mhurhangee/patent-ind-claim-en huggingface dataset:
A high-strength steel having excellent fracture initiation resistance and fracture propagation arrestability at low temperature, the high-strength steel material comprising: by wt%, 0.02 to 0.09% of C, 0.005 to 0.3% of Si, 0.5 to 1.7% of Mn, 0.001 to 0.035% of Sol.Al, 0.03% or less of Nb, excluding 0%, 0.01% or less of V, excluding 0%, 0.001 to 0.02% of Ti, 0.01 to 1.0% of Cu, 0.01 to 2.0% of Ni, 0.01 to 0.5% of Cr, 0.001 to 0.5% of Mo, 0.0002 to 0.005% of Ca, 0.001 to 0.006% of N, 0.02% or less of P, excluding 0%, 0.003% or less of S, excluding 0%, 0.002% or less of O, excluding 0%, and a balance of Fe and inevitable impurities, wherein the high-strength steel satisfies Relational Expression 1 below, 5 * C + Si + 10 * sol . Al ≤ 0.6 where each element symbol indicates a content of each element by wt%, and wherein a microstructure comprises a sum of polygonal ferrite and acicular ferrite of 50 area% or higher, and comprises a martensite-austenite multiphase, an MA phase, of 3.5 area% or lower, and wherein the steel comprises inclusions, and a number of inclusions having a size of 10 μm or greater is 11 count/cm 2 or lower. by wt%, 0.02 to 0.09% of C, 0.005 to 0.3% of Si, 0.5 to 1.7% of Mn, 0.001 to 0.035% of Sol.Al, 0.03% or less of Nb, excluding 0%, 0.01% or less of V, excluding 0%, 0.001 to 0.02% of Ti, 0.01 to 1.0% of Cu, 0.01 to 2.0% of Ni, 0.01 to 0.5% of Cr, 0.001 to 0.5% of Mo, 0.0002 to 0.005% of Ca, 0.001 to 0.006% of N, 0.02% or less of P, excluding 0%, 0.003% or less of S, excluding 0%, 0.002% or less of O, excluding 0%, and a balance of Fe and inevitable impurities, wherein the high-strength steel satisfies Relational Expression 1 below, 5 * C + Si + 10 * sol . Al ≤ 0.6 where each element symbol indicates a content of each element by wt%, and wherein a microstructure comprises a sum of polygonal ferrite and acicular ferrite of 50 area% or higher, and comprises a martensite-austenite multiphase, an MA phase, of 3.5 area% or lower, and wherein the steel comprises inclusions, and a number of inclusions having a size of 10 μm or greater is 11 count/cm 2 or lower.
A method of configuring at least one periodic operation in a wireless communication system comprising a plurality of wireless devices and a serving network serving the plurality of wireless devices, wherein the periodic operation is selectively configurable at one of a shorter periodicity interval and a longer periodicity interval, the method being performed by the serving network and comprising: obtaining speed information indicative of the speed of one or more of the wireless devices in the wireless communication system; determining , based on the speed information, whether at least one of the one or more wireless devices is moving at a speed at or above a speed threshold; determining an activity state of the at least one wireless device and selecting the at least one periodic operation that is to be configured dependent on the activity state, wherein the speed threshold depends on the activity state of the at least one wireless device, wherein the activity state comprises one of an idle mode or an active mode; and configuring , if it is determined that at least one of the one or more wireless devices is moving at the speed at or above the speed threshold, the at least one periodic operation with the shorter periodicity interval, wherein the at least one periodic operation is at least one of a periodic transmission of a downlink signal and a periodic transmission of an uplink signal. obtaining speed information indicative of the speed of one or more of the wireless devices in the wireless communication system; determining , based on the speed information, whether at least one of the one or more wireless devices is moving at a speed at or above a speed threshold; determining an activity state of the at least one wireless device and selecting the at least one periodic operation that is to be configured dependent on the activity state, wherein the speed threshold depends on the activity state of the at least one wireless device, wherein the activity state comprises one of an idle mode or an active mode; and configuring , if it is determined that at least one of the one or more wireless devices is moving at the speed at or above the speed threshold, the at least one periodic operation with the shorter periodicity interval, wherein the at least one periodic operation is at least one of a periodic transmission of a downlink signal and a periodic transmission of an uplink signal.
