mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a mobile station capable of sending event-based acknowledgment information, the method comprising: classifying a first downlink data block as unreported; determining whether a poll is received from a network requesting the mobile station to send acknowledgment information during a period; determining whether to send during the period event-based acknowledgment information for the first downlink data block classified as unreported based on whether the mobile station is also to send during the period polled acknowledgment information for the first downlink data block classified as unreported; sending during the period the event-based acknowledgment information for the first downlink data block classified as unreported if the mobile station is not to send during the period any polled acknowledgment information for the first downlink data block classified as unreported; and refraining from sending during the period the event-based acknowledgment information for the first downlink data block classified as unreported if the mobile station is to send during the period the polled acknowledgment information for the first downlink data block classified as unreported. classifying a first downlink data block as unreported; determining whether a poll is received from a network requesting the mobile station to send acknowledgment information during a period; determining whether to send during the period event-based acknowledgment information for the first downlink data block classified as unreported based on whether the mobile station is also to send during the period polled acknowledgment information for the first downlink data block classified as unreported; sending during the period the event-based acknowledgment information for the first downlink data block classified as unreported if the mobile station is not to send during the period any polled acknowledgment information for the first downlink data block classified as unreported; and refraining from sending during the period the event-based acknowledgment information for the first downlink data block classified as unreported if the mobile station is to send during the period the polled acknowledgment information for the first downlink data block classified as unreported.
A method for operating a machine type communication, MTC, device configured for wireless communications, the method comprising: receiving , by the MTC device, a reporting request including a resource allocation indicating an uplink resource and a reporting condition that information stored at the MTC device is required to satisfy in order for the MTC device to transmit a report that includes the information stored at the MTC device which satisfies the reporting condition; and initiating , by the MTC device, an uplink transmission procedure to transmit the report using the uplink resource when the information stored at the MTC device satisfies the reporting condition, wherein the uplink resource further includes a physical random access channel, PRACH, partition identifier, and wherein the uplink transmission procedure comprises a random access procedure that is initiated to transmit the report using the PRACH partition identified by the PRACH partition identifier. receiving , by the MTC device, a reporting request including a resource allocation indicating an uplink resource and a reporting condition that information stored at the MTC device is required to satisfy in order for the MTC device to transmit a report that includes the information stored at the MTC device which satisfies the reporting condition; and initiating , by the MTC device, an uplink transmission procedure to transmit the report using the uplink resource when the information stored at the MTC device satisfies the reporting condition, wherein the uplink resource further includes a physical random access channel, PRACH, partition identifier, and wherein the uplink transmission procedure comprises a random access procedure that is initiated to transmit the report using the PRACH partition identified by the PRACH partition identifier.
A three-dimensional test device , for simulating reactor pressure vessel, RPV, heat exchange characteristics when an accident occurs, wherein the three-dimensional test device comprises a tube portion , a lower head that is hemispherical and connected to a lower end of the tube portion, and a heating assembly disposed in the lower head; and wherein the tube portion is a non-heating portion; and the heating assembly is disposed in the lower head to form a three-dimensional heating portion, wherein the lower head is provided with an annular recess on an inner wall surface adjacent to an opening side, characterised in that the lower head is separated by the recess into a non-heating section and a heating section respectively on an upper side and a lower side of the recess ; the lower head is connected with the tube portion via the non-heating section , and the heating assembly is disposed in the heating section . the tube portion is a non-heating portion; and the heating assembly is disposed in the lower head to form a three-dimensional heating portion, wherein the lower head is provided with an annular recess on an inner wall surface adjacent to an opening side, characterised in that the lower head is separated by the recess into a non-heating section and a heating section respectively on an upper side and a lower side of the recess ; the lower head is connected with the tube portion via the non-heating section , and the heating assembly is disposed in the heating section .
