mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a gNB central unit, gNB-CU, operating in a wireless communication system, the method comprising, when a user equipment, UE, recovers an RRC connection with a gNB after a radio link failure, RLF, because of failed beam failure recovery, transmitting (S2406), to the UE, via a gNB distributed unit, gNB-DU, a UE Information Request message; receiving (S2408), from the UE via the gNB-DU, a UE Information Response message including RLF related information and random access channel, RACH, related information, wherein the RLF related information informs that RLF occurs for the UE and includes a cell identify, ID, of a cell at which the RLF occurs; wherein the RACH related information includes information on variables for random access procedure which the UE used and information related to a number of times a random access preamble was transmitted, transmitting (S2416), to the gNB-DU, which manages the cell indicated by the cell identity in the RLF related information, a message including the RLF related information and the RACH related information; and receiving (S2418), from the gNB-DU, which manages the cell indicated by the cell identity in the RLF related information, a RACH configuration for the cell which is based on the RACH related information. transmitting (S2406), to the UE, via a gNB distributed unit, gNB-DU, a UE Information Request message; receiving (S2408), from the UE via the gNB-DU, a UE Information Response message including RLF related information and random access channel, RACH, related information, wherein the RLF related information informs that RLF occurs for the UE and includes a cell identify, ID, of a cell at which the RLF occurs; wherein the RACH related information includes information on variables for random access procedure which the UE used and information related to a number of times a random access preamble was transmitted, transmitting (S2416), to the gNB-DU, which manages the cell indicated by the cell identity in the RLF related information, a message including the RLF related information and the RACH related information; and receiving (S2418), from the gNB-DU, which manages the cell indicated by the cell identity in the RLF related information, a RACH configuration for the cell which is based on the RACH related information.
A non-oriented electrical steel sheet, consisting of: in mass%, C: 0.005% or less; Si: 0.1% to 1.6%; Mn: 0.05% to 0.6%; P: 0.100% or less; A1: 0.5% or less; N: 40 ppm or less, at least one of Sn and Sb of 0.05% to 0.2%,B of 0.0005% to 0.0030%, and a balance being composed of Fe and inevitable impurities, wherein 10 pieces/μm 3 or less in number density of non-magnetic precipitate AlN having an average diameter of 10 nm to 200 nm are contained, a structure is made of ferrite grains containing no non-recrystallized structure, and an average grain diameter of the ferrite grains is 30 μm to 200 μm, and an average magnetic flux density B50 in a rolling direction and in a direction perpendicular to rolling is 1.75 T or more and wherein the number density, the average grain diameter of the ferrite grains and the average magnetic flux density B50 are determined in accordance with the description. in mass%, C: 0.005% or less; Si: 0.1% to 1.6%; Mn: 0.05% to 0.6%; P: 0.100% or less; A1: 0.5% or less; N: 40 ppm or less, at least one of Sn and Sb of 0.05% to 0.2%,B of 0.0005% to 0.0030%, and a balance being composed of Fe and inevitable impurities, wherein 10 pieces/μm 3 or less in number density of non-magnetic precipitate AlN having an average diameter of 10 nm to 200 nm are contained, a structure is made of ferrite grains containing no non-recrystallized structure, and an average grain diameter of the ferrite grains is 30 μm to 200 μm, and an average magnetic flux density B50 in a rolling direction and in a direction perpendicular to rolling is 1.75 T or more and wherein the number density, the average grain diameter of the ferrite grains and the average magnetic flux density B50 are determined in accordance with the description.
