mhurhangee/ep-ind-claims huggingface dataset:
A method based on data duplication transmission, comprising: receiving, by a terminal device, uplink grant information; and receiving, by the terminal device, first indication information, wherein the first indication information is used for indicating whether data of at least one logical channel of the terminal device is capable of being transmitted by using an uplink resource indicated by the uplink grant information; wherein the first indication information comprises a logical channel identifier of a logical channel capable of using the uplink resource to transmit data of the logical channel, and comprises a logical channel identifier of a logical channel not capable of using the uplink resource to transmit data of the logical channel. receiving, by a terminal device, uplink grant information; and receiving, by the terminal device, first indication information, wherein the first indication information is used for indicating whether data of at least one logical channel of the terminal device is capable of being transmitted by using an uplink resource indicated by the uplink grant information; wherein the first indication information comprises a logical channel identifier of a logical channel capable of using the uplink resource to transmit data of the logical channel, and comprises a logical channel identifier of a logical channel not capable of using the uplink resource to transmit data of the logical channel.
A rotor blade assembly comprising: a composite blade portion (46, 46a, 46b, 46c, 46d) extending a length (64, 64d) from a root (66, 66c) to a tip, wherein a leading edge (72, 72d) of said composite blade portion (46, 46a, 46b, 46c, 46d) extends from said tip to an end point along said length (64, 64d) between said tip and said root; a base portion (74, 74d) fixed to the root of said composite blade portion (46, 46a, 46b, 46c, 46d); a sheath (76, 76a, 76b, 76c, 76d) extending around said composite blade portion, along said length, and between said root (66, 66c) and said end point of said leading edge (72, 72d), and a conduit (128d, 132d) for routing a cooling fluid, the conduit (128d, 132d) including an opening (130d, 134d) positioned in a gap between said sheath and said composite blade portion along at least a part of said length between said root and said end point of said leading edge. a composite blade portion (46, 46a, 46b, 46c, 46d) extending a length (64, 64d) from a root (66, 66c) to a tip, wherein a leading edge (72, 72d) of said composite blade portion (46, 46a, 46b, 46c, 46d) extends from said tip to an end point along said length (64, 64d) between said tip and said root; a base portion (74, 74d) fixed to the root of said composite blade portion (46, 46a, 46b, 46c, 46d); a sheath (76, 76a, 76b, 76c, 76d) extending around said composite blade portion, along said length, and between said root (66, 66c) and said end point of said leading edge (72, 72d), and a conduit (128d, 132d) for routing a cooling fluid, the conduit (128d, 132d) including an opening (130d, 134d) positioned in a gap between said sheath and said composite blade portion along at least a part of said length between said root and said end point of said leading edge.
A control device for a vehicle, the vehicle including an internal combustion engine connected to a driving shaft to transmit power, and an electric motor ( MG1, MG2) connected to the driving shaft to transmit power, the control device comprising: an electronic control unit configured to (a) compute compensation torque that reduces a pulsation component of engine torque of the internal combustion engine; (b) command a value in which required torque of the electric motor ( MG1, MG2) is combined with a computed compensation torque to the electric motor ( MG1, MG2) as a torque command value of the electric motor ( MG1, MG2); (c) estimate an average input torque value input into the driving shaft; and (d) correct the torque command value such that the value opposite in sign to an average torque command value is not commanded to the electric motor ( MG1, MG2) when an estimated average input torque value is equal to or smaller than a predetermined value and the average torque command value is smaller than an amplitude of the torque command value. (a) compute compensation torque that reduces a pulsation component of engine torque of the internal combustion engine; (b) command a value in which required torque of the electric motor ( MG1, MG2) is combined with a computed compensation torque to the electric motor ( MG1, MG2) as a torque command value of the electric motor ( MG1, MG2); (c) estimate an average input torque value input into the driving shaft; and (d) correct the torque command value such that the value opposite in sign to an average torque command value is not commanded to the electric motor ( MG1, MG2) when an estimated average input torque value is equal to or smaller than a predetermined value and the average torque command value is smaller than an amplitude of the torque command value.
