mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operation of a User Equipment, UE, in a cellular communications network , comprising: performing a Listen-Before-Talk, LBT, procedure for an observed channel, a result of the LBT procedure being that the observed channel is busy; receiving, from a radio access node , an indication of a spatial load at the radio access node, wherein the spatial load indicates a sum traffic related activity by one or more UEs on the radio access node; deciding to override the LBT procedure based on knowledge that the observed channel is busy due to transmission by a compatible UE, the compatible UE being a UE that can be co-scheduled with the UE in the cellular communications network and based on the indication of the spatial load of the radio access node; and transmitting on the observed channel even though the result of the LBT procedure is that the observed channel is busy upon deciding to override the LBT procedure. performing a Listen-Before-Talk, LBT, procedure for an observed channel, a result of the LBT procedure being that the observed channel is busy; receiving, from a radio access node , an indication of a spatial load at the radio access node, wherein the spatial load indicates a sum traffic related activity by one or more UEs on the radio access node; deciding to override the LBT procedure based on knowledge that the observed channel is busy due to transmission by a compatible UE, the compatible UE being a UE that can be co-scheduled with the UE in the cellular communications network and based on the indication of the spatial load of the radio access node; and transmitting on the observed channel even though the result of the LBT procedure is that the observed channel is busy upon deciding to override the LBT procedure.
A method for transmitting data in a Vehicle-to-Everything, V2X, system, the method comprising: receiving, by a terminal device, information of a second operator transmitted by network equipment providing coverage through a serving cell, a wireless communication network to which the serving cell belongs being deployed by a first operator and the second operator, the network equipment being deployed by the first operator, and the information of the second operator comprising a Public Land Mobile Network, PLMN, number and frequency resource information; and receiving, by the terminal device, data transmitted by the second operator according to the information of the second operator. receiving, by a terminal device, information of a second operator transmitted by network equipment providing coverage through a serving cell, a wireless communication network to which the serving cell belongs being deployed by a first operator and the second operator, the network equipment being deployed by the first operator, and the information of the second operator comprising a Public Land Mobile Network, PLMN, number and frequency resource information; and receiving, by the terminal device, data transmitted by the second operator according to the information of the second operator.
A cross-chain data processing method, wherein the method comprises: receiving (S200), by a TEE, trusted execution environment, application, a cross-chain data request sent by a first blockchain; determining, by the TEE application, a corresponding Simplified Payment Verification, SPV, application provided in the TEE application based on the cross-chain data request; obtaining (S202, S2), using the corresponding SPV application, cross-chain data from a second blockchain based on the cross-chain data request; verifying (S204, S4), using the corresponding SPV application, the cross-chain data using SPV; when the verification is passed, signing, by the TEE application, the cross-chain data by using a private key corresponding to a TEE policy adopted by the TEE application; and returning (S206, S6), by the TEE application, a signed request result to the first blockchain, wherein the signed request result comprises the cross-chain data and the signature of the cross-chain data. receiving (S200), by a TEE, trusted execution environment, application, a cross-chain data request sent by a first blockchain; determining, by the TEE application, a corresponding Simplified Payment Verification, SPV, application provided in the TEE application based on the cross-chain data request; obtaining (S202, S2), using the corresponding SPV application, cross-chain data from a second blockchain based on the cross-chain data request; verifying (S204, S4), using the corresponding SPV application, the cross-chain data using SPV; when the verification is passed, signing, by the TEE application, the cross-chain data by using a private key corresponding to a TEE policy adopted by the TEE application; and returning (S206, S6), by the TEE application, a signed request result to the first blockchain, wherein the signed request result comprises the cross-chain data and the signature of the cross-chain data.
