mhurhangee/patent-ind-claim-en huggingface dataset:
A method of application layer-forward error correction, in the following also referred to as AL-FEC, using MPEG Media transport (MMT) protocol performed by an MMT middle box , the method comprising: receiving a bounded FEC configuration setting from an MMT sending entity or another MMT middle box , wherein the bounded FEC configuration setting belongs to an FEC configuration group comprising at least one FEC configuration setting having a bounded-number of stages or layers of FEC coding structure, and wherein the bounded-number is a positive integer greater than 1; and if the bounded FEC configuration setting corresponds to one FEC configuration setting having the bounded-number of stages or layers of FEC coding structure: receiving one or more FEC source packets and FEC repair packets from the MMT sending entity or said another MMT middle box ; characterized by adding one FEC stage or layer to or deleting one FEC stage or layer from said one or more FEC source packets and FEC repair packets to generate one or more modified MMT packets at the MMT middle box using a range of FEC schemes having a target number of stages or layers of FEC coding structure from 1 to the bounded-number; and sending said modified MMT packets to an MMT receiving entity or another MMT middle box . receiving a bounded FEC configuration setting from an MMT sending entity or another MMT middle box , wherein the bounded FEC configuration setting belongs to an FEC configuration group comprising at least one FEC configuration setting having a bounded-number of stages or layers of FEC coding structure, and wherein the bounded-number is a positive integer greater than 1; and if the bounded FEC configuration setting corresponds to one FEC configuration setting having the bounded-number of stages or layers of FEC coding structure: receiving one or more FEC source packets and FEC repair packets from the MMT sending entity or said another MMT middle box ; characterized by adding one FEC stage or layer to or deleting one FEC stage or layer from said one or more FEC source packets and FEC repair packets to generate one or more modified MMT packets at the MMT middle box using a range of FEC schemes having a target number of stages or layers of FEC coding structure from 1 to the bounded-number; and sending said modified MMT packets to an MMT receiving entity or another MMT middle box . receiving one or more FEC source packets and FEC repair packets from the MMT sending entity or said another MMT middle box ; characterized by adding one FEC stage or layer to or deleting one FEC stage or layer from said one or more FEC source packets and FEC repair packets to generate one or more modified MMT packets at the MMT middle box using a range of FEC schemes having a target number of stages or layers of FEC coding structure from 1 to the bounded-number; and sending said modified MMT packets to an MMT receiving entity or another MMT middle box .
An in vitro method for synthesising a double-stranded polynucleotide having a predefined sequence, the method comprising performing cycles of synthesis wherein in each cycle, a first strand is extended by the incorporation of a nucleotide of the predefined sequence and the second strand which is hybridized to the first strand is extended by the incorporation of a nucleotide thereby forming a nucleotide pair with the incorporated nucleotide of the first strand; wherein each cycle comprises extending the first strand by incorporating the nucleotide of the predefined sequence together with an attached reversible terminator group followed by extending the second strand; further wherein in each cycle the nucleotides are incorporated into a scaffold polynucleotide comprising a synthesis strand and a support strand hybridized thereto, wherein the synthesis strand comprises a primer strand portion and wherein each cycle comprises: providing the scaffold polynucleotide; incorporating into the scaffold polynucleotide by the action of polymerase a nucleotide of the predefined sequence, the nucleotide comprising a reversible terminator group which prevents further extension by polymerase; cleaving the scaffold polynucleotide at a cleavage site; ligating a ligation polynucleotide to the cleaved scaffold polynucleotide, the ligation polynucleotide comprising a partner nucleotide for the nucleotide of the predefined sequence, wherein upon ligation the nucleotide of the predefined sequence pairs with the partner nucleotide; and removing the reversible terminator group from the nucleotide of the predefined sequence after step or removing the reversible terminator group from the nucleotide of predefined sequence after step and before step , or after step and before step . providing the scaffold polynucleotide; incorporating into the scaffold polynucleotide by the action of polymerase a nucleotide of the predefined sequence, the nucleotide comprising a reversible terminator group which prevents further extension by polymerase; cleaving the scaffold polynucleotide at a cleavage site; ligating a ligation polynucleotide to the cleaved scaffold polynucleotide, the ligation polynucleotide comprising a partner nucleotide for the nucleotide of the predefined sequence, wherein upon ligation the nucleotide of the predefined sequence pairs with the partner nucleotide; and removing the reversible terminator group from the nucleotide of the predefined sequence after step or removing the reversible terminator group from the nucleotide of predefined sequence after step and before step , or after step and before step .
