mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method, comprising: obtaining , by a network node from a user equipment, UE, a fixed part of an Internet protocol, IP, header which is bound to the UE, wherein the network node comprises a mobility management entity or a packet data network gateway; establishing , by the network node, an IP header replacement mapping according to the fixed part of the IP header, wherein the IP header replacement mapping is correspondence between the fixed part of the IP header and an index; performing , by the network node, data transmission with the UE according to the IP header replacement mapping. obtaining , by a network node from a user equipment, UE, a fixed part of an Internet protocol, IP, header which is bound to the UE, wherein the network node comprises a mobility management entity or a packet data network gateway; establishing , by the network node, an IP header replacement mapping according to the fixed part of the IP header, wherein the IP header replacement mapping is correspondence between the fixed part of the IP header and an index; performing , by the network node, data transmission with the UE according to the IP header replacement mapping.
A process for permanently perfuming soapnut shells and improving their cleaning efficiency, characterized in that a mixture of effective organisms (EM) containing photosynthetic and lactic acid bacteria, yeast, actinomycetes, and various fungi and natural-identical perfume materials is added to soapnut shells placed in a sealable container, with constant mixing, after adding the EM-perfume material mixture the mixing is stopped, then the container is hermetically sealed and allowed to stand for at least 28 days at room temperature.
A method for a first network element to establish a session layer connection over a TCP/IP based network with a second network element, the method comprising: receiving a request from an application layer (417 1 ) of the first network element (210 1 ) to listen for a session layer connection request, wherein the first network element is identified by a first endpoint identifier, EID, (201 1 ); instructing a transport layer of the first network element to listen for a request for a new transport layer connection; receiving a first transport layer connection request from the second network element (210 2 ), wherein the transport layer connection request comprises a first internet protocol, IP, address and wherein the second network element is identified by a second EID (201 2 ); establishing a first transport layer connection with the second network element; receiving a first session layer connection request from the second network element, wherein the first session layer connection request comprises a session identifier, ID, and the second EID; and establishing a session layer connection over the TCP/IP based network with the second network element. receiving a request from an application layer (417 1 ) of the first network element (210 1 ) to listen for a session layer connection request, wherein the first network element is identified by a first endpoint identifier, EID, (201 1 ); instructing a transport layer of the first network element to listen for a request for a new transport layer connection; receiving a first transport layer connection request from the second network element (210 2 ), wherein the transport layer connection request comprises a first internet protocol, IP, address and wherein the second network element is identified by a second EID (201 2 ); establishing a first transport layer connection with the second network element; receiving a first session layer connection request from the second network element, wherein the first session layer connection request comprises a session identifier, ID, and the second EID; and establishing a session layer connection over the TCP/IP based network with the second network element.
A User Equipment, UE , comprising: a processor ; memory in electronic communication with the processor; instructions stored in the memory, the instructions being executable to: receive a radio resource control, RRC, message including a configuration to indicate a primary secondary cell, PSCell, for a second group among multiple groups, each of which is constituted by one or more serving cells; wherein a cell configured with a physical uplink control channel, PUCCH, which is included in a first group of the multiple groups is a primary cell, PCell, and a cell configured with a PUCCH, which is included in the second group of the multiple groups is the PSCell, and wherein one or more hybrid automatic repeat request acknowledgements, HARQ-ACKs, for the first group are mapped to the PUCCH on the PCell and one or more hybrid automatic repeat request acknowledgements, HARQ-ACKs, for the second group are mapped to the PUCCH on the PSCell. a processor ; memory in electronic communication with the processor; instructions stored in the memory, the instructions being executable to: receive a radio resource control, RRC, message including a configuration to indicate a primary secondary cell, PSCell, for a second group among multiple groups, each of which is constituted by one or more serving cells; wherein a cell configured with a physical uplink control channel, PUCCH, which is included in a first group of the multiple groups is a primary cell, PCell, and a cell configured with a PUCCH, which is included in the second group of the multiple groups is the PSCell, and wherein one or more hybrid automatic repeat request acknowledgements, HARQ-ACKs, for the first group are mapped to the PUCCH on the PCell and one or more hybrid automatic repeat request acknowledgements, HARQ-ACKs, for the second group are mapped to the PUCCH on the PSCell. receive a radio resource control, RRC, message including a configuration to indicate a primary secondary cell, PSCell, for a second group among multiple groups, each of which is constituted by one or more serving cells; wherein a cell configured with a physical uplink control channel, PUCCH, which is included in a first group of the multiple groups is a primary cell, PCell, and a cell configured with a PUCCH, which is included in the second group of the multiple groups is the PSCell, and wherein one or more hybrid automatic repeat request acknowledgements, HARQ-ACKs, for the first group are mapped to the PUCCH on the PCell and one or more hybrid automatic repeat request acknowledgements, HARQ-ACKs, for the second group are mapped to the PUCCH on the PSCell.