A computer-implemented medical data processing method for determining the geometric transformability of a segmentation of a medical patient image, the method comprising the following steps: a) patient image data is acquired (S11) which describes a patient image of an anatomical body part of a patient, wherein the anatomical body part comprises a plurality of anatomical structures which may be physically connected to each other; b) atlas data is acquired (S12) which describes an image-based model of the anatomical body part and at least one value of at least one parameter of a geometric transformability model of the anatomical body part; c) transformability model data is acquired (S13) which describes the geometric transformability model of each of the anatomical structures, wherein the geometric transformability model describes a movability individually for each of the anatomical structures; d) segmented image data is determined (S14), based on the patient image data and the atlas data and the transformability model data, which describes a segmentation of the patient image and a geometric relation between the geometric transformability model and the segmentation; and e) assigned transformability model data is determined (S15), based on the segmented image data and the atlas data, which describes an assignment of the at least one value of the at least one parameter to the geometric relation between the geometric transformability model and the segmentation. a) patient image data is acquired (S11) which describes a patient image of an anatomical body part of a patient, wherein the anatomical body part comprises a plurality of anatomical structures which may be physically connected to each other; b) atlas data is acquired (S12) which describes an image-based model of the anatomical body part and at least one value of at least one parameter of a geometric transformability model of the anatomical body part; c) transformability model data is acquired (S13) which describes the geometric transformability model of each of the anatomical structures, wherein the geometric transformability model describes a movability individually for each of the anatomical structures; d) segmented image data is determined (S14), based on the patient image data and the atlas data and the transformability model data, which describes a segmentation of the patient image and a geometric relation between the geometric transformability model and the segmentation; and e) assigned transformability model data is determined (S15), based on the segmented image data and the atlas data, which describes an assignment of the at least one value of the at least one parameter to the geometric relation between the geometric transformability model and the segmentation.
An oral thin film, comprising at least one layer, which contains at least one polyvinyl alcohol and tris(hydroxymethyl)aminomethane in an amount of from 15 to 70 wt.% in relation to the total weight of the at least one layer.
A method for manufacturing an iron golf club head by forging a single round rod member with a pair of dies to form, as a single piece, a body forming a ball striking portion and a neck into which a shaft is to be inserted, the method comprising: a first step of heating the single round rod member into a heated material; a second step of placing the heated material in the pair of dies ; and a third step of forging the heated material placed in the pair of dies , wherein in the third step, the heated material is prevented from flowing out from parting surfaces of the respective dies at a sole side of the body in the pair of dies , and the heated material blocked at the sole side in the pair of dies flows toward each of a toe of the body and the neck in the pair of dies . a first step of heating the single round rod member into a heated material; a second step of placing the heated material in the pair of dies ; and a third step of forging the heated material placed in the pair of dies , wherein in the third step, the heated material is prevented from flowing out from parting surfaces of the respective dies at a sole side of the body in the pair of dies , and the heated material blocked at the sole side in the pair of dies flows toward each of a toe of the body and the neck in the pair of dies .
A method for adjusting resource management procedures in a machine device communicating with a node in a communication network , the method in the node comprising: receiving a first message from the machine device, the first message including machine device capability information; processing the received machine device capability information to determine an adjustment to a resource management procedure; and transmitting a second message to the machine device, the second message including the determined resource management procedure adjustment; characterized in that : the machine device capability information includes information relating to a transmission pattern, wherein the step of processing comprises determining the adjustment to the resource management procedure to minimize or eliminate transmissions, measurements, and/or power usage between transmissions based on the transmission pattern. receiving a first message from the machine device, the first message including machine device capability information; processing the received machine device capability information to determine an adjustment to a resource management procedure; and transmitting a second message to the machine device, the second message including the determined resource management procedure adjustment; characterized in that : the machine device capability information includes information relating to a transmission pattern, wherein the step of processing comprises determining the adjustment to the resource management procedure to minimize or eliminate transmissions, measurements, and/or power usage between transmissions based on the transmission pattern.
A curing agent composition for epoxy resin comprising anhydride and approximately equimolar amount of tertiary amine or an imidazole and carboxylic acid wherein the weight ratio of anhydride to combined tertiary amine or imidazole and carboxylic acid is 50:50.
