mhurhangee/patent-ind-claim-en huggingface dataset:
A packet transmission method, comprising: receiving , by a session management function network element, first access network tunnel information and second access network tunnel information that correspond to a first service; and sending , by the session management function network element, a downlink forwarding rule to a user plane function network element, wherein the downlink forwarding rule comprises the first access network tunnel information and the second access network tunnel information and the downlink forwarding rule indicates the user plane function network element to replicate a received downlink packet of the first service; receiving , by the user plane function network element, the downlink forwarding rule from the session management function network element; and generating , by the user plane function network element, a first downlink packet and a second downlink packet, and sending the first downlink packet and the second downlink packet to a base station through two paths respectively corresponding to the first access network tunnel information and the second access network tunnel information according to the downlink forwarding rule. receiving , by a session management function network element, first access network tunnel information and second access network tunnel information that correspond to a first service; and sending , by the session management function network element, a downlink forwarding rule to a user plane function network element, wherein the downlink forwarding rule comprises the first access network tunnel information and the second access network tunnel information and the downlink forwarding rule indicates the user plane function network element to replicate a received downlink packet of the first service; receiving , by the user plane function network element, the downlink forwarding rule from the session management function network element; and generating , by the user plane function network element, a first downlink packet and a second downlink packet, and sending the first downlink packet and the second downlink packet to a base station through two paths respectively corresponding to the first access network tunnel information and the second access network tunnel information according to the downlink forwarding rule.
Process for the co-culture of an anaerobic mesophilic bacterium pertaining to the genus Mesotoga with at least one hydrogenotrophic sulfate-reducing bacterium wherein the said co-culture is performed in a culture medium comprising at least one carbon source and at least one sulfur source, and wherein the said at least one sulfur source is sulfate and wherein the said at least one carbon source is a sugar.
A streaming media file processing method, comprising: slicing (S10) a streaming media file into slices according to a preset time unit; creating (S20) a playing sequence number for each slice based on time data, wherein the playing sequence number is configured to determine an order of playing the slices; and storing (S30) the slices and the playing sequence numbers of the slices separately and establishing a mapping relationship between the slices and the corresponding playing sequence numbers for playing the steaming media file. slicing (S10) a streaming media file into slices according to a preset time unit; creating (S20) a playing sequence number for each slice based on time data, wherein the playing sequence number is configured to determine an order of playing the slices; and storing (S30) the slices and the playing sequence numbers of the slices separately and establishing a mapping relationship between the slices and the corresponding playing sequence numbers for playing the steaming media file.
Device for testing a connection (4, 4.1, 4.2) of a guarantee band and/or at least one tethering means of a closure lid to a lid base body and for testing a leaktightness of the lid base body , comprising a) an entrainment element for gripping the guarantee band and/or the at least one tethering means; b) a contact element for the lid base body , wherein the entrainment element and the contact element are movable relative to each other in a direction of interaction such that a tear-off force can be exerted on connecting elements between the lid base body and the guarantee band and/or the at least one tethering means; c) a force measuring device for measuring the tear-off force during the relative movement between the guarantee band and/or tethering means and the lid base body ; characterized in that the contact element has a sealing structure , so that a sealed chamber can be formed between the contact element and the lid base body , and in that a device for setting a predetermined gas pressure in the chamber and a device for detecting a gas outlet or gas inlet are present. a) an entrainment element for gripping the guarantee band and/or the at least one tethering means; b) a contact element for the lid base body , wherein the entrainment element and the contact element are movable relative to each other in a direction of interaction such that a tear-off force can be exerted on connecting elements between the lid base body and the guarantee band and/or the at least one tethering means; c) a force measuring device for measuring the tear-off force during the relative movement between the guarantee band and/or tethering means and the lid base body ;
A core-shell polymer-containing epoxy resin composition, wherein the composition comprises 100 parts by weight of the epoxy resin (A), 1 to 100 parts by weight of the core-shell polymer (B) and 1 to 80 parts by weight of a curing agent, the core-shell polymer has the volume average particle diameter of 0.01 to 1 μm, the core part of the core-shell polymer (B) has the glass transition temperature of less than 0 °C, the shell part of the core-shell polymer (B) has the glass transition temperature of less than 25 °C, and the shell part of the core-shell polymer (B) is polymerized with at least a monomer having an epoxy group.
