mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a storage volume ; a processor comprising a translation lookaside buffer, TLB, ; a field populator module to populate mapping fields and respective operation fields in the TLB , wherein operation fields are populated based on processes, running on the processor , corresponding to the respective mapping fields , wherein operation fields are populated based on access rights of the processes for accessing the storage volume and functions related to data in the storage volume; a media controller , communicatively coupled to the storage volume and the processor , to control access to and perform functions related to data in the storage volume ; and a field content transmitter module to, in response to a storage volume access request generated by one of the processes: identify, based on contents of one of the mapping fields that matches the storage volume access request, a memory address corresponding to a memory location in the storage volume ; and transmit, to the media controller , a translated address based on the identified memory address, and contents of the respective operation field . a storage volume ; a processor comprising a translation lookaside buffer, TLB, ; a field populator module to populate mapping fields and respective operation fields in the TLB , wherein operation fields are populated based on processes, running on the processor , corresponding to the respective mapping fields , wherein operation fields are populated based on access rights of the processes for accessing the storage volume and functions related to data in the storage volume; a media controller , communicatively coupled to the storage volume and the processor , to control access to and perform functions related to data in the storage volume ; and a field content transmitter module to, in response to a storage volume access request generated by one of the processes: identify, based on contents of one of the mapping fields that matches the storage volume access request, a memory address corresponding to a memory location in the storage volume ; and transmit, to the media controller , a translated address based on the identified memory address, and contents of the respective operation field . identify, based on contents of one of the mapping fields that matches the storage volume access request, a memory address corresponding to a memory location in the storage volume ; and transmit, to the media controller , a translated address based on the identified memory address, and contents of the respective operation field .
A method of bioassay for the quantification of peptide fragments of C-reactive protein (CRP) comprising an N-terminal neo-epitope amino acid sequence KAFVFP, said method comprising contacting a sample comprising said peptide fragments with a monoclonal antibody or fragment thereof having specific binding affinity for said N-terminal neo-epitope amino acid sequence KAFVFP, and determining the level of binding of said monoclonal antibody or fragment thereof to peptide fragments in said sample.
A method for the production of a packaging material comprising a substrate and a gas barrier layer based on polyvinyl alcohol (PVOH), said method comprising the steps of - applying a coating composition of said PVOH dissolved in a first solvent onto said substrate to form a coating - subjecting the coating to a first drying step to form a dried PVOH-based coating on said substrate, - contacting the dried PVOH-based coating with a crosslinking solution comprising a crosslinking agent in a second solvent, to effect crosslinking of the PVOH-based coating, and - subsequent to the contact with the crosslinking solution, subjecting the PVOH-based coating to a second drying step, forming the PVOH-based barrier layer on said substrate, with the proviso that if the crosslinking solution comprises PVOH, the amount of PVOH added by the crosslinking solution is less than 20% (by weight) of the amount of PVOH added by the coating composition. - applying a coating composition of said PVOH dissolved in a first solvent onto said substrate to form a coating - subjecting the coating to a first drying step to form a dried PVOH-based coating on said substrate, - contacting the dried PVOH-based coating with a crosslinking solution comprising a crosslinking agent in a second solvent, to effect crosslinking of the PVOH-based coating, and - subsequent to the contact with the crosslinking solution, subjecting the PVOH-based coating to a second drying step, forming the PVOH-based barrier layer on said substrate,
A computer implemented method for transceiving clinical trial related information between a client device operable by a plurality of users and a server apparatus , the client device and the server apparatus configured to communicate via a data network , a proprietary application of the client device comprising a client application of a clinical trial service whose server application is running on the server apparatus , wherein a coordinator user profile associated with coordinator credentials and a subject user profile associated with subject credentials are maintained by the server application at the server apparatus , the method comprising: receiving the coordinator credentials via a user interface by the proprietary application , accepting the coordinator credentials in response to determining the coordinator credentials being authorized credentials, and logging in the coordinator user by providing coordinator level access to the proprietary application ; receiving, by the proprietary application , coordinator input data configured to trigger user change for the client device ; generating and sending, in response to the coordinator input data, a request by the proprietary application to the server application indicating the triggered user change; receiving, by the proprietary application , subject credentials from the server application , wherein the subject credentials are associated with the subject user profile generated by the server application ; logging out the coordinator user by disconnecting coordinator level access to the proprietary application and resetting the coordinator credentials and session data within the client device ; and storing the subject credentials by the proprietary application for automatic first logging in of the subject user. receiving the coordinator credentials via a user interface by the proprietary application , accepting the coordinator credentials in response to determining the coordinator credentials being authorized credentials, and logging in the coordinator user by providing coordinator level access to the proprietary application ; receiving, by the proprietary application , coordinator input data configured to trigger user change for the client device ; generating and sending, in response to the coordinator input data, a request by the proprietary application to the server application indicating the triggered user change; receiving, by the proprietary application , subject credentials from the server application , wherein the subject credentials are associated with the subject user profile generated by the server application ; logging out the coordinator user by disconnecting coordinator level access to the proprietary application and resetting the coordinator credentials and session data within the client device ; and storing the subject credentials by the proprietary application for automatic first logging in of the subject user.