A harvester used in agriculture, said harvester comprising a collecting unit for collecting straw-shaped crop , a feed unit , and a chopping unit with a chopping rotor equipped with blades which, together with a counter-blade , cut the straw-shaped crop short, a silage agent dispenser, and an operating unit, characterized in that the chopping unit is provided with a knock sensor arranged to sense the vibrations which occur when the blades cut the straw-shaped crop against the counter-blade and that the knock sensor is arranged to direct a signal flow to the operating unit, wherein changes in the knock sensor's signal flow are arranged to start or stop the silage agent dispenser. a collecting unit for collecting straw-shaped crop , a feed unit , and a chopping unit with a chopping rotor equipped with blades which, together with a counter-blade , cut the straw-shaped crop short, a silage agent dispenser, and an operating unit, characterized in that the chopping unit is provided with a knock sensor arranged to sense the vibrations which occur when the blades cut the straw-shaped crop against the counter-blade and that the knock sensor is arranged to direct a signal flow to the operating unit, wherein changes in the knock sensor's signal flow are arranged to start or stop the silage agent dispenser.
Method of analysing an excavation material comprising the following steps: a) analysis by infrared spectroscopy of a sample of excavated material in a range of wavenumbers between 4000 cm -1 and 350 cm -1 to obtain an infrared spectrum, b) determining the mass content of iron pyrite in said sample from the infrared spectrum obtained in step a), characterised in that step b) comprises the following sub-steps: b1) detecting between 450 cm -1 and 435 cm -1 of a specific absorption band of iron pyrite in the infrared spectrum obtained in step a), b2) integrating the absorption band detected in step b1) to calculate an area, and b3) comparing the area obtained in step b2) with a calibration curve to determine the mass content of iron pyrite in the excavated material. a) analysis by infrared spectroscopy of a sample of excavated material in a range of wavenumbers between 4000 cm -1 and 350 cm -1 to obtain an infrared spectrum, b) determining the mass content of iron pyrite in said sample from the infrared spectrum obtained in step a), b1) detecting between 450 cm -1 and 435 cm -1 of a specific absorption band of iron pyrite in the infrared spectrum obtained in step a), b2) integrating the absorption band detected in step b1) to calculate an area, and b3) comparing the area obtained in step b2) with a calibration curve to determine the mass content of iron pyrite in the excavated material.
A thermoplastic composition comprising: 30 wt. % to 75 wt. % of a polycarbonate; 5 wt. % to 35 wt. % of a polyphthalyl carbonate (PPC) copolymer; 15 wt. % to 30 wt. % of a poly(carbonate-siloxane) copolymer; 0.05 wt. % to 1 wt. % of an epoxy hydrostabilizer; and 0.05 wt. % to 1 wt. % of a mold release agent; wherein the thermoplastic composition has a heat deflection temperature (HDT) at 1.82 MPa, 3.2 mm of 121 °C to 131 °C as measured in accordance with ASTM D648. 30 wt. % to 75 wt. % of a polycarbonate; 5 wt. % to 35 wt. % of a polyphthalyl carbonate (PPC) copolymer; 15 wt. % to 30 wt. % of a poly(carbonate-siloxane) copolymer; 0.05 wt. % to 1 wt. % of an epoxy hydrostabilizer; and 0.05 wt. % to 1 wt. % of a mold release agent; wherein the thermoplastic composition has a heat deflection temperature (HDT) at 1.82 MPa, 3.2 mm of 121 °C to 131 °C as measured in accordance with ASTM D648.
