mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a User Equipment, UE, the method comprising: receiving a Radio Resource Control, RRC, configuration comprising a plurality of repetition lists, each of the plurality of repetition lists mapped to one of a plurality of Downlink Control Information, DCI, formats, each of the plurality of repetition lists including a plurality of values, and each of the plurality of values indicating a number of repetitions for a Physical Uplink Shared Channel, PUSCH, transmission; receiving DCI having a particular DCI format for scheduling the PUSCH transmission, the DCI comprising an indicator; identifying a repetition list of the plurality of repetition lists based on the particular DCI format to which the repetition list is mapped; selecting, from the plurality of values included in the identified repetition list, a value that corresponds to the indicator; determining a number of times the PUSCH transmission is required to be repeated according to the selected value; and performing the PUSCH transmission for the number of times. receiving a Radio Resource Control, RRC, configuration comprising a plurality of repetition lists, each of the plurality of repetition lists mapped to one of a plurality of Downlink Control Information, DCI, formats, each of the plurality of repetition lists including a plurality of values, and each of the plurality of values indicating a number of repetitions for a Physical Uplink Shared Channel, PUSCH, transmission; receiving DCI having a particular DCI format for scheduling the PUSCH transmission, the DCI comprising an indicator; identifying a repetition list of the plurality of repetition lists based on the particular DCI format to which the repetition list is mapped; selecting, from the plurality of values included in the identified repetition list, a value that corresponds to the indicator; determining a number of times the PUSCH transmission is required to be repeated according to the selected value; and performing the PUSCH transmission for the number of times.
A dryer that comprises a housing that has a hot air inlet, a metal drum mounted rotatably about its axis within the housing, a metal gauze stretched around the side surface of the drum and rotationally fixed thereto, and means (A, B) for passing a cloth to be dried over the gauze, wherein the side surface of the drum is formed from U-shaped profiles that each have a bottom pierced with holes and two branches passing radially towards the outside of the drum, characterised in that each profile is fixed to its two neighbouring profiles by its branches, and a single one thereof or each of them has a notch, into which a hoop penetrates.
A method of determining the relative amount of a plant pest or pathogen in a soil sample, the method comprising: (a) determining the total amount of DNA in the soil sample; (b) assaying for the presence of at least one DNA sequence in the soil sample that is specific to the plant pest or pathogen to quantify the amount of plant pest or pathogen specific DNA in the soil sample; and, (c) calculating the ratio of plant pest or pathogen specific DNA to total DNA corresponding to the relative amount of the plant pest or pathogen in the soil sample. (a) determining the total amount of DNA in the soil sample; (b) assaying for the presence of at least one DNA sequence in the soil sample that is specific to the plant pest or pathogen to quantify the amount of plant pest or pathogen specific DNA in the soil sample; and, (c) calculating the ratio of plant pest or pathogen specific DNA to total DNA corresponding to the relative amount of the plant pest or pathogen in the soil sample.
A composition comprising: a polymer derived from (a) a fluorinated olefin monomer, wherein the fluorinated olefin monomer is selected from tetrafluoroethylene, vinylidene fluoride, chlorotrifluoroethene (CTFE), hexafluoropropylene, and perfluorinated vinylethers; (b) a highly fluorinated sulfur-containing monomer of the formula: CX 1 X 2 =CX 3 [(CX 4 X 5) w -O-R 1 -SO 2 Y] where each X 1, X 2, X 3, X 4, and X 5 is independently selected from H, Cl, or F; w is 0 or 1; R 1 is a fluorinated divalent carbon-containing group, optionally comprising oxygen atoms; and Y is selected from F, Cl, Br, I, or OM, where M is a cation; and (c) a polyfunctional monomer comprising at least two functional groups, wherein the functional groups are selected from the group consisting of: (i) a fluorovinyl ether group, (ii) a fluoroallyl ether group, (iii) a fluorinated olefinic group, and (iv) combinations thereof; wherein the polyfunctional monomer is not grafted off a polymer backbone comprising the fluorinated olefin monomer and the highly fluorinated sulfur-containing monomer. (a) a fluorinated olefin monomer, wherein the fluorinated olefin monomer is selected from tetrafluoroethylene, vinylidene fluoride, chlorotrifluoroethene (CTFE), hexafluoropropylene, and perfluorinated vinylethers; (b) a highly fluorinated sulfur-containing monomer of the formula: CX 1 X 2 =CX 3 [(CX 4 X 5) w -O-R 1 -SO 2 Y] where each X 1, X 2, X 3, X 4, and X 5 is independently selected from H, Cl, or F; w is 0 or 1; R 1 is a fluorinated divalent carbon-containing group, optionally comprising oxygen atoms; and Y is selected from F, Cl, Br, I, or OM, where M is a cation; and (c) a polyfunctional monomer comprising at least two functional groups, wherein the functional groups are selected from the group consisting of: (i) a fluorovinyl ether group, (ii) a fluoroallyl ether group, (iii) a fluorinated olefinic group, and (iv) combinations thereof;