A method for wireless communications, the method being performed by a user equipment, UE, and comprising determining a blind decode, BD, limit and a control channel element, CCE, limit based on a scaling factor being less than one; determining physical downlink control channel, PDCCH, parameters based on the BD limit and the CCE limit for monitoring a single downlink control information, DCI, that schedules at least one of data or reference signal, RS, transmissions in multiple cells; and monitoring the single DCI, from a scheduling cell of the multiple cells, based on the determined PDCCH parameters, the method further comprising: reporting, to the scheduling cell, a supported physical downlink control channel, PDCCH, blind detection capability based on one or more conditions being satisfied; and wherein the one or more conditions are satisfied when a sum of a first number of cells with which the UE may be configured and a second number of cells with which the UE may be configured scaled by the scaling factor exceeds a threshold value, wherein the first number represents a number of cells not among the multiple cells configured by the single DCI and the second number represents a number of cells among the multiple cells configured by the single DCI. determining a blind decode, BD, limit and a control channel element, CCE, limit based on a scaling factor being less than one; determining physical downlink control channel, PDCCH, parameters based on the BD limit and the CCE limit for monitoring a single downlink control information, DCI, that schedules at least one of data or reference signal, RS, transmissions in multiple cells; and monitoring the single DCI, from a scheduling cell of the multiple cells, based on the determined PDCCH parameters, the method further comprising: reporting, to the scheduling cell, a supported physical downlink control channel, PDCCH, blind detection capability based on one or more conditions being satisfied; and wherein the one or more conditions are satisfied when a sum of a first number of cells with which the UE may be configured and a second number of cells with which the UE may be configured scaled by the scaling factor exceeds a threshold value, wherein the first number represents a number of cells not among the multiple cells configured by the single DCI and the second number represents a number of cells among the multiple cells configured by the single DCI. reporting, to the scheduling cell, a supported physical downlink control channel, PDCCH, blind detection capability based on one or more conditions being satisfied; and wherein the one or more conditions are satisfied when a sum of a first number of cells with which the UE may be configured and a second number of cells with which the UE may be configured scaled by the scaling factor exceeds a threshold value, wherein the first number represents a number of cells not among the multiple cells configured by the single DCI and the second number represents a number of cells among the multiple cells configured by the single DCI.
A method of preparing dolutegravir of Formula I, comprising: a) reacting the compound of Formula II or a reactive derivative thereof with 2,4-difluoro benzylamine to provide a compound of Formula III, wherein R is alkyl, aryl or aralkyl group, P 1 and P 2 independently represent a ketal protecting group, or together form a cyclic ring; b) deprotecting the compound of Formula III to provide a compound of Formula IV; c) converting the compound of Formula IV into a compound of Formula V; d) reacting the compound of Formula V with a compound of Formula VI to provide a compound of Formula VII, wherein R 1 and R 2 independently represent an alkyl; e) condensing the compound of Formula VII with a compound of Formula VIII to provide a compound of Formula IX, wherein R 3 and R 4 are independently alkyl, aryl or aralkyl; f) converting the compound of Formula IX into a compound of Formula X; g) reacting the compound of Formula X with (R)-3-amino-1-butanol to provide a compound of Formula XI; and h) converting the compound of Formula XI into dolutegravir of Formula I. a) reacting the compound of Formula II or a reactive derivative thereof with 2,4-difluoro benzylamine to provide a compound of Formula III, wherein R is alkyl, aryl or aralkyl group, P 1 and P 2 independently represent a ketal protecting group, or together form a cyclic ring; wherein R is alkyl, aryl or aralkyl group, P 1 and P 2 independently represent a ketal protecting group, or together form a cyclic ring; b) deprotecting the compound of Formula III to provide a compound of Formula IV; c) converting the compound of Formula IV into a compound of Formula V; d) reacting the compound of Formula V with a compound of Formula VI to provide a compound of Formula VII, wherein R 1 and R 2 independently represent an alkyl; e) condensing the compound of Formula VII with a compound of Formula VIII to provide a compound of Formula IX, wherein R 3 and R 4 are independently alkyl, aryl or aralkyl; f) converting the compound of Formula IX into a compound of Formula X; g) reacting the compound of Formula X with (R)-3-amino-1-butanol to provide a compound of Formula XI; and h) converting the compound of Formula XI into dolutegravir of Formula I.