Use of (i) the mRNA encoding IL-12Rbeta 1, IL-23R or CCR6, or the corresponding protein, and (ii) the mRNA encoding at least one marker selected from IL-6, IL-17A, IL-17F, IL-21, IL-22, IL-26, TNF alpha and CCL20, or the corresponding protein, as markers for acne.
A provision method for a subscriber profile to a terminal comprising a secure module intended to host the subscriber profile to a mobile communication network and an operating environment of the terminal , characterized in that it comprises the following successive steps executed by the terminal : - receiving a provision request from a remote server comprising at least the subscriber profile and parameters of the terminal associated with the profile , - loading the subscriber profile in the secure module , - after said loading, receiving a notification of the loading of the subscriber profile from the secure module and sending a notification informing the remote server of said loading, - receiving an activation request of said profile from said remote server , - receiving a first notification of the activation of the profile in the secure module from the secure module , - configuring the operating environment with the parameters of the terminal triggered by the first notification . - receiving a provision request from a remote server comprising at least the subscriber profile and parameters of the terminal associated with the profile , - loading the subscriber profile in the secure module , - after said loading, receiving a notification of the loading of the subscriber profile from the secure module and sending a notification informing the remote server of said loading, - receiving an activation request of said profile from said remote server , - receiving a first notification of the activation of the profile in the secure module from the secure module , - configuring the operating environment with the parameters of the terminal triggered by the first notification .
A method of testing tire performance using a wheel , the method comprising the steps of: providing a single wheel configured to rotate, the wheel having a tire operating surface arranged along an outer annular side of the wheel and configured to engage a tire during operation, engaging forcefully a tread of a tire against the tire operating surface of the wheel ; and, rotating the tire and the wheel while engaged according to the prior step for a duration to evaluate the tire ; characterised in that the tire operating surface has a width extending laterally relative a circumferential direction of the wheel and along a non-linear path and includes a convex portion wherein the tire operating surface is symmetrical relative a plane bisecting the width of the tire operating surface and extending radially outward and normal to the rotational axis of the wheel and where the non-linear path defines the convex portion arranged between a pair of counter-curvature portions in an axial direction of the wheel , a pair of counter-curvature portions forming a concave side of the wheel . providing a single wheel configured to rotate, the wheel having a tire operating surface arranged along an outer annular side of the wheel and configured to engage a tire during operation, engaging forcefully a tread of a tire against the tire operating surface of the wheel ; and, rotating the tire and the wheel while engaged according to the prior step for a duration to evaluate the tire ; characterised in that the tire operating surface has a width extending laterally relative a circumferential direction of the wheel and along a non-linear path and includes a convex portion wherein the tire operating surface is symmetrical relative a plane bisecting the width of the tire operating surface and extending radially outward and normal to the rotational axis of the wheel and where the non-linear path defines the convex portion arranged between a pair of counter-curvature portions in an axial direction of the wheel , a pair of counter-curvature portions forming a concave side of the wheel .
An anesthetic evaporator , comprising a housing , an anesthetic agent storage tank , and a cover that is movably connected with the housing , the anesthetic agent storage tank being provided with an anesthetic agent adding barrel arranged corresponding to the cover , wherein the anesthetic evaporator further comprises a mechanical pressure relief assembly ; the mechanical pressure relief assembly is connected with the anesthetic agent storage tank , and the mechanical pressure relief assembly is provided with a first state in which a pressure within the anesthetic agent storage tank is maintained and a second state in which a pressure within the anesthetic agent storage tank is released; characterized in that the anesthetic evaporator further comprises a linkage mechanism ; when adding an anesthetic agent, an operation action on the cover of the anesthetic evaporator drives the linkage mechanism when a first end of the linkage mechanism is connected with the cover ; and the linkage mechanism drives the mechanical pressure relief assembly to be switched from the first state to the second state.
