mhurhangee/ep-ind-claims huggingface dataset:
An information transmission method, comprising: sending a message A, MsgA, of a 2-step random access procedure to a network device according to a mapping relationship between a preamble parameter and a physical uplink shared channel, PUSCH, parameter in the MsgA; wherein the preamble parameter comprises a preamble index and a physical random access channel, PRACH, time-frequency resource, characterized in that the PUSCH parameter comprises a PUSCH time-frequency resource and a PUSCH demodulation reference signal, DMRS; and further characterized in that the mapping relationship comprises at least one of: a first mapping relationship of the preamble index to the PUSCH time-frequency resource and the PUSCH DMRS; a second mapping relationship of the PRACH time-frequency resource to the PUSCH time-frequency resource and the PUSCH DMRS; wherein the mapping relationship comprises the first mapping relationship; and the first mapping relationship comprises: M preamble indexes are mapped to one PUSCH DMRS on one PUSCH time-frequency resource; wherein, M is a positive integer greater than 1. sending a message A, MsgA, of a 2-step random access procedure to a network device according to a mapping relationship between a preamble parameter and a physical uplink shared channel, PUSCH, parameter in the MsgA; wherein the preamble parameter comprises a preamble index and a physical random access channel, PRACH, time-frequency resource, characterized in that the PUSCH parameter comprises a PUSCH time-frequency resource and a PUSCH demodulation reference signal, DMRS; and further characterized in that the mapping relationship comprises at least one of: a first mapping relationship of the preamble index to the PUSCH time-frequency resource and the PUSCH DMRS; a second mapping relationship of the PRACH time-frequency resource to the PUSCH time-frequency resource and the PUSCH DMRS; wherein the mapping relationship comprises the first mapping relationship; and the first mapping relationship comprises: M preamble indexes are mapped to one PUSCH DMRS on one PUSCH time-frequency resource; wherein, M is a positive integer greater than 1. a first mapping relationship of the preamble index to the PUSCH time-frequency resource and the PUSCH DMRS; a second mapping relationship of the PRACH time-frequency resource to the PUSCH time-frequency resource and the PUSCH DMRS; wherein the mapping relationship comprises the first mapping relationship; and the first mapping relationship comprises: M preamble indexes are mapped to one PUSCH DMRS on one PUSCH time-frequency resource; wherein, M is a positive integer greater than 1. M preamble indexes are mapped to one PUSCH DMRS on one PUSCH time-frequency resource; wherein, M is a positive integer greater than 1.
A computer-implemented method comprising: identifying a first computing workload and a second computing workload associated with one or more users of a service provider network; obtaining historical data indicating a number of compute instances of a compute instance pool that were used to execute the first computing workload, the compute instance pool representing an amount of compute capacity available to computing workloads associated with the one or more users and including a fixed number of compute instances; generating, based on the historical data, a predicted number of compute instances to be used to execute the first computing workload at a future point in time; and decreasing a number of compute instances in the compute instance pool available for use by the second computing workload in advance of the future point in time based on the predicted number of compute instances to be used to execute the first computing workload at the future point in time, characterised in that the computer-implemented method further comprises determining an amount of warm-up time associated with the first computing workload based on historical data indicating how long it took for the first computing workload to become fully operational with a new compute instance, wherein a time at which the number of compute instances in the compute instance pool available for use by the second computing workload is decreased is determined in part by information indicating the amount of warm-up time associated with the first computing workload. identifying a first computing workload and a second computing workload associated with one or more users of a service provider network; obtaining historical data indicating a number of compute instances of a compute instance pool that were used to execute the first computing workload, the compute instance pool representing an amount of compute capacity available to computing workloads associated with the one or more users and including a fixed number of compute instances; generating, based on the historical data, a predicted number of compute instances to be used to execute the first computing workload at a future point in time; and decreasing a number of compute instances in the compute instance pool available for use by the second computing workload in advance of the future point in time based on the predicted number of compute instances to be used to execute the first computing workload at the future point in time, characterised in that the computer-implemented method further comprises determining an amount of warm-up time associated with the first computing workload based on historical data indicating how long it took for the first computing workload to become fully operational with a new compute instance, wherein a time at which the number of compute instances in the compute instance pool available for use by the second computing workload is decreased is determined in part by information indicating the amount of warm-up time associated with the first computing workload.