A pharmaceutically acceptable liquid composition comprising carbidopa, 4% to 12% by weight levodopa; and 9% to 30% by weight arginine, wherein said composition has a pH of 9.2 to 9.8 at 25°C, and the molar ratio of levodopa plus carbidopa to the arginine is 1:1.8 to 1:3.5.
An introducer needle device , comprising a needle housing , a needle , and a resilient means ; the needle comprising a needle hub at one end and a bevelled needle tip at another end housed at least partially within the needle housing ; the needle housing including indicia that comprises a means for identifying an angular orientation of the bevelled needle tip within the needle housing ; the needle being movable axially along a length of the needle housing between a first position relative to the needle housing in which the needle tip is contained within the needle housing and a second position relative to the needle housing in which at least a part of the needle tip extends beyond a periphery of the needle housing ; the resilient means being arranged to bias the needle towards and into the first position and being compressible to enable movement of the needle towards and into the second position; wherein the device further comprises means for preventing rotation of the needle within the needle housing ; and the needle housing further comprises a coupling means for coupling the introducer needle device to a separate component, wherein each of the coupling means and the separate component comprises a luer hub fitting, the coupling means being arranged relative to the needle such that coupling of the separate component to the coupling means causes the separate component to engage and move the needle hub so that the resilient means are compressed and the needle is moved towards and arranged in the second position. the needle comprising a needle hub at one end and a bevelled needle tip at another end housed at least partially within the needle housing ; the needle housing including indicia that comprises a means for identifying an angular orientation of the bevelled needle tip within the needle housing ; the needle being movable axially along a length of the needle housing between a first position relative to the needle housing in which the needle tip is contained within the needle housing and a second position relative to the needle housing in which at least a part of the needle tip extends beyond a periphery of the needle housing ; the resilient means being arranged to bias the needle towards and into the first position and being compressible to enable movement of the needle towards and into the second position; wherein the device further comprises means for preventing rotation of the needle within the needle housing ; and the needle housing further comprises a coupling means for coupling the introducer needle device to a separate component, wherein each of the coupling means and the separate component comprises a luer hub fitting, the coupling means being arranged relative to the needle such that coupling of the separate component to the coupling means causes the separate component to engage and move the needle hub so that the resilient means are compressed and the needle is moved towards and arranged in the second position.
A computer-implemented method comprising: receiving, by a first instance of a mirror management service, a request to mirror a private network in a first area operated by a service provider to a second area operated by the service provider, the request designating the private network as a master private network and identifying a mirror private network in the second area; detecting, by the first instance of the mirror management service, one or more configuration changes to the master private network in the first area by a first instance of a mirror management service ; and propagating, by the first instance of the mirror management service, the one or more configuration changes to a second instance of the mirror management service in the second area over a transit network , the second instance of the mirror management service to implement the configuration changes to the mirror private network using a dependency model . receiving, by a first instance of a mirror management service, a request to mirror a private network in a first area operated by a service provider to a second area operated by the service provider, the request designating the private network as a master private network and identifying a mirror private network in the second area; detecting, by the first instance of the mirror management service, one or more configuration changes to the master private network in the first area by a first instance of a mirror management service ; and propagating, by the first instance of the mirror management service, the one or more configuration changes to a second instance of the mirror management service in the second area over a transit network , the second instance of the mirror management service to implement the configuration changes to the mirror private network using a dependency model .
A sheet conveying apparatus comprising: a first rotary member configured for driven rotation in one direction(R1); a second rotary member configured in a first state to form a first nip portion (N1) with the first rotary member so as to convey a sheet (S) in a first direction; and a third rotary member configured in a second state to form a second nip portion (N2) with the first rotary member to convey the sheet (S) in a second direction different from the first direction; wherein the first state is a state where the second rotary member contacts a first surface (S1) of the sheet (S) and the first rotary member contacts a second surface (S2) opposite to the first surface (S1) of the sheet (S), the second state is a state where the first rotary member contacts the first surface (S1) of the sheet (S) and the third rotary member contacts the second surface (S2) of the sheet (S), characterized in that a switching unit is configured to reverse the direction of travel of the sheet (S), by switching from the first state to a third state, by moving one or more of the rotary members such that the second rotary member and the third rotary member are urged together to form a third nip portion (N3, N113, N33, N43) and then to switch from the third state to the second state, and wherein the third state is a state where the second rotary member contacts the first surface (S1) of the sheet (S), and the third rotary member contacts the second surface (S2) of the sheet (S). a first rotary member configured for driven rotation in one direction(R1); a second rotary member configured in a first state to form a first nip portion (N1) with the first rotary member so as to convey a sheet (S) in a first direction; and a third rotary member configured in a second state to form a second nip portion (N2) with the first rotary member to convey the sheet (S) in a second direction different from the first direction; wherein the first state is a state where the second rotary member contacts a first surface (S1) of the sheet (S) and the first rotary member contacts a second surface (S2) opposite to the first surface (S1) of the sheet (S), the second state is a state where the first rotary member contacts the first surface (S1) of the sheet (S) and the third rotary member contacts the second surface (S2) of the sheet (S), characterized in that a switching unit is configured to reverse the direction of travel of the sheet (S), by switching from the first state to a third state, by moving one or more of the rotary members such that the second rotary member and the third rotary member are urged together to form a third nip portion (N3, N113, N33, N43) and then to switch from the third state to the second state, and wherein the third state is a state where the second rotary member contacts the first surface (S1) of the sheet (S), and the third rotary member contacts the second surface (S2) of the sheet (S).