A method for navigating an agricultural working machine , characterized in that - the agricultural working machine provides an optical pattern with navigation information, and - a mobile navigation device detects the optical pattern and determines the navigation information from the detected optical pattern and initiates a navigation routine for route guidance based on this navigation information. - the agricultural working machine provides an optical pattern with navigation information, and - a mobile navigation device detects the optical pattern and determines the navigation information from the detected optical pattern and initiates a navigation routine for route guidance based on this navigation information.
A display device comprising: a flexible display panel ; a rolling driver comprising: a rolling shaft connected to one end of the flexible display panel ; and a rotation motor which is configured to rotate the rolling shaft ; a housing which receives the flexible display panel in a rolled state, wherein a first opening is defined in the housing for unrolling and rolling the flexible display panel; a rolling stopper coupled to another end of the flexible display panel, which is opposite to the one end; and a rolling controller which is configured to control the rolling driver such that the rotation motor rotates in a clockwise direction or a counterclockwise direction, wherein the rolling controller is configured to rotate the rotating motor in a direction opposite to a rotating direction of the rotation motor for a previous rolling operation to unroll the flexible display panel, and wherein the rolling controller is configured to rotate the rotating motor in a same direction as a rotating direction of the rotation motor for a previous unrolling operation to roll the flexible display panel, wherein the display device further comprises a sensor unit configured to sense the completion of rolling the flexible display panel and to transmit a rolling completion signal to the rolling controller, and wherein the rolling controller is further configured to generate and store first rotation change data for changing the rotation direction of the rotation motor for unrolling and rolling of the flexible display panel . a flexible display panel ; a rolling driver comprising: a rolling shaft connected to one end of the flexible display panel ; and a rotation motor which is configured to rotate the rolling shaft ; a rolling shaft connected to one end of the flexible display panel ; and a rotation motor which is configured to rotate the rolling shaft ; a housing which receives the flexible display panel in a rolled state, wherein a first opening is defined in the housing for unrolling and rolling the flexible display panel; a rolling stopper coupled to another end of the flexible display panel, which is opposite to the one end; and a rolling controller which is configured to control the rolling driver such that the rotation motor rotates in a clockwise direction or a counterclockwise direction, wherein the rolling controller is configured to rotate the rotating motor in a direction opposite to a rotating direction of the rotation motor for a previous rolling operation to unroll the flexible display panel, and wherein the rolling controller is configured to rotate the rotating motor in a same direction as a rotating direction of the rotation motor for a previous unrolling operation to roll the flexible display panel, wherein the display device further comprises a sensor unit configured to sense the completion of rolling the flexible display panel and to transmit a rolling completion signal to the rolling controller,
An air conditioning system, comprising: a plurality of indoor units ; one or more outdoor units to drive the indoor units , the one or more outdoor units coupled to the indoor units through refrigerant pipes that include one or more branch points ; and a calculator to calculate an amount of filling refrigerant based on capacities of the indoor units and the one or more outdoor units and lengths of the refrigerant pipes ; a length detector to detect a length of one or more of the refrigerant pipes based on strength of a received length detection signal received by at least one of the outdoor unit or the indoor units , following emission of a transmitted length detection signal in said refrigerant pipes ; characterized in that said calculator is adapted to generate an