A powered device , comprising: a digital addressable lighting interface, DALI (DALI, 250,245), connected to a load, the load to be powered by a power source; an opto 2. isolator ; a controller positioned on a primary side of the isolator, characterised in that the controller is configured to generate a first signal to select whether to provide power to the opto isolator so that the opto isolator is conducting or not conducting, wherein when the opto isolator is conducting the DALI has a maximum current value and when the opto isolator is not conducting the DALI has a zero current value, the controller further configured to generate a modulated second signal to provide power to the opto isolator, so that the opto isolator is conducting with a duty cycle and frequency, and wherein the DALI has a selected current value between the zero current value and the maximum current value, based on the modulated second signal; and a buck converter which is configured for receiving a current reference based on a voltage reference based on the second signal, the buck converter being configured for generating a fixed voltage to the DALI. a digital addressable lighting interface, DALI (DALI, 250,245), connected to a load, the load to be powered by a power source; an opto 2. isolator ; a controller positioned on a primary side of the isolator, characterised in that the controller is configured to generate a first signal to select whether to provide power to the opto isolator so that the opto isolator is conducting or not conducting, wherein when the opto isolator is conducting the DALI has a maximum current value and when the opto isolator is not conducting the DALI has a zero current value, the controller further configured to generate a modulated second signal to provide power to the opto isolator, so that the opto isolator is conducting with a duty cycle and frequency, and wherein the DALI has a selected current value between the zero current value and the maximum current value, based on the modulated second signal; and a buck converter which is configured for receiving a current reference based on a voltage reference based on the second signal, the buck converter being configured for generating a fixed voltage to the DALI.
Vertical npn bipolar transistor comprising a lateral drift region, LDVB transistor, with a vertical layer sequence of emitter , base and collector, wherein the collector has a doped inner collector region of a first conductivity type, namely an n-conductivity type, and a collector connection region doped more heavily than the inner collector region, and wherein to the inner collector region in lateral direction, which is perpendicular to a vertical stacking direction of the layer sequence, a collector drift region of the first conductivity type doped more lightly than the inner collector region is attached, by means of which the inner collector region is connected to the collector connection region and which represents the single electrical connection between the inner collector region and the collector connection region , and comprising a p-doped silicon substrate , which below the collector drift region over the whole extension of the collector drift region in lateral direction and also over the whole extension of the substrate in its depth direction opposite the stacking direction has throughout no high dopant region of the first conductivity type which is suitable for reducing the collector resistance, wherein the dopant concentration of the collector drift region is measured such that a maximum areal density of free charge carriers of 2.5x10 12 cm -2 is not exceeded.
A remote operating lever unit for operating a brake unit mounted to a wheeled vehicle, comprising: - a lever for operation by a user; - a main body holding the lever in a displaceable manner; - a holder holding the main body ; and - a connecting portion detachably engaging the main body and the holder at an arbitrary angle around an axis (X) perpendicular to a plane in which the lever displaces, characterised in that the remote operating lever unit is configured to operate the brake unit via only a wireless or wired signal transmission, wherein the main body includes a control unit for transmitting a signal to the brake unit based on a displacement amount of the lever from a neutral position thereof, wherein the remote operating lever unit further comprises a calibration means for calibrating the signal to be generated based on the displacement amount of the lever from the neutral position, taking a change in a movable range of the lever from the neutral position to a full brake position as a result of adjustment of the neutral position of the lever with respect to and via the connecting portion, into account. - a lever for operation by a user; - a main body holding the lever in a displaceable manner; - a holder holding the main body ; and - a connecting portion detachably engaging the main body and the holder at an arbitrary angle around an axis (X) perpendicular to a plane in which the lever displaces, the remote operating lever unit is configured to operate the brake unit via only a wireless or wired signal transmission, wherein the main body includes a control unit for transmitting a signal to the brake unit based on a displacement amount of the lever from a neutral position thereof, wherein the remote operating lever unit further comprises a calibration means for calibrating the signal to be generated based on the displacement amount of the lever from the neutral position, taking a change in a movable range of the lever from the neutral position to a full brake position as a result of adjustment of the neutral position of the lever with respect to and via the connecting portion, into account.
