mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a terminal , in which an extended discontinuous reception, eDRX, is configured, in a communication system, the method comprising: receiving, from a base station , a first paging message in an extended modification period; identifying whether a system information change indicator indicating that first system information among entire system information is to be changed is included in the first paging message, the first system information only at including a system information block 1, SIB1, and a system information block 2, SIB2; receiving, from the base station , changed first system information in a next extended modification period in case that the system information change indicator is included in the first paging message, wherein the terminal does not increase a value of a first value tag stored in the terminal , in case that only the first system information is updated to the changed first system information among the entire system information; receiving, from the base station , a second paging message for a radio resource control, RRC, connection establishment based on the changed first system information; comparing the value of the first value tag stored in the terminal with a value of a second value tag included in the SIB1, in case that the RRC connection establishment is triggered based on the second paging message; and updating the entire system information, in case that the value of the first value tag is different from the value of the second value tag. receiving, from a base station , a first paging message in an extended modification period; identifying whether a system information change indicator indicating that first system information among entire system information is to be changed is included in the first paging message, the first system information only at including a system information block 1, SIB1, and a system information block 2, SIB2; receiving, from the base station , changed first system information in a next extended modification period in case that the system information change indicator is included in the first paging message, wherein the terminal does not increase a value of a first value tag stored in the terminal , in case that only the first system information is updated to the changed first system information among the entire system information; receiving, from the base station , a second paging message for a radio resource control, RRC, connection establishment based on the changed first system information; comparing the value of the first value tag stored in the terminal with a value of a second value tag included in the SIB1, in case that the RRC connection establishment is triggered based on the second paging message; and updating the entire system information, in case that the value of the first value tag is different from the value of the second value tag.
Use of an ester of D-β-hydroxybutyrate to improve endurance of a healthy subject during exercise by reducing muscle glycogen loss and/or loss of protein during exercise.
A computer system , which comprises: - a conventional computer , equipped with a conventional processor (CPU) provided with at least one transistor register (CR); - a quantum processor (QPU), provided with at least one quantum register (QR), - the quantum processor (QPU) is configured as a slave of the conventional computer , characterised in that : - the conventional computer is configured as a master to supervise the quantum processor (QPU) by means of the following instructions: ∘ loading, consisting in communicating to the quantum processor (QPU) a definition of a quantum circuit to be implemented; ∘ initialisation, consisting in communicating to the quantum processor (QPU) initial values at which the quantum register(s) is/are set; ∘ execution, consisting in communicating to the quantum processor (QPU) an order for implementing the quantum circuit; ∘ obtainment, consisting in interrogating the quantum processor (QPU) to obtain final values of the quantum register, resulting from the implementation of the circuit. - a conventional computer , equipped with a conventional processor (CPU) provided with at least one transistor register (CR); - a quantum processor (QPU), provided with at least one quantum register (QR), - the quantum processor (QPU) is configured as a slave of the conventional computer , - the conventional computer is configured as a master to supervise the quantum processor (QPU) by means of the following instructions: ∘ loading, consisting in communicating to the quantum processor (QPU) a definition of a quantum circuit to be implemented; ∘ initialisation, consisting in communicating to the quantum processor (QPU) initial values at which the quantum register(s) is/are set; ∘ execution, consisting in communicating to the quantum processor (QPU) an order for implementing the quantum circuit; ∘ obtainment, consisting in interrogating the quantum processor (QPU) to obtain final values of the quantum register, resulting from the implementation of the circuit. ∘ loading, consisting in communicating to the quantum processor (QPU) a definition of a quantum circuit to be implemented; ∘ initialisation, consisting in communicating to the quantum processor (QPU) initial values at which the quantum register(s) is/are set; ∘ execution, consisting in communicating to the quantum processor (QPU) an order for implementing the quantum circuit; ∘ obtainment, consisting in interrogating the quantum processor (QPU) to obtain final values of the quantum register, resulting from the implementation of the circuit.