A method of operation within a receiver circuit, the method comprising: sampling a first signal in a first sampling circuit to determine whether the first signal exceeds first thresholds (C PR); sampling the first signal in a second sampling circuit to determine whether the first signal exceeds second thresholds (C DLEV); determining tap weights for at least one output driver circuit (961 0,..., 961 N-1) used to generate the first signal, wherein said tap weights are based, at least in part, on whether the first signal exceeds the first and second thresholds (C DLEV, C PR); and adjusting the second thresholds (C DLEV) based, at least in part, on whether the first signal exceeds the second thresholds (C DLEV). sampling a first signal in a first sampling circuit to determine whether the first signal exceeds first thresholds (C PR); sampling the first signal in a second sampling circuit to determine whether the first signal exceeds second thresholds (C DLEV); determining tap weights for at least one output driver circuit (961 0,..., 961 N-1) used to generate the first signal, wherein said tap weights are based, at least in part, on whether the first signal exceeds the first and second thresholds (C DLEV, C PR); and adjusting the second thresholds (C DLEV) based, at least in part, on whether the first signal exceeds the second thresholds (C DLEV).
A method for beam training in a multiuser scenario, wherein the method is applied to beam training performed on multiple responders (902, 903) by an initiator, and the method comprises: Sending, by the initiator, status information to a first responder of the multiple responders (902, 903); and Receiving, by the initiator, feedback information sent by the first responder, and determining, according to the feedback information, to-be-used transmit antenna selected by the first responder; Characterized in that the status information is status information of selectable transmit antennas of the initiator, wherein each transmit antenna generates only one beam direction in a single time segment, wherein the status information is sent only to a first responder of the multiple responders (902, 903), so that the first responder selects the to-be-used transmit antenna from the transmit antennas according to the status information, wherein the status information is used to indicate which of the transmit antennas of the initiator are selectable by the first responder; wherein the method further comprises Updating the status information of selectable transmit antennas using the feedback information such that the transmit antenna that has been selected by the first responder is excluded from the selectable transmit antennas before sending the updated status information only to a second responder, wherein the second responder is any responder of the multiple responders except the first responder. Sending, by the initiator, status information to a first responder of the multiple responders (902, 903); and Receiving, by the initiator, feedback information sent by the first responder, and determining, according to the feedback information, to-be-used transmit antenna selected by the first responder; Characterized in that the status information is status information of selectable transmit antennas of the initiator, wherein each transmit antenna generates only one beam direction in a single time segment, wherein the status information is sent only to a first responder of the multiple responders (902, 903), so that the first responder selects the to-be-used transmit antenna from the transmit antennas according to the status information, wherein the status information is used to indicate which of the transmit antennas of the initiator are selectable by the first responder; wherein the method further comprises Updating the status information of selectable transmit antennas using the feedback information such that the transmit antenna that has been selected by the first responder is excluded from the selectable transmit antennas before sending the updated status information only to a second responder, wherein the second responder is any responder of the multiple responders except the first responder.