equivalent circuit based on said received length detection signal and a received signal received by the outdoor units or the indoor units , said equivalent circuit having nodes connected by impedances, wherein each branch point of the air conditioning system corresponds to a node and the refrigerant pipes correspond to impedances, said calculator being adapted to calculate an impedance of said equivalent circuit and then to calculate said refrigerant pipe length by dividing said impedance of said equivalent circuit by an impedance per unitary length, wherein said length detector includes a conversion module configured to convert the received signal into a digital signal, and a calculation module configured to calculate a length of the refrigerant pipe based on the digital signal. a plurality of indoor units ; one or more outdoor units to drive the indoor units , the one or more outdoor units coupled to the indoor units through refrigerant pipes that include one or more branch points ; and a calculator to calculate an amount of filling refrigerant based on capacities of the indoor units and the one or more outdoor units and lengths of the refrigerant pipes ; a length detector to detect a length of one or more of the refrigerant pipes based on strength of a received length detection signal received by at least one of the outdoor unit or the indoor units , following emission of a transmitted length detection signal in said refrigerant pipes ; characterized in that said calculator is adapted to generate an equivalent circuit based on said received length detection signal and a received signal received by the outdoor units or the indoor units , said equivalent circuit having nodes connected by impedances, wherein each branch point of the air conditioning system corresponds to a node and the refrigerant pipes correspond to impedances, said calculator being adapted to calculate an impedance of said equivalent circuit and then to calculate said refrigerant pipe length by dividing said impedance of said equivalent circuit by an impedance per unitary length, wherein said length detector includes a conversion module configured to convert the received signal into a digital signal, and a calculation module configured to calculate a length of the refrigerant pipe based on the digital signal.
Apparatus (100; 300; 400; 800; 900) for processing an audio signal , comprising: an audio signal analyzer (130; 830; 930) for analyzing an audio signal to determine a plurality of noise suppression filter values (260; 364, 364a-c,) for a plurality of bands of the audio signal (215; 354), wherein the analyzer is configured to determine the noise suppression filter values so that a noise suppression filter value is greater than or equal to a minimum noise suppression filter value (130b'; 240; 358c, 360a), and so that the minimum noise suppression filter value depends on a characteristic of the audio signal ; and a filter (120; 310; 410; 820) for filtering the audio signal, wherein the filter is adjusted based on the noise suppression filter values, wherein the audio signal analyzer is configured to calculate a gain value from a frame of the audio signal as the characteristic of the audio signal, and wherein the audio signal analyzer is configured to calculate the minimum noise suppression filter value so that the minimum noise suppression filter value decreases with an increasing gain value. an audio signal analyzer (130; 830; 930) for analyzing an audio signal to determine a plurality of noise suppression filter values (260; 364, 364a-c,) for a plurality of bands of the audio signal (215; 354), wherein the analyzer is configured to determine the noise suppression filter values so that a noise suppression filter value is greater than or equal to a minimum noise suppression filter value (130b'; 240; 358c, 360a), and so that the minimum noise suppression filter value depends on a characteristic of the audio signal ; and a filter (120; 310; 410; 820) for filtering the audio signal, wherein the filter is adjusted based on the noise suppression filter values, wherein the audio signal analyzer is configured to calculate a gain value from a frame of the audio signal as the characteristic of the audio signal, and wherein the audio signal analyzer is configured to calculate the minimum noise suppression filter value so that the minimum noise suppression filter value decreases with an increasing gain value.