An intestinal barrier sleeve comprising an expanding anchor section coupled to a tubular section at an interface therebetween, the expanding anchor section expandable from at least a first collapsed position to at least one expanded position, wherein, the expanding anchor section has a trumpet shape with a hole therein at a narrow end of the trumpet shape; the trumpet shape is in communication with a lumen of the tubular section through the hole; the expanding anchor section comprises a plurality of petal-like elements extending radially from the narrow end, wherein the petal-like elements have a rectangular-shape and are deformed in the expanded position; and the petal-like elements are interconnected with a webbing to form the trumpet shape. the expanding anchor section has a trumpet shape with a hole therein at a narrow end of the trumpet shape; the trumpet shape is in communication with a lumen of the tubular section through the hole; the expanding anchor section comprises a plurality of petal-like elements extending radially from the narrow end, wherein the petal-like elements have a rectangular-shape and are deformed in the expanded position; and the petal-like elements are interconnected with a webbing to form the trumpet shape.
An automobile power steering sensor, comprising an upper housing, a lower housing, an input shaft rotor, a PCB assembly, and an output shaft rotor, wherein the input shaft rotor is mounted on an input shaft of an automobile power steering apparatus and sleeved on an upper part of the upper housing, the PCB assembly is mounted on a lower part of the upper housing, the upper housing and the lower housing are securely connected, fixing the PCB assembly in a space formed by the upper housing and the lower housing, the upper housing is sleeved on the input shaft of the automobile power steering apparatus, the output shaft rotor is mounted on the output shaft of the automobile power steering apparatus, and when the automobile power steering apparatus operates, the input shaft rotor and the input shaft rotate coaxially at the same speed, the output shaft rotor and the output shaft rotate coaxially at the same speed, and the upper housing keeps concentric and coaxial with the input shaft rotor. the input shaft rotor is mounted on an input shaft of an automobile power steering apparatus and sleeved on an upper part of the upper housing, the PCB assembly is mounted on a lower part of the upper housing, the upper housing and the lower housing are securely connected, fixing the PCB assembly in a space formed by the upper housing and the lower housing, the upper housing is sleeved on the input shaft of the automobile power steering apparatus, the output shaft rotor is mounted on the output shaft of the automobile power steering apparatus, and when the automobile power steering apparatus operates, the input shaft rotor and the input shaft rotate coaxially at the same speed, the output shaft rotor and the output shaft rotate coaxially at the same speed, and the upper housing keeps concentric and coaxial with the input shaft rotor.
Method (V) for establishing a certain position of a vehicle , wherein the vehicle has a global position determination system (GNSS), an inertial measurement unit (IMU) and an odometry system (O), wherein the method comprises the following steps: - identifying an absolute position of the vehicle by way of the global position determination system (GNSS), - identifying a first relative position of the vehicle by way of the inertial measurement unit (IMU), - identifying a second relative position of the vehicle by way of the odometry system (O), - identifying a certainty of the absolute position based on an accuracy of the global position determination system (GNSS), - identifying a certainty of the first relative position based on an accuracy of the inertial measurement unit (IMU), - identifying a certainty of the second relative position based on an accuracy of the odometry system (O), - determining a current position of the vehicle based on the absolute position , the first relative position and the second relative position , - determining a certainty for the current position of the vehicle , based on the certainty of the absolute position , on the certainty of the first relative position and on the certainty of the second relative position , - determining a tolerance range around the current position of the vehicle , based on the certainty of the absolute position , on the certainty of the first relative position and on the certainty of the second relative position , - establishing and then outputting a probability of the vehicle being located within the tolerance range . - identifying an absolute position of the vehicle by way of the global position determination system (GNSS), - identifying a first relative position of the vehicle by way of the inertial measurement unit (IMU), - identifying a second relative position of the vehicle by way of the odometry system (O), - identifying a certainty of the absolute position based on an accuracy of the global position determination system (GNSS), - identifying a certainty of the first relative position based on an accuracy of the inertial measurement unit (IMU), - identifying a certainty of the second relative position based on an accuracy of the odometry system (O), - determining a current position of the vehicle based on the absolute position , the first relative position and the second relative position , - determining a certainty for the current position of the vehicle , based on the certainty of the absolute position , on the certainty of the first relative position and on the certainty of the second relative position , - determining a tolerance range around the current position of the vehicle , based on the certainty of the absolute position , on the certainty of the first relative position and on the certainty of the second relative position , - establishing and then outputting a probability of the vehicle being located within the tolerance range .
