mhurhangee/ep-ind-claims huggingface dataset:
A system for reproducing synthetic engine sound in at least one listening position of a listening room using at least one loudspeaker; the system comprises: a model parameter database including various pre-defined sets of model parameters; an engine sound synthesizer which receives at least one guide signal, the engine sound synthesizer is configured to select one set of model parameters in accordance with the at least one guide signal and to generate a synthetic engine sound signal (x est [n]) in accordance with the selected set of model parameters; the at least one loudspeaker for reproducing the synthetic engine sound by generating a corresponding acoustic signal; and characterized in that the system further comprises: a model parameter tuning unit, which is configured to modify the pre-defined sets of model parameters in the model parameter database in accordance with an equalizer filter parameter set such that, when the resulting synthetic engine sound signal is generated from a modified set of model parameters, the effect of the listening room on the resulting acoustic signal is compensated at the at least one listening position. a model parameter database including various pre-defined sets of model parameters; an engine sound synthesizer which receives at least one guide signal, the engine sound synthesizer is configured to select one set of model parameters in accordance with the at least one guide signal and to generate a synthetic engine sound signal (x est [n]) in accordance with the selected set of model parameters; the at least one loudspeaker for reproducing the synthetic engine sound by generating a corresponding acoustic signal; and characterized in that the system further comprises: a model parameter tuning unit, which is configured to modify the pre-defined sets of model parameters in the model parameter database in accordance with an equalizer filter parameter set such that, when the resulting synthetic engine sound signal is generated from a modified set of model parameters, the effect of the listening room on the resulting acoustic signal is compensated at the at least one listening position.
A device for reinforcing and ventilating furniture, and it comprises at least one first longitudinal profile that has a least one line of through holes arranged along the longitudinal dimension thereof, and at least one second longitudinal profile, the at least first profile and the at least second profile being mutually joined along the same longitudinal dimension thereof and so that the first profile and the second profile share their longitudinal dimension; and being the first profile enabled to be coupled and fastened to kitchen furniture; and it comprises mounting means enabled for linear mounting of a plurality of first profiles in continuity with the longitudinal dimension thereof, likewise including the second profile; characterised in that it incorporates separation means, enabled to be arranged inside the kitchen furniture and to create separated spaces inside the kitchen furniture itself, and these separation means comprise an insulation sheet and a pair of supporting profiles and, enabled to be joined to the first profile along the same longitudinal dimension thereof, as well as to be supported and sustained in the furniture itself, in the rear area thereof; the insulation sheet and the pair of supporting profiles and being mutually enabled so that the insulation sheet is horizontally inserted into the edges of each supporting profile and.
A method for making an aerosol drawn can, satisfying relationships below and using, as a raw material, a laminated steel sheet coated with an organic resin film, wherein the laminated steel sheet has a tensile strength TS of 800 MPa or less after forming at an equivalent strain εeq of 1.6 and satisfies 0.25 ≤ tb/to where tb is a sheet thickness at a fracture surface after fracture and to is a sheet thickness before the fracture: 1.5 ≤ h / R − r 2.8 ≤ R / r 1 1.1 ≤ r 2 / r 1 where h: a height from a can bottom to an opening edge portion; r: an outer diameter of a can body; R: a radius of a circular blank before forming having a weight equivalent to a weight of a final formed can body; r 1: an outer radius of an opening edge portion; and r 2: an outer radius of a bead portion. h: a height from a can bottom to an opening edge portion; r: an outer diameter of a can body; R: a radius of a circular blank before forming having a weight equivalent to a weight of a final formed can body; r 1: an outer radius of an opening edge portion; and r 2: an outer radius of a bead portion.