A rear pressure bulkhead for an aircraft configured to separate a pressurized area and a non-pressurized area, wherein the rear pressure bulkhead comprises: a dome-shaped structure (1.1), and a set of built-in extension components (1.2) distributed along the periphery of said dome-shaped structure (1.1), wherein the dome-shaped structure (1.1) comprises a ring-shaped attachment area (1.1.1) adapted to secure the dome-shaped structure (1.1) either to a circumferential frame of the aircraft or to another circumferential structure, and wherein the extension components (1.2) comprise attachment means (1.2.1) adapted to secure each extension component (1.2) to a longitudinal structure of the aircraft. a dome-shaped structure (1.1), and a set of built-in extension components (1.2) distributed along the periphery of said dome-shaped structure (1.1), wherein the dome-shaped structure (1.1) comprises a ring-shaped attachment area (1.1.1) adapted to secure the dome-shaped structure (1.1) either to a circumferential frame of the aircraft or to another circumferential structure, and wherein the extension components (1.2) comprise attachment means (1.2.1) adapted to secure each extension component (1.2) to a longitudinal structure of the aircraft. wherein the dome-shaped structure (1.1) comprises a ring-shaped attachment area (1.1.1) adapted to secure the dome-shaped structure (1.1) either to a circumferential frame of the aircraft or to another circumferential structure, and wherein the extension components (1.2) comprise attachment means (1.2.1) adapted to secure each extension component (1.2) to a longitudinal structure of the aircraft.
A transmission method for transmitting a data message to at least one electronic receiving device, the method being implemented by an electronic transmitting device, the transmitting device and the one or more receiving device(s) being linked via an avionics network on board an aircraft, at least one device from the transmitting device and the receiving device being an avionics device on board the aircraft, the method comprising: - the generation of a data message, the message comprising a message header and one or more data packet(s); and - the transmission of the generated message to the one or more receiving device(s); characterized in that each packet comprises one or more data cluster(s), each cluster containing an identifier field, a size field and a payload data field, and each cluster is adapted to include one or more other data cluster(s), the one or more other data cluster(s) then forming the payload data field of said cluster, and in that to each cluster is associated a single avionics functional domain, each avionics functional domain preferably corresponding to an ATA chapter or an ATA sub-chapter. - the generation of a data message, the message comprising a message header and one or more data packet(s); and - the transmission of the generated message to the one or more receiving device(s); characterized in that each packet comprises one or more data cluster(s), each cluster containing an identifier field, a size field and a payload data field, and each cluster is adapted to include one or more other data cluster(s), the one or more other data cluster(s) then forming the payload data field of said cluster, and in that to each cluster is associated a single avionics functional domain, each avionics functional domain preferably corresponding to an ATA chapter or an ATA sub-chapter.
A set-up method of a knitted fabric for knitting a set-up portion of a knitted fabric, using a flat knitting machine including at least a front and a back needle bed (FD, FU; BD, BU) between which stitches can be transferred, by split knitting of forming new stitches (a to h) following target stitches (A to H), which target stitches (A to H) are configuring a base course formed on either one of the front and back needle beds (FD, FU; BD, BU), on knitting needles of the one needle bed while transferring the target stitches (A to H) to knitting needles of the other needle bed, characterized in that: the knitting needles of the needle beds (FD, FU; BD, BU) are compound needles each including a needle main body and a slider with two blades, the target stitches (A to H) are transferred from the knitting needles of the other needle bed to the knitting needles of the one needle bed, and the new stitches (a to h) are transferred from the knitting needles of the one needle bed to the knitting needles of the other needle bed to interchange held positions of the target stitches (A to H) and the new stitches (a to h) in an opposing direction of the needle beds (FD, FU; BD, BU) from held positions at the beginning of formation, the target stitches (A to H) and the new stitches (a to h) with interchanged held positions forming the set-up portion. the knitting needles of the needle beds (FD, FU; BD, BU) are compound needles each including a needle main body and a slider with two blades, the target stitches (A to H) are transferred from the knitting needles of the other needle bed to the knitting needles of the one needle bed, and the new stitches (a to h) are transferred from the knitting needles of the one needle bed to the knitting needles of the other needle bed to interchange held positions of the target stitches (A to H) and the new stitches (a to h) in an opposing direction of the needle beds (FD, FU; BD, BU) from held positions at the beginning of formation, the target stitches (A to H) and the new stitches (a to h) with interchanged held positions forming the set-up portion.
An antiproliferative agent and at least one anti-CTLA-4 agent for use in the treatment of proliferative diseases, including cancer, which comprises administering to a mammal in need thereof a synergistically, therapeutically effective amount of 1) at least one anti-CTLA-4 agent and 2) an antiproliferative agent, wherein the antiproliferative agent is a compound of formula I: and wherein the anti-CTLA-4 agent is ipilimumab.