Method for treating a Yankee cylinder, where the Yankee cylinder has a cylinder shell made of steel with a ferritic-pearlitic structure, where the outer surface of the cylinder shell is heat-treated with a laser beam and thus hardened, characterized in that the surface is heated by the laser beam to a temperature between 800°C and 900°C and cooling of the austenitic layer remains below the lower critical cooling speed so that the formation of martensite is prevented, where the ferritic-pearlitic structure is largely retained.
A sampling device for underwater environments, comprising: a first section that includes a support surface for supporting one or more sampling components that collect samples from a landing surface; a second section coupled to the first section and separated from the first section by the support surface, the second section including a hollow portion ; a pump in fluid communication with the hollow portion and configured to i) pump fluid from the hollow portion to an external environment to create a suction force to assist with anchoring the second section to the landing surface, and ii) pump fluid from the external environment to the hollow portion to assist with releasing the second section from the landing surface; a first sampling tool that is guidable along a first sampling path to penetrate the landing surface; characterized by a second sampling tool that is guidable along a second sampling path to penetrate the landing surface; and a first device that selects either the first sampling tool or the second sampling tool for penetration into the landing surface. a first section that includes a support surface for supporting one or more sampling components that collect samples from a landing surface; a second section coupled to the first section and separated from the first section by the support surface, the second section including a hollow portion ; a pump in fluid communication with the hollow portion and configured to i) pump fluid from the hollow portion to an external environment to create a suction force to assist with anchoring the second section to the landing surface, and ii) pump fluid from the external environment to the hollow portion to assist with releasing the second section from the landing surface; a first sampling tool that is guidable along a first sampling path to penetrate the landing surface; characterized by a second sampling tool that is guidable along a second sampling path to penetrate the landing surface; and a first device that selects either the first sampling tool or the second sampling tool for penetration into the landing surface.
A computer implemented method of analyzing a sample imaged by electron backscatter diffraction, the method comprising: identifying a plurality of Kikuchi bands in an electron backscatter diffraction image of a position on the sample; the method being characterized in that it comprises: forming , for each identified Kikuchi band, a respective vector representation of said Kikuchi band based at least in part on an estimate of the position on the sample; determining a configuration of the sample by identifying a particular set of expected vector representations from a plurality of sets of expected vector representations as matching the vector representations of the plurality of identified Kikuchi bands. identifying a plurality of Kikuchi bands in an electron backscatter diffraction image of a position on the sample; the method being characterized in that it comprises: forming , for each identified Kikuchi band, a respective vector representation of said Kikuchi band based at least in part on an estimate of the position on the sample; determining a configuration of the sample by identifying a particular set of expected vector representations from a plurality of sets of expected vector representations as matching the vector representations of the plurality of identified Kikuchi bands. forming , for each identified Kikuchi band, a respective vector representation of said Kikuchi band based at least in part on an estimate of the position on the sample; determining a configuration of the sample by identifying a particular set of expected vector representations from a plurality of sets of expected vector representations as matching the vector representations of the plurality of identified Kikuchi bands.
A terminal apparatus for receiving a physical downlink control channel, PDCCH, in new radio, NR, system, the terminal apparatus comprising: a radio resource control layer processing unit configured to configure a control resource set based on radio resource control, RRC, signaling; a receiver configured to monitor a plurality of PDCCH candidates in the control resource set; and a decoding unit configured to decode a PDCCH candidate of the plurality of PDCCH candidates, characterized by , the control resource set is configured for one or more listen-before-talk, LBT, subband in a bandwidth part, BWP. a radio resource control layer processing unit configured to configure a control resource set based on radio resource control, RRC, signaling; a receiver configured to monitor a plurality of PDCCH candidates in the control resource set; and a decoding unit configured to decode a PDCCH candidate of the plurality of PDCCH candidates, characterized by , the control resource set is configured for one or more listen-before-talk, LBT, subband in a bandwidth part, BWP.
