 18b) in its winding position or in its unwinding position of a reel, the second of said two drums (18b or 18a) consequently assuming the opposite unwinding or winding position.