A method, implemented by a wireless transmit/receive unit, WTRU, for wireless communication, to transition from a first radio resource control, RRC, configuration to a second RRC configuration, as an RRC reconfiguration, the method comprising: receiving , by the WTRU , configuration information indicating the second RRC configuration associated with a set of block error ratio, BLER, thresholds that is different from one or more block error ratio, BLER, thresholds associated with the first RRC configuration, wherein each respective BLER threshold of the set of BLER thresholds is associated with a respective service type; generating , by the WTRU , based on the set of BLER thresholds after reception of the configuration information indicating the second RRC configuration, one or more in-sync indications and/or one or more out-of-sync indications; indicating , by the WTRU , one or more attributes associated with the one or more in-sync indications and/or the one or more out-of-sync indications; and determining, during a transition to the second RRC configuration and based on at least an existing radio link monitoring, RLM, status, whether to apply a compensation by the WTRU for a new RRC configuration process associated with the second RRC configuration. receiving , by the WTRU , configuration information indicating the second RRC configuration associated with a set of block error ratio, BLER, thresholds that is different from one or more block error ratio, BLER, thresholds associated with the first RRC configuration, wherein each respective BLER threshold of the set of BLER thresholds is associated with a respective service type; generating , by the WTRU , based on the set of BLER thresholds after reception of the configuration information indicating the second RRC configuration, one or more in-sync indications and/or one or more out-of-sync indications; indicating , by the WTRU , one or more attributes associated with the one or more in-sync indications and/or the one or more out-of-sync indications; and determining, during a transition to the second RRC configuration and based on at least an existing radio link monitoring, RLM, status, whether to apply a compensation by the WTRU for a new RRC configuration process associated with the second RRC configuration.
A hollow rack bar comprising: a hollow blank pipe portion having a uniform wall thickness (t); and a rack toothed portion comprising teeth , a flat portion having a flat surface and arranged side by side with the teeth in a direction along a center axis (X) of the blank pipe portion , and a slanted portion provided at an end of the flat portion with respect to a direction perpendicular to the center axis (X) and arranged to be lower than the flat portion , wherein a length (t1) of the slanted portion projected on a straight line (VL) perpendicular to the center axis (X) and parallel to the surface of the flat portion is longer than zero and equal to or shorter than the wall thickness (t) of the blank pipe portion characterized in that an angle (α) formed by a plane (VP) extended from and parallel to the surface of the flat portion and a surface of the slanted portion is decreased along the center axis (X) from both sides (P1, P2) of a range in which the teeth are provided toward a middle (P3) of the range, and is zero at the middle (P3) of the range. a hollow blank pipe portion having a uniform wall thickness (t); and a rack toothed portion comprising teeth , a flat portion having a flat surface and arranged side by side with the teeth in a direction along a center axis (X) of the blank pipe portion , and a slanted portion provided at an end of the flat portion with respect to a direction perpendicular to the center axis (X) and arranged to be lower than the flat portion , wherein a length (t1) of the slanted portion projected on a straight line (VL) perpendicular to the center axis (X) and parallel to the surface of the flat portion is longer than zero and equal to or shorter than the wall thickness (t) of the blank pipe portion characterized in that an angle (α) formed by a plane (VP) extended from and parallel to the surface of the flat portion and a surface of the slanted portion is decreased along the center axis (X) from both sides (P1, P2) of a range in which the teeth are provided toward a middle (P3) of the range, and is zero at the middle (P3) of the range.
A serum-free culture medium comprising interleukin 11 (IL11) at a concentration of between 0.5 ng/ml to 5 ng/ml and Ciliary Neurotrophic Factor (CNTF) at a concentration of between 0.5 ng/ml to 5 ng/ml
Method for correcting the fuel richness in a heat engine during a cold start thereof, with a richness probe arranged in the gas exhaust line of said heat engine having not yet reached its operating temperature and not being operational, characterized in that it comprises a correction of a quantity of fuel injected into said thermal engine during a cold start in progress according to corrected injected fuel quantities learned from previous cold starts making it possible to reach a richness setpoint, memorized and classified according to first physical parameters, the corrected injected fuel quantity chosen being that whose classification according to the first physical parameters comes closest to the cold start in progress, said method checking the satisfaction of predetermined conditions to authorize said correction, and said predetermined conditions comprising inhibition conditions prohibiting said correction when learning of said chosen corrected injected fuel quantity is deemed obsolete in relation to the current cold start et comprises the determination of a difference (E) between a first image (IMAC) reflecting a first state of aging of said thermal engine at a first instant ( tAC ) of said cold start in progress and a second image ( IMDA) reflecting a second aging state of said thermal engine at a second instant ( tDA ) of said previous cold start, said images (IMAC, IMDA) being represented by a set of second physical parameters (PP) of said thermal engine and/or a vehicle comprising said thermal engine , and a comparison of said deviation (E) to a predetermined threshold (TH), said chosen corrected injected fuel quantity being judged obsolete (I/A ) when said deviation (E) is greater than said predetermined threshold (TH).