A motor control device for controlling, by a duty control, a current supplied to a motor, the motor control device comprising: a driving controller that performs on/off control of the current supplied to the motor with a first period; an off controller that performs off control for the motor with a second period separately from the on/off control performed by the driving controller, the second period being longer than the first period; and a voltage acquiring section that acquires a voltage between terminals of the motor during a time period in which the off control is performed by the off controller, characterized in that the off controller initiates the off control at a time point which is a predetermined time before a timing at which the voltage acquiring section acquires the voltage between the terminals, and wherein the off controller monitors the value of a period counter operated by the voltage acquiring section such that if the value of the period counter becomes equal to or smaller than a predetermined threshold, the off controller is configured to cut off current flowing to the motor. a driving controller that performs on/off control of the current supplied to the motor with a first period; an off controller that performs off control for the motor with a second period separately from the on/off control performed by the driving controller, the second period being longer than the first period; and a voltage acquiring section that acquires a voltage between terminals of the motor during a time period in which the off control is performed by the off controller, characterized in that the off controller initiates the off control at a time point which is a predetermined time before a timing at which the voltage acquiring section acquires the voltage between the terminals, and wherein the off controller monitors the value of a period counter operated by the voltage acquiring section such that if the value of the period counter becomes equal to or smaller than a predetermined threshold, the off controller is configured to cut off current flowing to the motor.
A method for preparing an expansible hydrogel filament prior to implantation in an animal comprising: a) combining a difunctional, low molecular weight ethylenically unsaturated shapeable macromer having a molecular weight between 400 g/mole and 1,000 g/mole, an ethylenically unsaturated monomer having ionisable functional groups, a visualization agent, and a solvent to prepare a prepolymer solution; b) reacting the prepolymer solution thereby forming a hydrogel filament having no support members; and c) treating the hydrogel filament to render the hydrogel filament expansible at physiological conditions. a) combining a difunctional, low molecular weight ethylenically unsaturated shapeable macromer having a molecular weight between 400 g/mole and 1,000 g/mole, an ethylenically unsaturated monomer having ionisable functional groups, a visualization agent, and a solvent to prepare a prepolymer solution; b) reacting the prepolymer solution thereby forming a hydrogel filament having no support members; and c) treating the hydrogel filament to render the hydrogel filament expansible at physiological conditions.
A control device for a multi-cylinder internal combustion engine, comprising: a supercharger to be driven by exhaust gas energy; and a fuel injection control means, wherein the fuel injection control means sets a fuel injection amount for one cylinder so that an air/fuel ratio in the one cylinder is richer than a theoretical air/fuel ratio, and exhaust gas exhausted when the one cylinder is in an exhaust stroke and scavenging gas scavenged during a valve overlap period from another cylinder which is in an intake stroke when the one cylinder is in the exhaust stroke are mixed in an exhaust pipe so as to attain a desired air/fuel ratio, characterized in that the fuel injection control means sets the fuel injection amount for the one cylinder based on a new air amount when an intake stroke of the one cylinder finishes and a new air amount in the scavenging gas scavenged from the another cylinder which is in the intake stroke when the one cylinder is in the exhaust stroke, wherein the new air amount in the scavenging gas is based on a scavenging rate and an intake air amount of the another cylinder. a supercharger to be driven by exhaust gas energy; and a fuel injection control means, wherein the fuel injection control means sets a fuel injection amount for one cylinder so that an air/fuel ratio in the one cylinder is richer than a theoretical air/fuel ratio, and exhaust gas exhausted when the one cylinder is in an exhaust stroke and scavenging gas scavenged during a valve overlap period from another cylinder which is in an intake stroke when the one cylinder is in the exhaust stroke are mixed in an exhaust pipe so as to attain a desired air/fuel ratio,
Kitchen appliance comprising a hob and an extractor device at least partially introduced into the hob, wherein the kitchen appliance comprises at least one display device for the extractor device, which has at least one lighting device and an output area for the output of light from the lighting device, and at least the output area lies in the region of the extractor device, wherein the extractor device has a housing, which serves to conduct the drawn-in air, and a frame, which covers the housing from above, wherein at least one suction opening is provided in the frame and the extractor device is arranged in the hob in an inflexible manner, characterised in that the output area extends over at least part of the edge of the extractor device and is provided on the outer edge of the frame or of the housing.
Adjustable damper valve device having a first adjustable damper valve assembly for a first throughflow direction and a second adjustable damper valve assembly for a second throughflow direction, it being possible for the two damper valve assemblies (43; 45) to be adjusted independently of one another, characterized in that the first damper valve assembly generates a damper force only for one throughflow direction, and the second damper valve assembly has a minimum cross section, through which the damper medium can flow, in the setting for the maximum possible damper force, with the result that the second damper valve assembly generates a damper force in both throughflow directions.