A method for implementing a trunk service based on Long Term Evolution, LTE, characterized by comprising: setting up a Trunk Paging Channel, TPCH (S101); after a first terminal initiates a group call, a network side correspondingly setting up a Trunk Group Control Channel, TGCCH, and a Trunk Group Traffic Channel, TGTCH, and issuing configuration information of the TGTCH through the TGCCH (S102); a second terminal monitoring and finding a group call message of the first terminal through the TPCH, and monitoring the TGCCH to obtain the configuration information (S103); and the second terminal setting up a local TGTCH bearer based on the configuration information to monitor the TGTCH (S104); wherein, the first terminal and the second terminal are trunk user terminals; wherein, when the second terminal is in a cell where the first terminal is located, the second terminal obtains a scrambling code when the second terminal monitors and finding the group call message of the first terminal through the TPCH, to monitor the TGCCH so as to obtain the configuration information; wherein, when the second terminal is in a cell outside a cell where the first terminal is located, after the second terminal monitors and finds the group call message of the first terminal through the TPCH, the second terminal responds to the group call message to obtain a scrambling code, so as to monitor the TGCCH to obtain the configuration information. setting up a Trunk Paging Channel, TPCH (S101); after a first terminal initiates a group call, a network side correspondingly setting up a Trunk Group Control Channel, TGCCH, and a Trunk Group Traffic Channel, TGTCH, and issuing configuration information of the TGTCH through the TGCCH (S102); a second terminal monitoring and finding a group call message of the first terminal through the TPCH, and monitoring the TGCCH to obtain the configuration information (S103); and the second terminal setting up a local TGTCH bearer based on the configuration information to monitor the TGTCH (S104); wherein, the first terminal and the second terminal are trunk user terminals; wherein, when the second terminal is in a cell where the first terminal is located, the second terminal obtains a scrambling code when the second terminal monitors and finding the group call message of the first terminal through the TPCH, to monitor the TGCCH so as to obtain the configuration information; wherein, when the second terminal is in a cell outside a cell where the first terminal is located, after the second terminal monitors and finds the group call message of the first terminal through the TPCH, the second terminal responds to the group call message to obtain a scrambling code, so as to monitor the TGCCH to obtain the configuration information.
A surface-coated cutting tool comprising a tool substrate, and a single-component coating layer composed of a composite nitride of Cr, Al, and V and disposed on the surface of the tool substrate, wherein the composite nitride being represented by a compositional formula: Cr a Al b V c N satisfying the following relations: 0.11 ≤ a ≤ 0.26 ; 0.73 ≤ b ≤ 0.85 ; 0 < c ≤ 0.04 ; and a + b + c = 1 (wherein a, b, and c each represent an atomic proportion), wherein the single-component coating layer has both a hexagonal phase and a cubic phase.
A method for wireless communication, applied to a terminal device connecting with a first network and a second network, comprising: reducing, by the terminal device when an uplink duty cycle of the second network is greater than a maximum uplink duty cycle of the second network, a power class of a total transmit power of the first network and the second network and/or the uplink duty cycle of the second network, causing a specific absorption ratio, SAR, value of the terminal device to be less than or equal to a preset value, wherein the uplink duty cycle of the second network is a proportion of time domain resources that can be used for uplink transmission in a time unit; characterized by acquiring, by the terminal device , a current uplink-downlink ratio of the first network; determining, by the terminal device , the maximum uplink duty cycle of the second network according to the current uplink-downlink ratio of the first network, and a correspondence between uplink-downlink ratios of the first network and maximum uplink duty cycles of the second network; and reporting, by the terminal device , the maximum uplink duty cycle of the second network to a network device of the second network. reducing, by the terminal device when an uplink duty cycle of the second network is greater than a maximum uplink duty cycle of the second network, a power class of a total transmit power of the first network and the second network and/or the uplink duty cycle of the second network, causing a specific absorption ratio, SAR, value of the terminal device to be less than or equal to a preset value, wherein the uplink duty cycle of the second network is a proportion of time domain resources that can be used for uplink transmission in a time unit; characterized by acquiring, by the terminal device , a current uplink-downlink ratio of the first network; determining, by the terminal device , the maximum uplink duty cycle of the second network according to the current uplink-downlink ratio of the first network, and a correspondence between uplink-downlink ratios of the first network and maximum uplink duty cycles of the second network; and reporting, by the terminal device , the maximum uplink duty cycle of the second network to a network device of the second network.