Sample container carrier for holding a laboratory sample container and for transporting the held laboratory sample container in a laboratory sample distribution system , the sample container carrier comprising: - a first holding element , - a second holding element , - wherein the first holding element and the second holding element are translationally displaceable towards and/or away from each other for holding the laboratory sample container , and - a coupler , wherein the coupler is connected to the first holding element and to the second holding element , such that the coupler couples translational displacements of the first holding element and the second holding element with each other, characterized in that - the coupler is rotationally and/or translationally moveable, such that the coupler couples by its rotational and/or translational movement the translational displacements of the first holding element and the second holding element with each other, and - the sample container carrier comprises at least one slanted surface coupling , wherein the coupler is connected to the first holding element and/or to the second holding element by the at least one slanted surface coupling , - wherein the at least one slanted surface coupling comprises a protrusion and a protrusion guidance being translationally moveable to each other, wherein the protrusion guidance comprises at least one slanted surface , wherein the protrusion is adapted to cooperate together with the slanted surface for the translational movement. - a first holding element , - a second holding element , - wherein the first holding element and the second holding element are translationally displaceable towards and/or away from each other for holding the laboratory sample container , and - a coupler , wherein the coupler is connected to the first holding element and to the second holding element , such that the coupler couples translational displacements of the first holding element and the second holding element with each other, characterized in that - the coupler is rotationally and/or translationally moveable, such that the coupler couples by its rotational and/or translational movement the translational displacements of the first holding element and the second holding element with each other, and - the sample container carrier comprises at least one slanted surface coupling , wherein the coupler is connected to the first holding element and/or to the second holding element by the at least one slanted surface coupling , - wherein the at least one slanted surface coupling comprises a protrusion and a protrusion guidance being translationally moveable to each other, wherein the protrusion guidance comprises at least one slanted surface , wherein the protrusion is adapted to cooperate together with the slanted surface for the translational movement.
A communications device comprising: means for receiving , from a source communications node (5-1), a message to perform a handover, the message including a Cell-Radio Network Temporary Identifier, C-RNTI; means for detaching from a cell of the source communications node (5-1); means for synchronizing with a cell of a target communications node (5-2); characterized by means for transmitting , to the target communications node (5-2), a handover complete message together with a buffer status report including information of an amount of buffered uplink data stored in an uplink data buffer; and means for transmitting , to the target communications node (5-2), uplink data using resources allocated by the target communications node (5-2) based on the buffer status report. means for receiving , from a source communications node (5-1), a message to perform a handover, the message including a Cell-Radio Network Temporary Identifier, C-RNTI; means for detaching from a cell of the source communications node (5-1); means for synchronizing with a cell of a target communications node (5-2); characterized by means for transmitting , to the target communications node (5-2), a handover complete message together with a buffer status report including information of an amount of buffered uplink data stored in an uplink data buffer; and means for transmitting , to the target communications node (5-2), uplink data using resources allocated by the target communications node (5-2) based on the buffer status report.
A processor system comprising: a master processor (12; 112) that successively processes a plurality of tasks; a checker processor (14; 114) that successively processes at least one of the plurality of tasks; and a control circuit (2; 124; 324; 424; 524; 624) that performs control so that the checker processor operates when the master processor and the checker processor perform a lock-step operation, and the checker processor stops its operation when the master processor and the checker processor do not perform the lock-step operation, the lock-step operation being an operation in which each of the master processor and the checker processor processes the same task, wherein the control circuit performs control so that a period from when a task is processed by the lock-step operation to when another task is processed in the next lock-step operation is equal to or shorter than a maximum test period that is predetermined, characterized in that the maximum test period is defined as the time that is obtained by subtracting the sum of a fault reaction time and a time necessary for a test process from a fault tolerant time interval, the fault reaction time is a period from when a fault is detected to when the processor system changes to a stopped state, and the fault tolerant time interval is a period from when a fault occurs in the processor system to when the processor system changes to a stopped state. a master processor (12; 112) that successively processes a plurality of tasks; a checker processor (14; 114) that successively processes at least one of the plurality of tasks; and a control circuit (2; 124; 324; 424; 524; 624) that performs control so that the checker processor operates when the master processor and the checker processor perform a lock-step operation, and the checker processor stops its operation when the master processor and the checker processor do not perform the lock-step operation, the lock-step operation being an operation in which each of the master processor and the checker processor processes the same task, wherein the control circuit performs control so that a period from when a task is processed by the lock-step operation to when another task is processed in the next lock-step operation is equal to or shorter than a maximum test period that is predetermined, characterized in that the maximum test period is defined as the time that is obtained by subtracting the sum of a fault reaction time and a time necessary for a test process from a fault tolerant time interval, the fault reaction time is a period from when a fault is detected to when the processor system changes to a stopped state, and the fault tolerant time interval is a period from when a fault occurs in the processor system to when the processor system changes to a stopped state.