A method, comprising: receiving, by a bootstrapping server function in a wireless network from a mobile node, a first message that is comprised of a list of authentication mechanisms supported by the mobile node and, in association with each authentication mechanism, a corresponding identity of the mobile node; determining by the bootstrapping server function, an authentication mechanism to be used for bootstrapping, based at least on the list received from the mobile node; and including information in a second message that is sent to the mobile node, the information comprising the determined authentication mechanism in conjunction with a corresponding identity of the mobile node. receiving, by a bootstrapping server function in a wireless network from a mobile node, a first message that is comprised of a list of authentication mechanisms supported by the mobile node and, in association with each authentication mechanism, a corresponding identity of the mobile node; determining by the bootstrapping server function, an authentication mechanism to be used for bootstrapping, based at least on the list received from the mobile node; and including information in a second message that is sent to the mobile node, the information comprising the determined authentication mechanism in conjunction with a corresponding identity of the mobile node.
A straddle electric vehicle (1, 101, 301, 401, 501) which drives by a driving power generated by an electric motor, the straddle electric vehicle comprising: a battery case accommodating a battery which is an electric power supply for the electric motor; an air passage (50, 350, 450, 550) through which ram air is guided to an interior of the battery case and which discharges air from the battery case; and a radiator (36, 136, 336, 436, 536) for cooling a coolant used to cool an inverter or the electric motor using water or oil, wherein the radiator (36, 136, 336, 436, 536) is placed upstream of the battery case, characterized in that the straddle electric vehicle (1, 101, 301, 401, 501) further comprises an inverter which converts DC power stored in the battery into AC power and supplies the AC power to the electric motor; wherein the radiator (36, 136, 336, 436, 536) is placed within the air passage (50, 350, 450, 550) and serves as a filter to separate moisture from the ram air moving toward the battery case. a battery case accommodating a battery which is an electric power supply for the electric motor; an air passage (50, 350, 450, 550) through which ram air is guided to an interior of the battery case and which discharges air from the battery case; and a radiator (36, 136, 336, 436, 536) for cooling a coolant used to cool an inverter or the electric motor using water or oil, wherein the radiator (36, 136, 336, 436, 536) is placed upstream of the battery case, characterized in that the straddle electric vehicle (1, 101, 301, 401, 501) further comprises an inverter which converts DC power stored in the battery into AC power and supplies the AC power to the electric motor; wherein the radiator (36, 136, 336, 436, 536) is placed within the air passage (50, 350, 450, 550) and serves as a filter to separate moisture from the ram air moving toward the battery case.
A method, comprising: receiving, by an ingress engine running on processing circuitry of a computing system, a plurality of messages from a network device in a data center comprising a plurality of network devices and the computing system, wherein the plurality of messages comprise data configured according to a particular protocol type; defining, by a server communicatively coupled to the computing system, a policy including: a first attribute indicating a high tolerance for reordering of messages comprising data configured according to a first protocol type, and a second attribute indicating a low tolerance for reordering of messages comprising data configured according to a second protocol type; and in response to receiving the plurality of messages from the network device in the data center, communicating, by the ingress engine, the plurality of messages to: a plurality of appropriate collector applications when the particular protocol type is the first protocol type, or a particular appropriate collector application when the particular protocol type is the second protocol type. receiving, by an ingress engine running on processing circuitry of a computing system, a plurality of messages from a network device in a data center comprising a plurality of network devices and the computing system, wherein the plurality of messages comprise data configured according to a particular protocol type; defining, by a server communicatively coupled to the computing system, a policy including: a first attribute indicating a high tolerance for reordering of messages comprising data configured according to a first protocol type, and a second attribute indicating a low tolerance for reordering of messages comprising data configured according to a second protocol type; and a first attribute indicating a high tolerance for reordering of messages comprising data configured according to a first protocol type, and a second attribute indicating a low tolerance for reordering of messages comprising data configured according to a second protocol type; and in response to receiving the plurality of messages from the network device in the data center, communicating, by the ingress engine, the plurality of messages to: a plurality of appropriate collector applications when the particular protocol type is the first protocol type, or a particular appropriate collector application when the particular protocol type is the second protocol type. a plurality of appropriate collector applications when the particular protocol type is the first protocol type, or a particular appropriate collector application when the particular protocol type is the second protocol type.