A data processing method, comprising: sending (S304), by a network interface card of a first device, a first request packet to a second device, wherein the first request packet is used to request to read first data, and the first data is stored in a first destination storage area of the second device; receiving (S308), by the network interface card, a first response packet that is sent by the second device in response to the first request packet, wherein the first response packet comprises the first data and a first storage address; and initiating (S308), by the network interface card based on the first response packet, direct memory access, DMA, to the first storage address to write the first data into a memory area to which the first storage address points, wherein the memory area to which the first storage address points belongs to a memory area of a host of the first device, and the first data does not need to be cached in a memory of the network interface card. sending (S304), by a network interface card of a first device, a first request packet to a second device, wherein the first request packet is used to request to read first data, and the first data is stored in a first destination storage area of the second device; receiving (S308), by the network interface card, a first response packet that is sent by the second device in response to the first request packet, wherein the first response packet comprises the first data and a first storage address; and initiating (S308), by the network interface card based on the first response packet, direct memory access, DMA, to the first storage address to write the first data into a memory area to which the first storage address points, wherein the memory area to which the first storage address points belongs to a memory area of a host of the first device, and the first data does not need to be cached in a memory of the network interface card.
A method for diagnosing a failure of a flowmeter in a measuring machine , comprising: measuring a filling amount of hydrogen gas by using a flowmeter arranged in the measuring machine in a case that a tank of a vehicle powered by the hydrogen gas is filled with the hydrogen gas via the measuring machine ; receiving information of a pressure, a temperature, and a volume of the tank ; calculating a filling amount at an end of filling of the hydrogen gas into the tank from the measuring machine by using the pressure, the temperature, and the volume of the tank ; and determining whether or not the flowmeter arranged in the measuring machine fails by using a plurality of error values between a metering filling amount at the end of filling measured using the flowmeter arranged in the measuring machine and a calculated filling amount at the end of filling calculated using the pressure, the temperature, and the volume of the tank , the plurality of error values being based on a plurality of past performance data stored in a storage device , and an error value at the end of filling of the hydrogen gas at a present time, and outputting a result. measuring a filling amount of hydrogen gas by using a flowmeter arranged in the measuring machine in a case that a tank of a vehicle powered by the hydrogen gas is filled with the hydrogen gas via the measuring machine ; receiving information of a pressure, a temperature, and a volume of the tank ; calculating a filling amount at an end of filling of the hydrogen gas into the tank from the measuring machine by using the pressure, the temperature, and the volume of the tank ; and determining whether or not the flowmeter arranged in the measuring machine fails by using a plurality of error values between a metering filling amount at the end of filling measured using the flowmeter arranged in the measuring machine and a calculated filling amount at the end of filling calculated using the pressure, the temperature, and the volume of the tank , the plurality of error values being based on a plurality of past performance data stored in a storage device , and an error value at the end of filling of the hydrogen gas at a present time, and outputting a result.