Method for determining notching parameters for a powerline communication signal - PLC signal - in a PLC system, wherein frequency ranges in the PLC signal are selectively omitted as a result of the notching and wherein the notching parameters are selected in such a manner that an interference of the PLC signal with a radio signal is substantially avoided, wherein at least for a range of the PLC signal a utility signal to interference power ratio - SIR - is formed, wherein, depending on the SIR, the signal strength of an interfering radio signal is evaluated, wherein, based on the evaluation, notching parameters are determined or adapted, wherein, based on the notching parameters, there are implemented notches, by means of which the PLC signal after activation of the notches in a range around the interfering radio signal has no significant signal portions and another interference of the PLC signal with the radio signal is prevented, and characterised in that, in order to determine the SIR, a PLC reception signal is used, wherein the PLC reception signal is received at a node of the PLC system, wherein the PLC signal which is received at a node in the access network is used as a PLC reception signal, whereby the notching parameters are centrally determined for a PLC network.
A processing equipment of excretory substances, comprising a sewage water tank unit, a cleanup processing unit, a suction motor unit, a water supply unit, and a return box unit in a device house box 12 connected to a napkin cup main body by a hose unit; wherein, in use, rinse solution is sent from a water supply pump in said water supply unit and is sprayed to the inside of a napkin cup main body, wherein, in use, the urinary organ and excretory substances are washed in the napkin cup main body, wherein, in use, sewage is vacuumed up by work wind of a suction motor closed and isolated inside said suction motor unit, wherein, in use, sewage is divided into excretory substances and rinse solution and housed them separately in said sewage water tank unit and, wherein, in use, only said work wind is cleaned up in the cleanup processing unit and returned to said napkin cup main body through the suction motor and return box unit by suction circulation tube; wherein said cleanup processing unit, the suction motor unit, the water supply unit, and the return box unit are made independent units and housed inside the device house box and also connected in order in a detachable manner; characterized in that, in use, said suction circulation tube is led to a cooling unit mounted outside said device house box from the discharge side of said suction motor, is cooled down by heat exchange with outer air inside the cooling unit, and then returned to said return box unit; and said sewage water tank unit is separated from said device house box, made a unit, and connected to said cleanup processing unit in a detachable manner.
Capsule for preparing dental or surgical material obtained by mixing components prior to use, comprising: a chamber provided with a plurality of compartments which are arranged concentrically and intended for that same number of said components that are to be mixed, at least one isolation wall (4, 10) for isolating the components from one another during storage and for allowing fluidic communication between the compartments during mixing, a drive rod one end of which allows removable attachment to a handpiece, for example in accordance with standard ISO 1797. a chamber provided with a plurality of compartments which are arranged concentrically and intended for that same number of said components that are to be mixed, at least one isolation wall (4, 10) for isolating the components from one another during storage and for allowing fluidic communication between the compartments during mixing, a drive rod one end of which allows removable attachment to a handpiece, for example in accordance with standard ISO 1797.
Support head (16, 16a-f) for a ceiling support for a ceiling formwork, wherein the support head (16, 16a-f) comprises the following: a) a connecting area in which the support head (16, 16a-f) is connectable to a formwork support or is connected to the formwork support; b) a support plane for supporting a formwork element of the ceiling formwork and/or a beam of the ceiling formwork, wherein the support plane is designed in the form of a surface of a support plate; c) guide tabs (26a-d, 30a-d) that protrude away from the connecting area, the guide tabs (26a-d, 30a-d) having a design that opens outwardly from the connecting area, characterized in first guide tabs (26a-d) on a first side of the support head (16, 16a-f) have a design, that starting from the connecting area in the radial direction is more widely opened, i.e. spread farther apart, than second guide tabs (30a-d) on a second side of the support head (16, 16a-f) situated opposite from the first side, wherein the first guide tabs (26a-d) and the second guide tabs (30a-d) form lateral guides of insertion openings of the support plane for the formwork element to be suspended in the guide tabs (26a-d, 30a-d) and subsequently swiveled out from the floor. a) a connecting area in which the support head (16, 16a-f) is connectable to a formwork support or is connected to the formwork support; b) a support plane for supporting a formwork element of the ceiling formwork and/or a beam of the ceiling formwork, wherein the support plane is designed in the form of a surface of a support plate; c) guide tabs (26a-d, 30a-d) that protrude away from the connecting area, the guide tabs (26a-d, 30a-d) having a design that opens outwardly from the connecting area,
A process for recovering energy from a petroleum, petrochemical, or chemical process comprising: providing a fluid process stream in a petroleum, petrochemical, or chemical process zone having a direct current power input; controlling a flow rate of the process stream by directing at least a portion of the process stream through a first power-recovery turbine to generate electric power as direct current therefrom; providing the recovered direct current to the direct current power input of the petroleum, petrochemical, or chemical process zone receiving information from a plurality of pressure reducing devices, the plurality of pressure reducing devices comprising: the first power-recovery turbine, a control valve, or both; determining a power loss value or a power generated value for each of the pressure reducing devices; determining a total power loss value or a total power generated value based upon the power loss values or the power generated values from each of the pressure reducing devices; and, displaying the total power loss value or the total power generated value on at least one display screen. providing a fluid process stream in a petroleum, petrochemical, or chemical process zone having a direct current power input; controlling a flow rate of the process stream by directing at least a portion of the process stream through a first power-recovery turbine to generate electric power as direct current therefrom; providing the recovered direct current to the direct current power input of the petroleum, petrochemical, or chemical process zone receiving information from a plurality of pressure reducing devices, the plurality of pressure reducing devices comprising: the first power-recovery turbine, a control valve, or both; determining a power loss value or a power generated value for each of the pressure reducing devices; determining a total power loss value or a total power generated value based upon the power loss values or the power generated values from each of the pressure reducing devices; and, displaying the total power loss value or the total power generated value on at least one display screen.