A method for obtaining a root mass from plant seeds, comprising steps of: - providing seeds of a plant, - allowing germination of the seeds in conditions of hydroponic culture and darkness, - flipping the seedlings so that their roots are exposed apically, and keeping them in that position under dark conditions so that the roots grow back down; and - collecting the root mass thus obtained. - providing seeds of a plant, - allowing germination of the seeds in conditions of hydroponic culture and darkness, - flipping the seedlings so that their roots are exposed apically, and keeping them in that position under dark conditions so that the roots grow back down; and - collecting the root mass thus obtained.
A method for the simultaneous detection of multiple analytes in a sample, comprising: (a) contacting the sample with a set of binding agents conjugated to a plurality of isotope-coded reporters (iCOREs), wherein the binding agents are capable of specifically binding a set of analytes, under conditions suitable for the binding agents to bind to the analytes, wherein the set of binding agents comprises at least 5, at least 6, at least 7, at least 8, at least 9, at least 10, at least 11, at least 12, at least 13, at least 14, at least 15, at least 16, at least 17, at least 18, at least 19, or at least 20 different iCORE -conjugated binding agents, wherein the iCOREs are peptide mass tags and wherein (i) the sample is contacted in vivo, or (ii) the binding agents are conjugated to the iCOREs via a photocleavable linker; (b) identifying and/or quantifying, optionally by MS/MS assay, the iCOREs of analyte-bound binding agents; and (c) identifying and/or quantifying the analytes present in the sample based on the iCOREs identified in (b). (a) contacting the sample with a set of binding agents conjugated to a plurality of isotope-coded reporters (iCOREs), wherein the binding agents are capable of specifically binding a set of analytes, under conditions suitable for the binding agents to bind to the analytes, wherein the set of binding agents comprises at least 5, at least 6, at least 7, at least 8, at least 9, at least 10, at least 11, at least 12, at least 13, at least 14, at least 15, at least 16, at least 17, at least 18, at least 19, or at least 20 different iCORE -conjugated binding agents, wherein the iCOREs are peptide mass tags and wherein (i) the sample is contacted in vivo, or (ii) the binding agents are conjugated to the iCOREs via a photocleavable linker; (b) identifying and/or quantifying, optionally by MS/MS assay, the iCOREs of analyte-bound binding agents; and (c) identifying and/or quantifying the analytes present in the sample based on the iCOREs identified in (b).
A method for feeding back Channel State Information, CSI, by a User Equipment, UE, the method comprising: determining at least one set of CSI feedback configurations configured by a base station according to an indication of the base station, wherein each set of CSI feedback configurations comprises at least one CSI feedback configuration, and the CSI feedback configuration is a downlink signal configuration for downlink CSI measurement and feedback; and reporting CSI obtained based upon a first CSI feedback configuration to the base station over a Physical Uplink Control Channel, PUCCH, or a Physical Uplink Shared Channel, PUSCH, upon determining that the CSI needs to be reported, wherein the first CSI feedback configuration is a CSI feedback configuration determined by the UE from a corresponding set of CSI feedback configurations according to a most recently reported index of the CSI feedback configuration in a corresponding set of CSI feedback configurations, or the first CSI feedback configuration is a CSI feedback configuration determined by the UE from a corresponding set of CSI feedback configurations according to a most recently reported sequence corresponding to the set of CSI feedback configurations to which the CSI feedback configuration belongs to, wherein a bit corresponding to the CSI feedback configuration is set to a preset bit in the sequence. determining at least one set of CSI feedback configurations configured by a base station according to an indication of the base station, wherein each set of CSI feedback configurations comprises at least one CSI feedback configuration, and the CSI feedback configuration is a downlink signal configuration for downlink CSI measurement and feedback; and reporting CSI obtained based upon a first CSI feedback configuration to the base station over a Physical Uplink Control Channel, PUCCH, or a Physical Uplink Shared Channel, PUSCH, upon determining that the CSI needs to be reported, wherein the first CSI feedback configuration is a CSI feedback configuration determined by the UE from a corresponding set of CSI feedback configurations according to a most recently reported index of the CSI feedback configuration in a corresponding set of CSI feedback configurations, or the first CSI feedback configuration is a CSI feedback configuration determined by the UE from a corresponding set of CSI feedback configurations according to a most recently reported sequence corresponding to the set of CSI feedback configurations to which the CSI feedback configuration belongs to, wherein a bit corresponding to the CSI feedback configuration is set to a preset bit in the sequence.