Device for detecting a voltage drop in an AC power supply delivering electrical energy to an energy converter in order to supply power to an item of electrical equipment , the device being connected to an electrical energy store to supply power to the energy converter, characterized in that the device comprises: - a full-wave rectifier for rectifying the AC power supply, - a comparator that compares a first predetermined voltage with a full-wave rectified voltage obtained from the full-wave rectifier that rectifies the AC power supply, - a capacitor charging circuit for charging the capacitor when the rectified voltage is lower than the first predetermined voltage, - a capacitor discharging circuit for discharging the capacitor when the rectified voltage is greater than the first predetermined voltage, - a comparator for comparing the voltage across the terminals of the capacitor with a second predetermined voltage, - a circuit for controlling the electrical energy store to activate the electrical energy store to provide electrical energy from the energy converter only when the voltage across the terminals of the capacitor is greater than the second predetermined voltage, - means for voltage-shifting the full-wave rectified voltage when the voltage across the terminals of the capacitor is greater than the second predetermined voltage. - a full-wave rectifier for rectifying the AC power supply, - a comparator that compares a first predetermined voltage with a full-wave rectified voltage obtained from the full-wave rectifier that rectifies the AC power supply, - a capacitor charging circuit for charging the capacitor when the rectified voltage is lower than the first predetermined voltage, - a capacitor discharging circuit for discharging the capacitor when the rectified voltage is greater than the first predetermined voltage, - a comparator for comparing the voltage across the terminals of the capacitor with a second predetermined voltage, - a circuit for controlling the electrical energy store to activate the electrical energy store to provide electrical energy from the energy converter only when the voltage across the terminals of the capacitor is greater than the second predetermined voltage, - means for voltage-shifting the full-wave rectified voltage when the voltage across the terminals of the capacitor is greater than the second predetermined voltage.
Method for controlling a vehicle system of a vehicle set up for carrying out an automated driving operation, wherein the vehicle is localised and wherein the vehicle system is enabled for activation depending on a result of the localisation, characterised in that - the vehicle is localised using at least two different localisation methods (LML, LMG), wherein the at least two localisation methods (LML, LMG) include at least one landmark-based localisation method (LML) and a localisation method (LMG) based on at least one global navigation satellite system, and - the vehicle system is only enabled for activation if it has been confirmed by means of each of the localisation methods (LML, LMG) used that the vehicle is on a route section (FS) approved for the automated driving operation. - the vehicle is localised using at least two different localisation methods (LML, LMG), wherein the at least two localisation methods (LML, LMG) include at least one landmark-based localisation method (LML) and a localisation method (LMG) based on at least one global navigation satellite system, and - the vehicle system is only enabled for activation if it has been confirmed by means of each of the localisation methods (LML, LMG) used that the vehicle is on a route section (FS) approved for the automated driving operation.
Cooling system for liquid-cooled internal combustion engines, having a regulable coolant pump and having a regulating element which regulates the throughflow rate, wherein the coolant pump is of multichannel design with multiple pump channels , which are assigned to coolant circuits which are in each case separated from one another, wherein at least one of the pump channels is, by means of the regulating element , variable in terms of its delivery power, characterized in that , for regulating the variable delivery power of at least one of the pump channels , the regulating element is able to be charged by means of a predefined quantity of a coolant from another, separated, first pump channel .