A method at a first network function repository node, comprising: sending a first service discovery request including forward information indicating that the first service discovery request has been processed by one or more network function repository nodes to a second network function repository node, wherein the forward information includes a forward indicator indicating that the first service discovery request has been forwarded before and/or a visited network function repository node list and/or a number of network function repository nodes that have been visited to serve the first service discovery request, and wherein the forward information further includes a maximum number of network function repository nodes that can be visited to serve the first service discovery request; and receiving a first service discovery response from the second network function repository node. sending a first service discovery request including forward information indicating that the first service discovery request has been processed by one or more network function repository nodes to a second network function repository node, wherein the forward information includes a forward indicator indicating that the first service discovery request has been forwarded before and/or a visited network function repository node list and/or a number of network function repository nodes that have been visited to serve the first service discovery request, and wherein the forward information further includes a maximum number of network function repository nodes that can be visited to serve the first service discovery request; and receiving a first service discovery response from the second network function repository node.
Household appliance, particularly laundry washing machine or dishwashing machine, comprising a user interface and means (18, 20, 22) for the identification of an authorized user, able to capture automatically data stored on a remotely accessible data media worn or carried by the authorized user, whereby said user interface is driven in a working condition according to which the appliance can be used by said authorized user, only when said remotely accessible data media is within a predetermined distance from the appliance.
A water-in-oil emulsion having an oil phase and an aqueous phase at an O/A ratio of from 1:8 to 10:1; wherein the water-in-oil emulsion includes the oil phase as a continuous phase comprising an inert hydrophobic liquid, and the aqueous phase as a dispersed phase of distinct particles in the oil phase comprising water, a water soluble polymer, and at least one surfactant; wherein the water soluble polymer comprises from 1 to 60 weight percent of one or more cationic monomers, wherein the amount is by total weight of the water soluble polymer; wherein the water soluble polymer is present in an amount from 5 to 25 weight percent of the water-in-oil emulsion; and wherein the cationic monomer is selected from the group consisting of (meth)acrylamidopropyltrimethyl ammonium halides, (meth)acryloyloxyethyltrimethyl ammonium halides, (meth)acryloyloxyethyltrimethyl ammonium methyl sulfate, diallyl dimethyl ammonium halides, diallylamine, methyldiallylamine, dimethylaminoethylmethacrylate, and dimethylaminopropylmethacrylamide. wherein the water-in-oil emulsion includes the oil phase as a continuous phase comprising an inert hydrophobic liquid, and the aqueous phase as a dispersed phase of distinct particles in the oil phase comprising water, a water soluble polymer, and at least one surfactant; wherein the water soluble polymer comprises from 1 to 60 weight percent of one or more cationic monomers, wherein the amount is by total weight of the water soluble polymer; wherein the water soluble polymer is present in an amount from 5 to 25 weight percent of the water-in-oil emulsion; and wherein the cationic monomer is selected from the group consisting of (meth)acrylamidopropyltrimethyl ammonium halides, (meth)acryloyloxyethyltrimethyl ammonium halides, (meth)acryloyloxyethyltrimethyl ammonium methyl sulfate, diallyl dimethyl ammonium halides, diallylamine, methyldiallylamine, dimethylaminoethylmethacrylate, and dimethylaminopropylmethacrylamide.