Distributor for building or room temperature-control systems, wherein the distributor comprises a distributor pipe which has at least one inflow opening by way of which a fluid can flow into the distributor pipe , at least one connection opening and at least one branching-off opening , wherein a first functional element is screwed into the connection opening and a second functional element is screwed into the branching-off opening , wherein - the first functional element is a valve insert (6; 40) and comprises at least one body as a housing in which at least one functional part is movably retained, and - the second functional element is a connecting member (7, 7", 7′′′) and comprises at least one body as a housing at which at least one functional surface is provided, characterised in that the housing of the functional elements (6, 40; 7, 7". 7′′′) is assembled in each instance from at least two thin-walled parts (6b, 6c or 41, 42 or 30, 31 or 30, 31") of cold-deformable material, wherein the joining and separating plane , in the region of which the at least two cold-formed parts of the housing are connected together, lies substantially transversely to a functional axis of the movable functional part of the first functional element or the functional surface of the second functional element, wherein the functional surface of the second functional element (7, 7", 7′′′) is a valve seat and the first functional element (6; 40) and the second functional element (7, 7", 7′′′) together form a stroke valve. - the first functional element is a valve insert (6; 40) and comprises at least one body as a housing in which at least one functional part is movably retained, and - the second functional element is a connecting member (7, 7", 7′′′) and comprises at least one body as a housing at which at least one functional surface is provided, the housing of the functional elements (6, 40; 7, 7". 7′′′) is assembled in each instance from at least two thin-walled parts (6b, 6c or 41, 42 or 30, 31 or 30, 31") of cold-deformable material, wherein the joining and separating plane , in the region of which the at least two cold-formed parts of the housing are connected together, lies substantially transversely to a functional axis of the movable functional part of the first functional element or the functional surface of the second functional element, wherein the functional surface of the second functional element (7, 7", 7′′′) is a valve seat and the first functional element (6; 40) and the second functional element (7, 7", 7′′′) together form a stroke valve.
A method for interactive and user guided manipulation of multichannel audio content, the method including the steps of: (a) providing a content preview facility for replay and review of multichannel audio content by a user; (b) providing a user interface for user selection of a segment of the multichannel audio content having an unsatisfactory audio content ; (c) processing the multichannel audio content to determine associated audio object activity spatial or signal space regions, to create a time line of activity where one or more spatial or signal space regions are active at any given time; (d) temporally correlating the user's selection of the segment of the multichannel audio content against at least one of the active spatial or signal space regions; (e) signal processing the audio emanating from the correlated active spatial or signal space region, to determine at least one processed alternative of modified audio; (f) providing the user with an interactive playback facility to listen to the at least one processed alternative of modified audio ; and (g) upon user approval, updating the audio content to incorporate the processed alternative into the audio content, wherein step (c) involves performing a scene analysis of the multichannel audio content for determining the object activity spatial or signal space regions. (a) providing a content preview facility for replay and review of multichannel audio content by a user; (b) providing a user interface for user selection of a segment of the multichannel audio content having an unsatisfactory audio content ; (c) processing the multichannel audio content to determine associated audio object activity spatial or signal space regions, to create a time line of activity where one or more spatial or signal space regions are active at any given time; (d) temporally correlating the user's selection of the segment of the multichannel audio content against at least one of the active spatial or signal space regions; (e) signal processing the audio emanating from the correlated active spatial or signal space region, to determine at least one processed alternative of modified audio; (f) providing the user with an interactive playback facility to listen to the at least one processed alternative of modified audio ; and (g) upon user approval, updating the audio content to incorporate the processed alternative into the audio content,