A method for simultaneously monitoring or measuring, during operation, a sensory function and anaesthesia depth of a subject, said method comprising: generating a sequence of identical sound stimuli and transmitting said sound stimuli to said subject; detecting a response signal of evoked neurons' response patterns related to each sound stimuli of said sequence; and performing an analysis of said sensory function and said anaesthesia depth based on said response signals of evoked neurons' response patterns detected when stimuli is applied to a sensory function compared to said response signals of evoked neurons' response patterns detected before and/or after stimuli was applied to said sensory function, wherein said response signals are used both for the analysis of the sensory function as well as the anaesthesia depth, and the sensory function is analyzed during operation to ensure that the sensory system is functioning. generating a sequence of identical sound stimuli and transmitting said sound stimuli to said subject; detecting a response signal of evoked neurons' response patterns related to each sound stimuli of said sequence; and performing an analysis of said sensory function and said anaesthesia depth based on said response signals of evoked neurons' response patterns detected when stimuli is applied to a sensory function compared to said response signals of evoked neurons' response patterns detected before and/or after stimuli was applied to said sensory function, wherein said response signals are used both for the analysis of the sensory function as well as the anaesthesia depth, and the sensory function is analyzed during operation to ensure that the sensory system is functioning.
A method for transferring user data (UD) from a first instance (A1) of a first package (P1) to a second instance (A2) of a second package (P2) corresponding to an upgraded version of said first package (P1), characterized in that said first instance (A1) is able to get itself in a locked state where said first instance (A1) refuses all service requests except the communication with said second instance (A2), in that said first instance (A1) stores the user data (UD) in a first storage format, in that said first and second instances (A1, A2) are embedded in a secure element (SE), in that said first and second instances (A1, A2) comprise a key (K1) and in that said method comprises the following steps: - said first and second instances (A1, A2) perform a mutual authentication using said key (K1) and establish a direct channel (CO) within the portable secure device (SE) only if the mutual authentication is successful, - said first instance (A1) prepares a pack (PA) by formatting said user data (UD) in a transport format and automatically sends the pack (PA) to said second instance (A2) through the direct channel (CO), - said second instance (A2) retrieves the user data (UD) from the pack (PA) and stores the user data (UD) in a second storage format. - said first and second instances (A1, A2) perform a mutual authentication using said key (K1) and establish a direct channel (CO) within the portable secure device (SE) only if the mutual authentication is successful, - said first instance (A1) prepares a pack (PA) by formatting said user data (UD) in a transport format and automatically sends the pack (PA) to said second instance (A2) through the direct channel (CO), - said second instance (A2) retrieves the user data (UD) from the pack (PA) and stores the user data (UD) in a second storage format.
A data transmission method, comprising: transmitting, by a base station, configuration information for a slot group via a higher-layer signaling; determining , by the base station, a structure of a slot that corresponds to the slot group for each slot within a preset duration; notifying , by the base station, a user equipment (UE) of the determined structure via a physical layer signaling, wherein the physical layer signaling includes downlink control information that is carried in a search space of a common downlink control channel, wherein the downlink control information indicates uplink or downlink configuration information for each slot within the preset duration , and wherein the notifying comprises dynamically indicating, via the physical layer signaling, the uplink or downlink configuration information of each slot within the preset duration based on the configuration information for the slot group; and performing a data transmission according to the determined structure. transmitting, by a base station, configuration information for a slot group via a higher-layer signaling; determining , by the base station, a structure of a slot that corresponds to the slot group for each slot within a preset duration; notifying , by the base station, a user equipment (UE) of the determined structure via a physical layer signaling, wherein the physical layer signaling includes downlink control information that is carried in a search space of a common downlink control channel, wherein the downlink control information indicates uplink or downlink configuration information for each slot within the preset duration , and wherein the notifying comprises dynamically indicating, via the physical layer signaling, the uplink or downlink configuration information of each slot within the preset duration based on the configuration information for the slot group; and performing a data transmission according to the determined structure.