A process for treating crop kernels, comprising the steps of: a) soaking kernels in water to produce soaked kernels; b) grinding the soaked kernels; and c) treating the soaked kernels in the presence of an effective amount of a GH62 polypeptide having arabinofuranosidase activity and a GH10 polypeptide having xylanase activity; wherein step c) is performed after step b) in a fiber washing step. a) soaking kernels in water to produce soaked kernels; b) grinding the soaked kernels; and c) treating the soaked kernels in the presence of an effective amount of a GH62 polypeptide having arabinofuranosidase activity and a GH10 polypeptide having xylanase activity;
A sintered electrical contact material comprising: a silver matrix; and at least one salt dispersed within the silver matrix, wherein the at least one salt is present in an amount of up to 15% by weight based on the total weight of the sintered electrical contact material (wt/wt), wherein the at least one salt has a melting temperature below 960°C and wherein the at least one salt is selected from lithium fluoride, zinc nitride, sodium sulfate, and magnesium carbonate; the material comprising no more than 100 ppm (parts per million) weight fraction (wt/wt) of cadmium and cadmium compounds. a silver matrix; and at least one salt dispersed within the silver matrix, wherein the at least one salt is present in an amount of up to 15% by weight based on the total weight of the sintered electrical contact material (wt/wt), wherein the at least one salt has a melting temperature below 960°C and wherein the at least one salt is selected from lithium fluoride, zinc nitride, sodium sulfate, and magnesium carbonate; the material comprising no more than 100 ppm (parts per million) weight fraction (wt/wt) of cadmium and cadmium compounds.
A method performed at a user equipment, UE, to reduce buffer overhead, comprising receiving an initial transmission packet and a retransmission packet associated with an incremental redundancy, IR, hybrid automatic repeat request, HARQ, process; forming a plurality of log likelihood ratios, LLRs, based on each received packet; compressing the plurality of LLRs by quantizing groups of five LLRs to three levels each and mapping each group of five quantized three level LLRs to eight bits using a lookup table; and buffering the compressed plurality of LLRs. receiving an initial transmission packet and a retransmission packet associated with an incremental redundancy, IR, hybrid automatic repeat request, HARQ, process; forming a plurality of log likelihood ratios, LLRs, based on each received packet; compressing the plurality of LLRs by quantizing groups of five LLRs to three levels each and mapping each group of five quantized three level LLRs to eight bits using a lookup table; and buffering the compressed plurality of LLRs.
A fault diagnosis method for a vehicle, comprising the steps of: Detecting (S10), by a controller, whether a reference engineering code (REC) has been generated, in which the reference engineering code (RCE) is generated in case an error count, occurring when any of specifications of a part falls out of normal range, is detected; Measuring (S20), by the controller, a time for which the reference engineering code (REC) has been generated, if the reference engineering code (REC) has been generated as a result of performing the detecting step (S10); Calculating (S30), by the controller, a percentage of the reference engineering code (REC), based on both the time for which the reference engineering code (REC) has been generated and a preset time, after the measuring step (S20); Storing (S40), by the controller, the reference engineering code (REC) and the percentage of the reference engineering code (REC), after the calculating step (S30); and when a request signal is received from a diagnostic device, providing (S60), by the controller, an output signal that includes the stored reference engineering code (REC) and the stored percentage of the reference engineering code (REC) to the diagnostic device, after the storing step (S40), wherein the preset time is a time for which the reference engineering code (REC) has been generated until a diagnostic trouble code (DTC) is fixed. Detecting (S10), by a controller, whether a reference engineering code (REC) has been generated, in which the reference engineering code (RCE) is generated in case an error count, occurring when any of specifications of a part falls out of normal range, is detected; Measuring (S20), by the controller, a time for which the reference engineering code (REC) has been generated, if the reference engineering code (REC) has been generated as a result of performing the detecting step (S10); Calculating (S30), by the controller, a percentage of the reference engineering code (REC), based on both the time for which the reference engineering code (REC) has been generated and a preset time, after the measuring step (S20); Storing (S40), by the controller, the reference engineering code (REC) and the percentage of the reference engineering code (REC), after the calculating step (S30); and when a request signal is received from a diagnostic device, providing (S60), by the controller, an output signal that includes the stored reference engineering code (REC) and the stored percentage of the reference engineering code (REC) to the diagnostic device, after the storing step (S40), wherein the preset time is a time for which the reference engineering code (REC) has been generated until a diagnostic trouble code (DTC) is fixed.