A method of deploying a constellation of spacecraft, the method comprising: releasing a cluster of spacecraft (104, 106, 108, 110) from a launch vehicle at a first orbit; separating spacecraft in the cluster of spacecraft from each other to cause relative phasing separating each of the spacecraft to each other; and raising each of the spacecraft as separated simultaneously in a synchronized ascent to a respective final orbit, wherein raising each of the spacecraft as separated simultaneously in the synchronized ascent to the respective final orbit comprises simultaneously raising each of the spacecraft from about a same starting orbit, different than the first orbit, with the relative phasing separating each of the spacecraft to each other resulting in the relative phasing remaining once each of the spacecraft arrives at the respective final orbit. releasing a cluster of spacecraft (104, 106, 108, 110) from a launch vehicle at a first orbit; separating spacecraft in the cluster of spacecraft from each other to cause relative phasing separating each of the spacecraft to each other; and raising each of the spacecraft as separated simultaneously in a synchronized ascent to a respective final orbit, wherein raising each of the spacecraft as separated simultaneously in the synchronized ascent to the respective final orbit comprises simultaneously raising each of the spacecraft from about a same starting orbit, different than the first orbit, with the relative phasing separating each of the spacecraft to each other resulting in the relative phasing remaining once each of the spacecraft arrives at the respective final orbit.
A multi-panel wireless transmit/receive unit, WTRU, comprising: a transceiver; a plurality of antenna panels (421, 422), each antenna panel comprising a respective plurality of antennas and configured to transmit on a respective plurality of directional transmit, TX, beams; and a processor, wherein the transceiver is configured to send, to a transmission reception point, TRP, antenna panel capability information for the plurality of antenna panels; the transceiver is configured to receive, from the TRP, a reference signal, RS, configuration for configuring RS resource sets; the transceiver is configured to receive, from the TRP, an RS transmission trigger frame identifying triggered RS resource sets from the configured RS resource sets; the processor is configured to identify a set of antenna panels from the plurality of antenna panels to be used with the triggered RS resource sets based on at least one of the RS configuration or the RS transmission trigger frame; the processor is configured to determine an UL TX beam sweeping mode based on the triggered RS resource sets and the set of antenna panels; the processor is configured to determine an association between the triggered RS resource sets and the set of antenna panels; and the transceiver is configured to perform UL beam sweeping using the triggered RS resource sets and the set of antenna panels according to the association between the triggered RS resource sets and the set of antenna panels. a transceiver; a plurality of antenna panels (421, 422), each antenna panel comprising a respective plurality of antennas and configured to transmit on a respective plurality of directional transmit, TX, beams; and a processor, wherein the transceiver is configured to send, to a transmission reception point, TRP, antenna panel capability information for the plurality of antenna panels; the transceiver is configured to receive, from the TRP, a reference signal, RS, configuration for configuring RS resource sets; the transceiver is configured to receive, from the TRP, an RS transmission trigger frame identifying triggered RS resource sets from the configured RS resource sets; the processor is configured to identify a set of antenna panels from the plurality of antenna panels to be used with the triggered RS resource sets based on at least one of the RS configuration or the RS transmission trigger frame; the processor is configured to determine an UL TX beam sweeping mode based on the triggered RS resource sets and the set of antenna panels; the processor is configured to determine an association between the triggered RS resource sets and the set of antenna panels; and the transceiver is configured to perform UL beam sweeping using the triggered RS resource sets and the set of antenna panels according to the association between the triggered RS resource sets and the set of antenna panels.
device having a housing (10, 12) and at least one component (16, 18) which is arranged so as to be rotatable in the housing (10, 12) and is mounted radially and/or axially in the housing (10, 12), wherein the housing (10, 12) is made of a lightweight metal, in particular aluminium or an aluminium alloy, wherein at least one part (10, 12) of the housing at least partially forms the mounting for the at least one component (16, 18), characterized in that the at least one housing part (10, 12) is provided, at least in the region of the mounting for the at least one component (16, 18), with a coating made of a nickel alloy, which coating has at its surface an at least largely smooth microstructure.