A surrounding environment recognizing apparatus that is mounted on a vehicle and recognizes a surrounding environment of the vehicle, the surrounding environment recognizing apparatus comprising: an own vehicle information acquiring unit that acquires own vehicle information about motion of the vehicle; a surrounding environment factor acquiring unit that acquires surrounding environment factor information about an environment factor around thee vehicle; a time-of-presence range determining unit that determines, based on the own vehicle information, an own vehicle time-of-presence range representing a time-of-presence range of the vehicle for each position around the vehicle; and a risk-of-driving determining unit that determines a risk of driving in an area around the vehicle based on the own vehicle time-of-presence range and the surrounding environment factor information, wherein the time-of-presence range determining unit determines, based on the surrounding environment factor information, an environment factor time-of-presence range representing a time-of-presence range of the environment factor for each position around the vehicle, and the risk-of-driving determining unit determines a risk of driving in an area around the vehicle based on the own vehicle time-of-presence range and the environment factor time-of-presence range, characterized in that: the risk-of-driving determining unit determines the risk of driving based on a difference between a representative value of the own vehicle time-of-presence range and a representative value of the environment factor time-of-presence range. an own vehicle information acquiring unit that acquires own vehicle information about motion of the vehicle; a surrounding environment factor acquiring unit that acquires surrounding environment factor information about an environment factor around thee vehicle; a time-of-presence range determining unit that determines, based on the own vehicle information, an own vehicle time-of-presence range representing a time-of-presence range of the vehicle for each position around the vehicle; and a risk-of-driving determining unit that determines a risk of driving in an area around the vehicle based on the own vehicle time-of-presence range and the surrounding environment factor information, wherein the time-of-presence range determining unit determines, based on the surrounding environment factor information, an environment factor time-of-presence range representing a time-of-presence range of the environment factor for each position around the vehicle, and the risk-of-driving determining unit determines a risk of driving in an area around the vehicle based on the own vehicle time-of-presence range and the environment factor time-of-presence range, characterized in that: the risk-of-driving determining unit determines the risk of driving based on a difference between a representative value of the own vehicle time-of-presence range and a representative value of the environment factor time-of-presence range.
Steer-by-wire steering system for motor vehicles with a steering actuator acting on the steered wheels that is electronically controlled depending on a driver's steering demand, with a feedback actuator transmitting feedback effects of the road to a steering wheel, and a control unit that actuates the feedback actuator and the steering actuator, wherein the control unit comprises an estimator comprising an observer and a model of the feedback actuator, wherein the estimator is configured to estimate a driver's steering torque based on measurement values of the feedback actuator and using the model and the observer and to provide said driver's steering torque as a result, the control unit further comprises a filter unit that is arranged to analyze the measurement values of the feedback actuator by determining the damping of amplitudes of predetermined frequency ranges and to provide the result, and wherein the control unit further comprises a decision unit that is designed to decide whether there is driver's hand contact on a steering wheel or not by using the results of the filter unit and the estimator.
Level measuring device, comprising: a first functional unit, which is the communication circuit of the level measuring device, and a second functional unit, which is the measuring circuit or the sensor circuit of the level measuring device, which are connected in series with respect to an external power supply of the level measuring device; a first energy store, designed as an energy buffer to equalise fluctuating energy consumption of the second functional unit; a first decoupling circuit, which is arranged between the first functional unit and the second functional unit and is designed to distribute the available power from the external power supply between the first functional unit and the second functional unit according to requirements, so that it can be ensured that the first functional unit is always supplied with sufficient power for its operation, if the amount of available power is correspondingly low, the second functional unit and the first energy store are temporarily not supplied with any power or only to a low extent. a first functional unit, which is the communication circuit of the level measuring device, and a second functional unit, which is the measuring circuit or the sensor circuit of the level measuring device, which are connected in series with respect to an external power supply of the level measuring device; a first energy store, designed as an energy buffer to equalise fluctuating energy consumption of the second functional unit; a first decoupling circuit, which is arranged between the first functional unit and the second functional unit and is designed to distribute the available power from the external power supply between the first functional unit and the second functional unit according to requirements, so that it can be ensured that the first functional unit is always supplied with sufficient power for its operation, if the amount of available power is correspondingly low, the second functional unit and the first energy store are temporarily not supplied with any power or only to a low extent.