An assembly comprising a plurality of identical lighting modules for a lighting device producing light segments of a motor vehicle headlamp , each of said lighting modules comprising: - at least one primary optical element having a light pixel forming structure intended to cooperate with at least one light source and a corrector exit diopter , each primary optical element defining an optical axis ; - a projection lens ; the modules being configured to project light entering the primary optical element or elements and leaving via the projection lens in the form of a light segment, such as a light polygon or strip, formed of at least one light pixel; in the normal mounting direction the exit diopter of the projection lens having a toroidal shape, characterized in that the lighting modules are assembled in horizontal juxtaposition in the normal mounting direction so that the respective projection lenses form a continuous surface of the assembly and in that each module comprises lateral positioning means intended to juxtapose two identical modules horizontally in the normal mounting direction so that the exit diopters of the modules form a continuous surface. - at least one primary optical element having a light pixel forming structure intended to cooperate with at least one light source and a corrector exit diopter , each primary optical element defining an optical axis ; - a projection lens ;
A hierarchical network registration method, wherein the method is applied to a hierarchical network formed by a terrestrial network and at least one layer of an air network, and the method comprises: obtaining (S510), by a radio network node, a registration result of an air network node, wherein the radio network node is located in the terrestrial network; the air network node is located in the air network, and covers the radio network node; and the registration result comprises attribute information and beam information of the air network node; and broadcasting (S520), by the radio network node, the registration result to a mobile user covered by the radio network node; wherein the obtaining, by a radio network node, a registration result of an air network node comprises: initiating (S5101), by the radio network node, a registration request to the air network node; and receiving (S5102), by the radio network node, a registration response message from the air network node, to obtain the registration result. obtaining (S510), by a radio network node, a registration result of an air network node, wherein the radio network node is located in the terrestrial network; the air network node is located in the air network, and covers the radio network node; and the registration result comprises attribute information and beam information of the air network node; and broadcasting (S520), by the radio network node, the registration result to a mobile user covered by the radio network node; wherein the obtaining, by a radio network node, a registration result of an air network node comprises: initiating (S5101), by the radio network node, a registration request to the air network node; and receiving (S5102), by the radio network node, a registration response message from the air network node, to obtain the registration result. initiating (S5101), by the radio network node, a registration request to the air network node; and receiving (S5102), by the radio network node, a registration response message from the air network node, to obtain the registration result.
A computer-implemented medical method for positionally determining a periodically moving structure of a patient's anatomy, the method comprising the following steps: a) cycle time data is acquired (S11), describing the duration of a motion cycle of the periodically moving structure; b) exposure time data is determined (S12) based on the cycle time data, describing the exposure time assigned to a single X-ray-image showing a range of motion of the periodically moving structure, wherein the exposure time covers at least one whole motion cycle of the periodically moving structure; c) image data is acquired (S13), describing the single X-ray-image created by applying the exposure time; wherein the method further comprises at least one of the following steps: d) range-of-motion data is determined (S14A) based on the image data, describing a range of motion covered by the periodically moving structure; e) mean position data is determined (S14B) based on the image data, describing a time-averaged mean position of the periodically moving structure. a) cycle time data is acquired (S11), describing the duration of a motion cycle of the periodically moving structure; b) exposure time data is determined (S12) based on the cycle time data, describing the exposure time assigned to a single X-ray-image showing a range of motion of the periodically moving structure, wherein the exposure time covers at least one whole motion cycle of the periodically moving structure; c) image data is acquired (S13), describing the single X-ray-image created by applying the exposure time; wherein the method further comprises at least one of the following steps: d) range-of-motion data is determined (S14A) based on the image data, describing a range of motion covered by the periodically moving structure; e) mean position data is determined (S14B) based on the image data, describing a time-averaged mean position of the periodically moving structure.
A process for treating an oil comprising a chlorophyll substrate, the process comprising contacting the oil with a polypeptide having decolorase activity or a composition comprising the polypeptide, wherein the polypeptide is selected from the group consisting of: a. a polypeptide which has at least 80%, 85%, 86%, 87%, 88%, 89%, 90%, 91 %, 92%, 93%, 94%, 95%, 96%, 97%, 98% or at least 99%, or 100% identity to amino acids 1 to 318 of SEQ ID NO: 1 ; and, b. a polypeptide encoded by a nucleic acid sequence that has at least 80%, 85%, 86%, 87%, 88%, 89%, 90%, 91 %, 92%, 93%, 94%, 95%, 96%, 97%, 98% or at least 99%, or 100% identity to the nucleic acid sequence of SEQ ID NO: 2. a. a polypeptide which has at least 80%, 85%, 86%, 87%, 88%, 89%, 90%, 91 %, 92%, 93%, 94%, 95%, 96%, 97%, 98% or at least 99%, or 100% identity to amino acids 1 to 318 of SEQ ID NO: 1 ; and, b. a polypeptide encoded by a nucleic acid sequence that has at least 80%, 85%, 86%, 87%, 88%, 89%, 90%, 91 %, 92%, 93%, 94%, 95%, 96%, 97%, 98% or at least 99%, or 100% identity to the nucleic acid sequence of SEQ ID NO: 2.