A pressure sensor , comprising: a Wheatstone bridge and a heat emitting diode, wherein the Wheatstone bridge comprises a first resistor, R1, a second resistor, R2, a third resistor, R3, and a fourth resistor, Rx; the first resistor, the second resistor, the third resistor, and the fourth resistor are coupled to form a loop, a coupling point of the first resistor and the second resistor serves as a first input terminal of the Wheatstone bridge, a coupling point of the third resistor and the fourth resistor serves as a second input terminal of the Wheatstone bridge, a coupling point of the second resistor and the fourth resistor serves as a first output terminal of the Wheatstone bridge and is coupled to a first terminal of the heat emitting diode, and a coupling point of the first resistor and the third resistor serves as a second output terminal of the Wheatstone bridge; and the first resistor, the second resistor, and the third resistor are fixed resistors, and the fourth resistor is a varistor; when temperature increases, an equivalent resistance of the heat emitting diode decreases, and a resistance of the fourth resistor increases; when the temperature decreases, the equivalent resistance of the heat emitting diode increases, and the resistance of the fourth resistor decreases; and the first input terminal and the second input terminal are configured to input a constant voltage or a pulse voltage, and the second output terminal of the Wheatstone bridge and the second terminal of the heat emitting diode are configured to output an electrical signal; wherein the first input terminal and the second input terminal of the Wheatstone bridge are further coupled to an alternating current signal generator. the first resistor, the second resistor, and the third resistor are fixed resistors, and the fourth resistor is a varistor; when temperature increases, an equivalent resistance of the heat emitting diode decreases, and a resistance of the fourth resistor increases; when the temperature decreases, the equivalent resistance of the heat emitting diode increases, and the resistance of the fourth resistor decreases; and the first input terminal and the second input terminal are configured to input a constant voltage or a pulse voltage, and the second output terminal of the Wheatstone bridge and the second terminal of the heat emitting diode are configured to output an electrical signal; wherein the first input terminal and the second input terminal of the Wheatstone bridge are further coupled to an alternating current signal generator.
A system including a nomadic device and a fob carried by a vehicle user, the nomadic device including a wireless network transceiver for communicating with a vehicle-installed telematics unit via a global network and a short-range wireless transceiver for communicating with a short-range wireless transceiver of the fob via a short-range communication link , wherein the nomadic device is configured, when the user initiates a command from the nomadic device, to first determine if network service of the global network is available, and if the network service is available, the nomadic device is further configured to initiate a network communication session to a network transceiver of the vehicle-installed telematics unit via the global network , and wherein the nomadic device includes control means configured to initiate a vehicle information request or command communication to the vehicle when the user uses the nomadic device , the nomadic device being configured to automatically select the short-range communication link when the global network is unavailable, by communicating using the short-range wireless transceiver the vehicle information request or command to the short-range wireless transceiver of the fob via the short-range communication link , the fob being configured to receive the vehicle information request or command and to relay the received vehicle information request or command to the vehicle via a medium-range RF communication . the nomadic device including a wireless network transceiver for communicating with a vehicle-installed telematics unit via a global network and a short-range wireless transceiver for communicating with a short-range wireless transceiver of the fob via a short-range communication link , wherein the nomadic device is configured, when the user initiates a command from the nomadic device, to first determine if network service of the global network is available, and if the network service is available, the nomadic device is further configured to initiate a network communication session to a network transceiver of the vehicle-installed telematics unit via the global network , and wherein the nomadic device includes control means configured to initiate a vehicle information request or command communication to the vehicle when the user uses the nomadic device , the nomadic device being configured to automatically select the short-range communication link when the global network is unavailable, by communicating using the short-range wireless transceiver the vehicle information request or command to the short-range wireless transceiver of the fob via the short-range communication link , the fob being configured to receive the vehicle information request or command and to relay the received vehicle information request or command to the vehicle via a medium-range RF communication .
A transmission device for transmitting a data stream, the transmission device comprising: an encoder configured to generate a plurality of coded blocks, each of the coded blocks being an N-bit sequence generated from a K-bit information bit sequence including a part of the data stream, where K and N are each an integer greater than or equal to 1; a bit interleaver configured to perform, for each of the coded blocks, permutation of bits therein; a bit adjuster configured to add an adjustment bit sequence to each of the permuted coded blocks to generate a plurality of bit-adjusted bit sequences; a mapper configured to modulate the plurality of bit-adjusted bit sequences by using a first modulation scheme selected from among a plurality of modulation schemes to generate a plurality of modulation symbols; and a transmitter configured to transmit a frame signal including the plurality of modulation symbols, wherein a modulation symbol of the first modulation scheme is generated from X bits, where X is an integer greater than or equal to 1 and N is not an integral multiple of X, and the adjustment bit sequence is a part of the coded blocks composed of L bits, where L is an integer and N + L is an integral multiple of X. an encoder configured to generate a plurality of coded blocks, each of the coded blocks being an N-bit sequence generated from a K-bit information bit sequence including a part of the data stream, where K and N are each an integer greater than or equal to 1; a bit interleaver configured to perform, for each of the coded blocks, permutation of bits therein; a bit adjuster configured to add an adjustment bit sequence to each of the permuted coded blocks to generate a plurality of bit-adjusted bit sequences; a mapper configured to modulate the plurality of bit-adjusted bit sequences by using a first modulation scheme selected from among a plurality of modulation schemes to generate a plurality of modulation symbols; and a transmitter configured to transmit a frame signal including the plurality of modulation symbols, wherein a modulation symbol of the first modulation scheme is generated from X bits, where X is an integer greater than or equal to 1 and N is not an integral multiple of X, and the adjustment bit sequence is a part of the coded blocks composed of L bits, where L is an integer and N + L is an integral multiple of X.