Active humidifier comprising a disposable cartridge provided with a humidification chamber adapted to contain a volume of water and a residual volume of gas to be heated for air humidification of the inspiratory gases traversing the disposable cartridge, with an inlet mouth for air to be introduced in the chamber by a ventilation device and with an outlet mouth for conditioned air exiting the chamber to a patient, the humidification chamber being a sealed casing entirely made of plastic material, the humidification chamber comprising a bottom with a plurality of support pegs, wherein said cartridge comprises a disposable heating element comprising an electrical resistor, said cartridge comprising also an electrical connector for the electrical connection of the disposable heating element, characterised in that the disposable heating element is positioned on the plurality of support pegs, such that the plurality of support pegs keep it distanced from the bottom inside the humidification chamber, immersed in the water and lapped on all sides by water.
A method for acquiring computed tomography data, comprising: continuously rotating an X-ray source and detector about an imaging volume during an examination, wherein the rotation of the X-ray source and detector is through a plurality of discrete view positions; at each view position: adjusting the focus of a beam of electrons on a target of the X-ray source so that a focal spot on the target remains relatively stationary relative to the imaging volume while in a respective view position; and summing detector signals acquired over a plurality of pixels while in the respective view position; processing the summed detector signals acquired at each view to reconstruct an image. continuously rotating an X-ray source and detector about an imaging volume during an examination, wherein the rotation of the X-ray source and detector is through a plurality of discrete view positions; at each view position: adjusting the focus of a beam of electrons on a target of the X-ray source so that a focal spot on the target remains relatively stationary relative to the imaging volume while in a respective view position; and summing detector signals acquired over a plurality of pixels while in the respective view position; processing the summed detector signals acquired at each view to reconstruct an image. adjusting the focus of a beam of electrons on a target of the X-ray source so that a focal spot on the target remains relatively stationary relative to the imaging volume while in a respective view position; and summing detector signals acquired over a plurality of pixels while in the respective view position; processing the summed detector signals acquired at each view to reconstruct an image.
A laundry drying apparatus comprising: a cabinet including a front panel provided with an opening for introduction of laundry and a door for opening and closing the opening; a drying drum horizontally installed within the cabinet; an air supply device configured to collect air inside the drying drum and supply the air into the drying drum; and a lint filter obliquely mounted in a space between a lower portion of the door and the drying drum and detachable in an opening direction of the door, and an anti-jamming member provided between the opening and the door, wherein the front panel includes: an upper region tilted rearward of the cabinet by a predetermined angle and where the door is installed; a lower region located below the upper region and indented inward of the front panel with respect to the upper region; and a seam portion between the upper region and the lower region, protruding forward of the front panel, and wherein the lint filter includes a top inlet for introducing air through the anti-jamming member and a lateral inlet for introducing air downward in a forward direction through the anti-jamming member. a cabinet including a front panel provided with an opening for introduction of laundry and a door for opening and closing the opening; a drying drum horizontally installed within the cabinet; an air supply device configured to collect air inside the drying drum and supply the air into the drying drum; and a lint filter obliquely mounted in a space between a lower portion of the door and the drying drum and detachable in an opening direction of the door, and an anti-jamming member provided between the opening and the door, wherein the front panel includes: an upper region tilted rearward of the cabinet by a predetermined angle and where the door is installed; a lower region located below the upper region and indented inward of the front panel with respect to the upper region; and a seam portion between the upper region and the lower region, protruding forward of the front panel, and wherein the lint filter includes a top inlet for introducing air through the anti-jamming member and a lateral inlet for introducing air downward in a forward direction through the anti-jamming member.
A method of reducing unwanted sounds in signals received from an arrangement of microphones including the steps of: sensing sound sources distributed around a specified target direction by way of an arrangement of microphones to produce left and right microphone output signals; determining the power of each of the left and right microphone signals; determining the minimum of the two microphone power measures; time-averaging each of the left microphone power, the right microphone power and the minimum power; and, attenuating each of the left and right microphone signals based on a comparison of the respective time-averaged microphone power measure with the time-averaged minimum power measure. sensing sound sources distributed around a specified target direction by way of an arrangement of microphones to produce left and right microphone output signals; determining the power of each of the left and right microphone signals; determining the minimum of the two microphone power measures; time-averaging each of the left microphone power, the right microphone power and the minimum power; and, attenuating each of the left and right microphone signals based on a comparison of the respective time-averaged microphone power measure with the time-averaged minimum power measure.