A multilayer packaging structure for a thin film battery , said structure comprising at least: - a first layer , - a second layer , - a metal layer sandwiched between the first layer and the second layer , - a third layer sandwiched between the first layer and the metal layer , wherein said structure further comprises: - a first opening arranged in the first layer such that a first portion of the metal layer associated with the arranged first opening is exposed, said first portion of the metal layer being configured to be able to be in electrical contact with a current collector of the thin film battery , - a second opening arranged in the second layer such that a second portion of the metal layer associated with the arranged second opening is exposed, said second portion of the metal layer being configured to be able to be electrically connected to an external circuitry, - a third opening arranged in the third layer , the center of said third opening being aligned with the center of the first opening arranged in the first layer , such that the first portion of the metal associated with the arranged first and third openings is exposed, said first portion of the metal layer being configured to be able to be in electrical contact with said current collector of the thin film battery , wherein the third layer is an acid-modified polypropylene layer preventing electrolyte penetration into the metal layer . - a first layer , - a second layer , - a metal layer sandwiched between the first layer and the second layer , - a third layer sandwiched between the first layer and the metal layer , - a first opening arranged in the first layer such that a first portion of the metal layer associated with the arranged first opening is exposed, said first portion of the metal layer being configured to be able to be in electrical contact with a current collector of the thin film battery , - a second opening arranged in the second layer such that a second portion of the metal layer associated with the arranged second opening is exposed, said second portion of the metal layer being configured to be able to be electrically connected to an external circuitry, - a third opening arranged in the third layer , the center of said third opening being aligned with the center of the first opening arranged in the first layer , such that the first portion of the metal associated with the arranged first and third openings is exposed, said first portion of the metal layer being configured to be able to be in electrical contact with said current collector of the thin film battery ,
A verification device comprising: a function arrangement unit configured to arrange a logical architecture , which includes a function path of each of logical functions and an execution time constraint of the function path, in a physical architecture , wherein all logical functions of the logical architecture are arranged with all elements of the physical architecture in all combinations; a delay time calculation unit configured to calculate a processing delay time when the logical architecture is arranged in the physical architecture wherein a delay time for an execution time of each logical function at an operating frequency of an element of the physical architecture is allocated to each logical function in advance and wherein a recalculation of the execution time of each logical function is performed using a ratio of the operating frequencies of a first element of the physical architecture and a second element of the physical architecture at its arrangement destination; and a verification unit configured to verify whether a total of the processing delay time satisfies the execution time constraint, wherein the verification device further comprising: a control feasibility determination unit configured to determine a control feasibility of a function of the logical architecture based on the verification result of the verification unit and an occupancy rate of the physical architecture , wherein control feasibility of a safety function of the logical architecture is determined first with regard to a main function of the logical architecture for the verification. a function arrangement unit configured to arrange a logical architecture , which includes a function path of each of logical functions and an execution time constraint of the function path, in a physical architecture , wherein all logical functions of the logical architecture are arranged with all elements of the physical architecture in all combinations; a delay time calculation unit configured to calculate a processing delay time when the logical architecture is arranged in the physical architecture wherein a delay time for an execution time of each logical function at an operating frequency of an element of the physical architecture is allocated to each logical function in advance and wherein a recalculation of the execution time of each logical function is performed using a ratio of the operating frequencies of a first element of the physical architecture and a second element of the physical architecture at its arrangement destination; and a verification unit configured to verify whether a total of the processing delay time satisfies the execution time constraint, wherein the verification device further comprising: a control feasibility determination unit configured to determine a control feasibility of a function of the logical architecture based on the verification result of the verification unit and an occupancy rate of the physical architecture , wherein control feasibility of a safety function of the logical architecture is determined first with regard to a main function of the logical architecture for the verification.
Method for data communication with a cooking appliance comprising a cooking oven by a mobile computer device , wherein the cooking appliance and the mobile computer device are interconnected via a wireless bidirectional data connection that is adapted for transferring signals between the cooking appliance and the mobile computer device , wherein the mobile computer device is interconnected or interconnectable with an oven receiving unit of the cooking appliance , wherein the cooking oven is remotely controlled or remotely controllable by a user via the mobile computer device and the wireless bidirectional data connection , wherein the mobile computer device is switchable from a first connection state to a second connection state by a switching element which is a door switching element comprised by the cooking oven , and wherein the mobile computer device comprises application software that performs the following steps: a) switching the mobile computer device into a first connection state with the cooking appliance , wherein in the first connection state remote control is enabled in order to control parameters and/or functions of the cooking oven by the mobile computer device ; b) switching the mobile computer device by the door switching element into the second connection state with the cooking appliance , wherein in the second connection state remote control is disabled so that no parameters and/or functions of the cooking oven are controllable or controlled by the mobile computer device . a) switching the mobile computer device into a first connection state with the cooking appliance , wherein in the first connection state remote control is enabled in order to control parameters and/or functions of the cooking oven by the mobile computer device ; b) switching the mobile computer device by the door switching element into the second connection state with the cooking appliance , wherein in the second connection state remote control is disabled so that no parameters and/or functions of the cooking oven are controllable or controlled by the mobile computer device .