A heat radiation member comprising a laminated structure including a metal material and a carbon material having a following property (A) bonded to each other; (A) in pressurizing one principal surface of a plate specimen having a thickness of 11 mm of the carbon material with nitrogen gas of 200 kPa, the carbon material having a gas permeability of the nitrogen gas permeating to the other principal surface with a flow rate of 5 L/min or more and 30 L/min or less per 0.01 m 2 in terms of area of the pressurized principal surface, the pressurized principal surface having an area of 0.005 m 2 or more. (A) in pressurizing one principal surface of a plate specimen having a thickness of 11 mm of the carbon material with nitrogen gas of 200 kPa, the carbon material having a gas permeability of the nitrogen gas permeating to the other principal surface with a flow rate of 5 L/min or more and 30 L/min or less per 0.01 m 2 in terms of area of the pressurized principal surface, the pressurized principal surface having an area of 0.005 m 2 or more.
A process for producing a ruthenium-iron-carbon support catalyst comprising from 0.1 to 5% by weight of iron in addition to from 0.1 to 10% by weight of ruthenium on a carbon support by a) introduction of a support into water b) simultaneous addition of the catalytically active components ruthenium and iron in the form of solutions of their metal salts c) coprecipitation of the catalytically active components on the support by addition of a base d) separation of the catalyst from the aqueous phase of the support suspension e) drying of the catalyst f) reduction of the catalyst in a stream of hydrogen at 100 to below 400°C g) deinstallation of the catalyst under relatively nonflammable liquids or passivation of the catalyst by passing a diluted oxygen stream over it or passivation of the catalyst by passing a diluted oxygen stream over it and deinstallation of the catalyst under relatively nonflammable liquids. a) introduction of a support into water b) simultaneous addition of the catalytically active components ruthenium and iron in the form of solutions of their metal salts c) coprecipitation of the catalytically active components on the support by addition of a base d) separation of the catalyst from the aqueous phase of the support suspension e) drying of the catalyst f) reduction of the catalyst in a stream of hydrogen at 100 to below 400°C g) deinstallation of the catalyst under relatively nonflammable liquids or passivation of the catalyst by passing a diluted oxygen stream over it or passivation of the catalyst by passing a diluted oxygen stream over it and deinstallation of the catalyst under relatively nonflammable liquids. passivation of the catalyst by passing a diluted oxygen stream over it or passivation of the catalyst by passing a diluted oxygen stream over it and deinstallation of the catalyst under relatively nonflammable liquids.
A motor driving control apparatus, comprising: a driving unit configured to drive a motor ; and a controller configured to control the driving unit to start regeneration after lapse of a first time period (T3) since a second predetermined time period (T1) elapsed or gradually increase a regeneration amount, when a state that an acceleration of a vehicle on which the motor is embodied is negative and equal to or less than a first predetermined value (-A1) continues for the second predetermined time period (T1), wherein the controller controls the driving unit to stop or suppress the regeneration when a state that the acceleration of the vehicle is equal to or greater than a second predetermined value (-A2) continues for a third predetermined time period (T2), after instructing the driving unit to start the regeneration, and characterised in that the second predetermined value (-A2) is a negative value greater than the first predetermined value (-A1) to detect an end of a braking operation, and the second predetermined time period (T1) is longer than the third predetermined time period (T2), and the acceleration of the vehicle is a smoothed value. a driving unit configured to drive a motor ; and a controller configured to control the driving unit to start regeneration after lapse of a first time period (T3) since a second predetermined time period (T1) elapsed or gradually increase a regeneration amount, when a state that an acceleration of a vehicle on which the motor is embodied is negative and equal to or less than a first predetermined value (-A1) continues for the second predetermined time period (T1), wherein the controller controls the driving unit to stop or suppress the regeneration when a state that the acceleration of the vehicle is equal to or greater than a second predetermined value (-A2) continues for a third predetermined time period (T2), after instructing the driving unit to start the regeneration, and characterised in that the second predetermined value (-A2) is a negative value greater than the first predetermined value (-A1) to detect an end of a braking operation, and the second predetermined time period (T1) is longer than the third predetermined time period (T2), and the acceleration of the vehicle is a smoothed value.