A method for diagnosing the operation of a string of photovoltaic modules comprising at least one photovoltaic module, the method comprising an acquisition of a series of current and voltage measurements measured during a monitoring period, forming a curve of current as a function of voltage, called the I(V) curve, the method being characterised in that it comprises the steps, implemented by a computing processor, of: - transforming into polar coordinates, each pair of current and voltage values of the I(V) curve being transformed into a corresponding radius-angle pair, - calculating parameters of a first electrical model approximating said I(V) curve, and a first cost representative of a deviation between said first model and said I(V) curve, by implementing a distance metric in polar coordinate space, - calculating parameters of a second electrical model approximating said I(V) curve, and a second cost representative of a deviation between said second model and said I(V) curve, by implementing a distance metric in polar coordinate space, - selecting an electrical model for estimating the I(V) curve from said first electrical approximation model and second electrical approximation model according to the first and second costs, - diagnosing operation as a function of the value of at least one parameter of the selected electrical estimation model. - transforming into polar coordinates, each pair of current and voltage values of the I(V) curve being transformed into a corresponding radius-angle pair, - calculating parameters of a first electrical model approximating said I(V) curve, and a first cost representative of a deviation between said first model and said I(V) curve, by implementing a distance metric in polar coordinate space, - calculating parameters of a second electrical model approximating said I(V) curve, and a second cost representative of a deviation between said second model and said I(V) curve, by implementing a distance metric in polar coordinate space, - selecting an electrical model for estimating the I(V) curve from said first electrical approximation model and second electrical approximation model according to the first and second costs, - diagnosing operation as a function of the value of at least one parameter of the selected electrical estimation model.
A method of manufacturing an optoelectronic device comprising an array of axial diodes , each diode forming a resonant cavity having a standing electromagnetic wave forming therein, the active area of each diode being located substantially at the level of an extremum of the electromagnetic wave, the array forming a photonic crystal configured to maximize the intensity of the electromagnetic radiation supplied by the diode array, wherein the forming of the diodes of the array comprises: forming first semiconductor regions on a substrate , the first regions being separated from one another by the pitch of the array; forming an active area on each first region ; and forming a second semiconductor region on each active area , the method comprising, before the formation of the active areas , a first step of etching all the first regions so that they have the height enabling the active area to be located at the level of an extremum of the electromagnetic wave. forming first semiconductor regions on a substrate , the first regions being separated from one another by the pitch of the array; forming an active area on each first region ; and forming a second semiconductor region on each active area ,
A computer-implemented method for information protection, comprising: committing a transaction amount t of a transaction with a commitment scheme to obtain a transaction commitment value T, the commitment scheme comprising at least a transaction blinding factor r_t; encrypting a combination of the transaction blinding factor r_t and the transaction amount t with a public key PK_B of a recipient of the transaction; transmitting the transaction commitment value T and the encrypted combination to a recipient node associated with the recipient for the recipient node to verify the transaction; receiving a recipient signature SIGB representing that the recipient node has approved the transaction by signing the transaction with a private key SK_B of the recipient; approving the transaction by signing the transaction with a private key SK_A of the sender to generate a sender signature SIGA; and submitting the transaction approved by the sender and the recipient to one or more nodes in a blockchain network for the one or more nodes to verify the transaction through consensus verification, the transaction approved by the sender and the recipient comprising the encrypted combination, the transaction commitment value T, the sender signature SIGA, and the recipient signature SIGB. committing a transaction amount t of a transaction with a commitment scheme to obtain a transaction commitment value T, the commitment scheme comprising at least a transaction blinding factor r_t; encrypting a combination of the transaction blinding factor r_t and the transaction amount t with a public key PK_B of a recipient of the transaction; transmitting the transaction commitment value T and the encrypted combination to a recipient node associated with the recipient for the recipient node to verify the transaction; receiving a recipient signature SIGB representing that the recipient node has approved the transaction by signing the transaction with a private key SK_B of the recipient; approving the transaction by signing the transaction with a private key SK_A of the sender to generate a sender signature SIGA; and submitting the transaction approved by the sender and the recipient to one or more nodes in a blockchain network for the one or more nodes to verify the transaction through consensus verification, the transaction approved by the sender and the recipient comprising the encrypted combination, the transaction commitment value T, the sender signature SIGA, and the recipient signature SIGB.