A driving tool comprising: a striking cylinder comprising a piston configured to be actuated by a combustion pressure of a mixed gas of compressed oxidant and fuel; a combustion chamber in which the mixed gas of compressed oxidant and fuel is to be combusted; an oxidant supply port for supplying the compressed oxidant into the combustion chamber ; a fuel supply port for supplying the fuel into the combustion chamber ; and a check valve provided to at least one of the oxidant supply port and the fuel supply port, wherein the check valve is provided on an inner wall surface of the combustion chamber , wherein the check valve is a lead valve, and wherein the lead valve comprises: a valve part to be pressed to a seal part formed on the inner wall surface of the combustion chamber ; a fixed part fixed to the inner wall surface of the combustion chamber; and an elastic part configured to connect the valve part and the fixed part, characterized in that the driving tool further comprises a shield part which is provided at a side of the fuel supply port facing the oxidant supply port and which is configured to shield a flow of the compressed oxidant supplied from the oxidant supply port . a striking cylinder comprising a piston configured to be actuated by a combustion pressure of a mixed gas of compressed oxidant and fuel; a combustion chamber in which the mixed gas of compressed oxidant and fuel is to be combusted; an oxidant supply port for supplying the compressed oxidant into the combustion chamber ; a fuel supply port for supplying the fuel into the combustion chamber ; and a check valve provided to at least one of the oxidant supply port and the fuel supply port, wherein the check valve is provided on an inner wall surface of the combustion chamber , wherein the check valve is a lead valve, and wherein the lead valve comprises: a valve part to be pressed to a seal part formed on the inner wall surface of the combustion chamber ; a fixed part fixed to the inner wall surface of the combustion chamber; and an elastic part configured to connect the valve part and the fixed part, characterized in that the driving tool further comprises a shield part which is provided at a side of the fuel supply port facing the oxidant supply port and which is configured to shield a flow of the compressed oxidant supplied from the oxidant supply port . a valve part to be pressed to a seal part formed on the inner wall surface of the combustion chamber ; a fixed part fixed to the inner wall surface of the combustion chamber; and an elastic part configured to connect the valve part and the fixed part, characterized in that the driving tool further comprises a shield part which is provided at a side of the fuel supply port facing the oxidant supply port and which is configured to shield a flow of the compressed oxidant supplied from the oxidant supply port .
A method comprising: engrafting a second mouse with human hematopoietic cells isolated from a genetically modified first mouse, wherein the genetically modified first mouse is null for a RAG2 gene and null for the mouse interleukin 2 receptor gamma (IL-2Rg) gene, wherein the genetically modified first mouse comprises an engraftment of human hematopoietic cells and a replacement of each allele of the mouse thrombopoietin (TPO) gene with a human TPO gene at the mouse TPO gene locus, and wherein the second mouse is null for a RAG2 gene and null for the mouse IL-2Rg gene.
A receiver configured to provide an activation signal to a device in order to transition the device from a dormant state to an operative state, wherein the receiver comprises: - a sensor , being one of an optical sensor, an acoustic sensor, and a magnetic field sensor, wherein the sensor is configured to receive a wireless signal from an external source and to generate a detector signal in response to the received wireless signal; characterized in that the receiver further comprises: - a super regenerative oscillator, SRO, circuit , electrically coupled to the sensor to receive the detector signal , and configured to electrically oscillate with a constant SRO frequency and with a SRO amplitude (As) that changes when a carrier frequency of the detector signal matches the SRO frequency, and - a processing device , configured to monitor the SRO amplitude in time, and to generate the activation signal when a temporal characteristic (Sc) of the monitored SRO amplitude (As) matches a predetermined reference pattern . - a sensor , being one of an optical sensor, an acoustic sensor, and a magnetic field sensor, wherein the sensor is configured to receive a wireless signal from an external source and to generate a detector signal in response to the received wireless signal; characterized in that the receiver further comprises: - a super regenerative oscillator, SRO, circuit , electrically coupled to the sensor to receive the detector signal , and configured to electrically oscillate with a constant SRO frequency and with a SRO amplitude (As) that changes when a carrier frequency of the detector signal matches the SRO frequency, and - a processing device , configured to monitor the SRO amplitude in time, and to generate the activation signal when a temporal characteristic (Sc) of the monitored SRO amplitude (As) matches a predetermined reference pattern . - a super regenerative oscillator, SRO, circuit , electrically coupled to the sensor to receive the detector signal , and configured to electrically oscillate with a constant SRO frequency and with a SRO amplitude (As) that changes when a carrier frequency of the detector signal matches the SRO frequency, and - a processing device , configured to monitor the SRO amplitude in time, and to generate the activation signal when a temporal characteristic (Sc) of the monitored SRO amplitude (As) matches a predetermined reference pattern .
A machine for preparing and dispensing espresso coffee or the like, comprising: a first device for measuring a mass of an amount of ground coffee to be used for preparing an espresso coffee, a second device for measuring a mass of the brewed espresso coffee, a processing device (CPU) for calculating in real time during dispensing of the espresso coffee a brew ratio corresponding to a ratio between said mass of the amount of ground coffee and said mass of the brewed espresso coffee.