Mounted reversible plow comprising a headstock for mounting on a tractor and comprising a plow frame, which is arranged on the headstock via a link mechanism, with plow bodies pivotably arranged thereon, the plow bodies being adjustably pivotable in their working width by means of a cutting width actuator, the plow frame being adjustably displaceable in the front furrow width, so as to be adapted to the track width of the tractor, by means of a track width actuator at least approximately in parallel with the direction of travel relative to the headstock via the link mechanism, the track width actuator being controllable by means of a frame displacement controller for different stroke positions of the cutting width actuator into different stroke positions for achieving a front furrow width adapted to the working width, characterized in that the frame displacement controller comprises an actuatable directional control valve with at least two switching positions, so that the track width actuator can optionally be adjusted individually or the cutting width actuator and the track width actuator can be adjusted together.
A portable device for estimating at least one parameter characteristic of a polymer material, characterized in that the device comprises: at least one infrared source, the at least one infrared source being at least one infrared light-emitting diode or at least one laser source, at least one infrared detector, characterized in that it is provided as infrared source at least two infrared sources, which are capable of emitting towards the polymer material respectively at least two different spectral lines (R1, R2, R3, R4, R5, R6), representing each a maximum emission energy, selected in respectively at least two different of the wavelengths 10 μm, 9.5 μm, 7.2 μm, 6 μm, 3.5 μm, 2.7 μm or in respectively at least two different of the wave numbers 1000 cm -1, 1050 cm -1, 1350 cm -1, 1700 cm -1, 2900 cm -1, 3700 cm -1, the at least one infrared detector is capable of receiving the at least two spectral lines (R1, R2, R3, R4, R5, R6), which are reflected by the polymer material in response to the at least two spectral lines (R1, R2, R3, R4, R5, R6), having been emitted by the at least two infrared sources, the device comprising a determination unit for determining the parameter characteristic of the polymer material as a function of the energy present in the at least two spectral lines (R1, R2, R3, R4, R5, R6), having been reflected by the polymer material and having been received by the infrared detector in response to the at least two spectral lines (R1, R2, R3, R4, R5, R6) having been emitted by the at least two infrared sources. at least one infrared source, the at least one infrared source being at least one infrared light-emitting diode or at least one laser source, at least one infrared detector, characterized in that it is provided as infrared source at least two infrared sources, which are capable of emitting towards the polymer material respectively at least two different spectral lines (R1, R2, R3, R4, R5, R6), representing each a maximum emission energy, selected in respectively at least two different of the wavelengths 10 μm, 9.5 μm, 7.2 μm, 6 μm, 3.5 μm, 2.7 μm or in respectively at least two different of the wave numbers 1000 cm -1, 1050 cm -1, 1350 cm -1, 1700 cm -1, 2900 cm -1, 3700 cm -1, the at least one infrared detector is capable of receiving the at least two spectral lines (R1, R2, R3, R4, R5, R6), which are reflected by the polymer material in response to the at least two spectral lines (R1, R2, R3, R4, R5, R6), having been emitted by the at least two infrared sources, the device comprising a determination unit for determining the parameter characteristic of the polymer material as a function of the energy present in the at least two spectral lines (R1, R2, R3, R4, R5, R6), having been reflected by the polymer material and having been received by the infrared detector in response to the at least two spectral lines (R1, R2, R3, R4, R5, R6) having been emitted by the at least two infrared sources.
A coagglomerate of crystalline mannitol and of granular starch, wherein: - the tableting capacity, determined according to test A, is greater than 120 N, preferably between 200 and 450 N, - the flow grade, determined according to test B, is between 3 and 15 seconds, preferably between 4 and 8 seconds, - the mannitol/starch ratio is between 99.5/0.5 and 50/50 and preferably between 95/5 and 70/30. - the tableting capacity, determined according to test A, is greater than 120 N, preferably between 200 and 450 N, - the flow grade, determined according to test B, is between 3 and 15 seconds, preferably between 4 and 8 seconds, - the mannitol/starch ratio is between 99.5/0.5 and 50/50 and preferably between 95/5 and 70/30.
An aggregate mount with a mount core that connects the rubber supporting body of an aggregate mount with an aggregate via an aggregate supporting arm and comprises a stud bolt made of metal and anchored in the mount core, characterized in that the stud bolt is a first threaded bolt with a collar on which the aggregate supporting arm is supported and at which a second threaded bolt is formed in mirror symmetry in relation to the arrangement of the first threaded bolt at the collar.