A method comprising steps of: in a node in a Segment Routing network with the node including a plurality of ports and a switching fabric between the plurality of ports, and for an Ethernet Virtual Private Network, EVPN-Virtual Private Local Area Network Service, VPLS, transmitting , by a port, a packet with a plurality of Segment Identifiers, SID, including a destination SID that identifies a destination node for the packet, a service SID that identifies an EVPN Instance, EVI, and a source SID that identifies one of the node and an Ethernet Segment, ES, that includes the node, wherein the method further comprises the steps of: receiving , by the port, a second packet with a second plurality of SIDs; and learning a Media Access Control, MAC, address based on a second service SID and a second source SID, of the second packet, wherein the source SID is an anycast SID when the node is in a multi-homed configuration in the ES along with one or more additional nodes of the Segment Routing network, wherein the source SID is located after the service SID for the destination node to learn a source Media Access Control, MAC, address associated with the node. in a node in a Segment Routing network with the node including a plurality of ports and a switching fabric between the plurality of ports, and for an Ethernet Virtual Private Network, EVPN-Virtual Private Local Area Network Service, VPLS, transmitting , by a port, a packet with a plurality of Segment Identifiers, SID, including a destination SID that identifies a destination node for the packet, a service SID that identifies an EVPN Instance, EVI, and a source SID that identifies one of the node and an Ethernet Segment, ES, that includes the node, wherein the method further comprises the steps of: receiving , by the port, a second packet with a second plurality of SIDs; and learning a Media Access Control, MAC, address based on a second service SID and a second source SID, of the second packet, wherein the source SID is an anycast SID when the node is in a multi-homed configuration in the ES along with one or more additional nodes of the Segment Routing network, wherein the source SID is located after the service SID for the destination node to learn a source Media Access Control, MAC, address associated with the node. receiving , by the port, a second packet with a second plurality of SIDs; and learning a Media Access Control, MAC, address based on a second service SID and a second source SID, of the second packet, wherein the source SID is an anycast SID when the node is in a multi-homed configuration in the ES along with one or more additional nodes of the Segment Routing network, wherein the source SID is located after the service SID for the destination node to learn a source Media Access Control, MAC, address associated with the node.
A composition comprising an effective amount of at least one peptide selected from the group consisting of SEQ ID NO:1, 2, 4, 5 and a combination thereof, wherein at least one serine in the peptide is phosphorylated, for use in the treatment or amelioration of a symptom of a chronic inflammatory disease or disorder, wherein the chronic inflammatory disease or disorder is selected from the group consisting of muscular dystrophy (MD), fibromyalgia, myopathies, chronic inflammatory demyelinating polyradiculoneuropathy (CIDP), asthma, chronic pulmonary obstructive disorder (COPD), eosinophilic airway inflammation, and psoriasis, and the composition is administered to a patient in need of such treatment and the composition is effective in treating or ameliorating at least one symptom of the disease or disorder.
A fibrous filtration media comprising a wet-laid, hot area-calendered nonwoven fibrous web comprising: synthetic staple fibers; and from about 20 wt.% to about 80 wt.%, based on total weight of the fibrous web, sheath-core bicomponent staple fibers dispersed through the fibrous web, wherein the fibrous web has a density less than about 0.45 g/cm 3 , a minimum pore size of 25 μm or less and exhibits a dry burst strength of greater than 10 bar. synthetic staple fibers; and from about 20 wt.% to about 80 wt.%, based on total weight of the fibrous web, sheath-core bicomponent staple fibers dispersed through the fibrous web, wherein the fibrous web has a density less than about 0.45 g/cm 3 , a minimum pore size of 25 μm or less and exhibits a dry burst strength of greater than 10 bar.
A mixing assembly , comprising: a tubular member ; and a spherical body disposed within a portion of the tubular member, the spherical body having an outside diameter and an inside diameter defining a central volume , wherein the spherical body includes an inlet side and an outlet side , and a plurality of channels formed in each of inlet side and outlet side, characterized in that each of the plurality of channels are oriented toward a center of the central volume. a tubular member ; and a spherical body disposed within a portion of the tubular member, the spherical body having an outside diameter and an inside diameter defining a central volume , wherein the spherical body includes an inlet side and an outlet side , and a plurality of channels formed in each of inlet side and outlet side, characterized in that each of the plurality of channels are oriented toward a center of the central volume.
A method of operating a self-propelled harvester by which crop material is picked up by means of an attachment when passing through a crop stand on a field to be harvested and is fed to a downstream-disposed intake device , wherein during a harvesting operation the crop stand is temporarily left, in particular to carry out a turning operation (WV) for travelling back into the crop stand again, wherein upon temporarily leaving the crop stand an internal combustion engine serving at least for the drive of the attachment and the intake device is automatically controlled to implement a reduction in the speed of rotation for the duration of temporarily leaving the crop stand , characterised in that when leaving the crop stand the intake device is automatically shut down before the reduction in the speed of rotation of the internal combustion engine is initiated while the attachment remains switched on.