A method for producing a nucleic acid-based seasoning, comprising the following steps and : treating a ribonucleic acid-containing material with a ribonuclease to obtain a ribonucleotide-containing material; and treating the ribonucleotide-containing material with a nucleosidase. treating a ribonucleic acid-containing material with a ribonuclease to obtain a ribonucleotide-containing material; and treating the ribonucleotide-containing material with a nucleosidase.
Electrolytic cell , more particularly for use in a motor vehicle, for electrolytic decomposition liquid of water into gaseous hydrogen and oxygen , comprising an electrolyte tank in which an electrolyte is filled, comprising a cathode and an anode , which are each separately arranged in a cover , characterized in that the electrolyte tank is divided by a partition into two partial electrolyte tanks , a connection being provided in the bottom region, in that the two covers are each arranged in one of the partial electrolyte tanks , in that at least the cover with the cathode leads into an inverted gas syphon in the uppermost region of said cover, in that the electrolytic cell is provided with a control and regulation device for feeding of the electrolyte configured so that the outlet opening of which gas syphon is held in the electrolyte tank completely below the liquid level of the electrolyte, and in that the electrolyte tank has a separate gas outlet for each of the gases , which gas outlet is arranged at a vertical distance above the liquid level of the electrolyte .
A conveying device for use with a system which performs a first heat treatment on a conveyed object as a first heat treatment system and a system which performs a second heat treatment on the conveyed object on which the first heat treatment is performed by the first heat treatment system as a second heat treatment system, the device being provided with: plural conveying hooks that hold the conveyed object therebetween, conveying chains , each being provided with the conveying hooks, which drive so that the conveying hooks holding the circuit board therebetween are movable from the first heat treatment system to the second heat treatment system, and being characterized by : a pair of first frames that have a first sliding portion and guide the conveying chains slid by the first sliding portion along the first heat treatment system; a pair of second frames that have a second sliding portion that slides the conveying chains continuously transferred from the first sliding portion, are continuously provided to the first sliding portion and guide the conveying chains slid by the second sliding portion along the second heat treatment system; and an absorbing member that is provided between each of the first frames and each of the second frames and absorbs an expansion and contraction based on difference of any thermal expansion between the first and second frames and the conveying chains. plural conveying hooks that hold the conveyed object therebetween, conveying chains , each being provided with the conveying hooks, which drive so that the conveying hooks holding the circuit board therebetween are movable from the first heat treatment system to the second heat treatment system, and being characterized by : a pair of first frames that have a first sliding portion and guide the conveying chains slid by the first sliding portion along the first heat treatment system; a pair of second frames that have a second sliding portion that slides the conveying chains continuously transferred from the first sliding portion, are continuously provided to the first sliding portion and guide the conveying chains slid by the second sliding portion along the second heat treatment system; and an absorbing member that is provided between each of the first frames and each of the second frames and absorbs an expansion and contraction based on difference of any thermal expansion between the first and second frames and the conveying chains. a pair of first frames that have a first sliding portion and guide the conveying chains slid by the first sliding portion along the first heat treatment system; a pair of second frames that have a second sliding portion that slides the conveying chains continuously transferred from the first sliding portion, are continuously provided to the first sliding portion and guide the conveying chains slid by the second sliding portion along the second heat treatment system; and an absorbing member that is provided between each of the first frames and each of the second frames and absorbs an expansion and contraction based on difference of any thermal expansion between the first and second frames and the conveying chains.
Pergola awning with at least two guide rails at which several cross bars are movably supported and wherein between two cross bars is disposed in each case a flexible shading element , wherein at the cross bar which is frontmost in extension direction a driving means engages, by means of which the frontmost cross bar as tension profile can be moved in extension direction forwards or in retraction direction backwards along the guide rails and wherein the further cross bars are free-running, characterised in that the cross bars are releasably interconnected in a magnetic and/or mechanical manner.