Coupling for work machines with a first main coupling part and at least one further main coupling part for the mechanical fixing of an attachment to the work machine, whereby a first energy coupling part is provided for an energy supply of the attachment on the first main coupling part and at least one further energy coupling part is provided on the further main coupling part and an actuator that is provided for the actuation of a locking device for locking the two main coupling parts (1, 2) with each other is placed on one of the main coupling parts (1, 2), whereby a connecting device is provided for the automated connection of the energy coupling parts (5, 6) and the connecting device for the energy coupling parts (5, 6) has at least one preferably linearly movable sliding wedge that slides with a wedge surface the energy coupling parts (5, 6) closer to each other, whereby the energy coupling parts (5, 6) have respectively at least one energy coupling plate (16, 17), whereby female and male energy coupling elements (18, 19) that are able to respectively mesh with each other are placed on the energy coupling plates (16, 17), characterized in that the wedge surface of the sliding wedge acts onto a wedge-shaped guiding surface of the energy coupling plate of the first energy coupling part and moves the energy coupling plate relatively to the first main coupling part.
A method of encoding a frame, the method comprising: encoding a first audio frame of an audio signal at an encoder of a first computing device, the first audio frame having a frame type that classifies the first audio frame into one of a plurality of classes that include a voiced speech frame, an unvoiced frame, an audio transition frame, and a mixed mode frame that includes both adaptive codebook information and fixed codebook information; transmitting the first audio frame from the first computing device to a second computing device; determining, based on which of the plurality of classes that the frame type of the first audio frame classifies the first audio frame, a first number of bits of a second audio frame to allocate to primary coding information associated with the second audio frame and a second number of bits of the second audio frame to allocate to redundant coding information associated with the first audio frame, wherein the second audio frame follows the first audio frame in the audio signal; encoding the second audio frame, wherein the second audio frame includes the first number of bits of primary coding information, the second number of bits of redundant coding information, and an indicator of the frame type of the first audio frame; and transmitting the second audio frame from the first computing device to the second computing device. encoding a first audio frame of an audio signal at an encoder of a first computing device, the first audio frame having a frame type that classifies the first audio frame into one of a plurality of classes that include a voiced speech frame, an unvoiced frame, an audio transition frame, and a mixed mode frame that includes both adaptive codebook information and fixed codebook information; transmitting the first audio frame from the first computing device to a second computing device; determining, based on which of the plurality of classes that the frame type of the first audio frame classifies the first audio frame, a first number of bits of a second audio frame to allocate to primary coding information associated with the second audio frame and a second number of bits of the second audio frame to allocate to redundant coding information associated with the first audio frame, wherein the second audio frame follows the first audio frame in the audio signal; encoding the second audio frame, wherein the second audio frame includes the first number of bits of primary coding information, the second number of bits of redundant coding information, and an indicator of the frame type of the first audio frame; and transmitting the second audio frame from the first computing device to the second computing device.
A method for predicting the outcome of a patient suffering colorectal cancer, for selecting a suitable treatment in a patient suffering colorectal cancer or for selecting a patient which is likely to benefit from adjuvant therapy after surgical resection of colorectal cancer comprising the determination of the expression levels of the FAM46A, FHL2, FOXC2 and COL4A1 genes in a sample from said patient, wherein an increased expression level of said genes with respect to a reference value for said genes is indicative of an increased likelihood of a negative outcome of the patient, that the patient is candidate for receiving therapy after surgical treatment or that the patient is likely to benefit from therapy after surgical treatment or wherein a decreased expression level of said genes with respect to reference values for said genes is indicative of an increased likelihood of a positive outcome of the patient, that the patient is not candidate for receiving therapy after surgical treatment or that the patient is unlikely to benefit from therapy after surgical treatment. wherein an increased expression level of said genes with respect to a reference value for said genes is indicative of an increased likelihood of a negative outcome of the patient, that the patient is candidate for receiving therapy after surgical treatment or that the patient is likely to benefit from therapy after surgical treatment or wherein a decreased expression level of said genes with respect to reference values for said genes is indicative of an increased likelihood of a positive outcome of the patient, that the patient is not candidate for receiving therapy after surgical treatment or that the patient is unlikely to benefit from therapy after surgical treatment.
An optical fiber temperature sensor, comprising: - a substrate having a first substrate main body having a front surface and a rear surface, and a second substrate main body having a front surface and a rear surface, and which has a coefficient of thermal expansion larger than that of the first substrate main body, and is bonded to the first substrate main body such that either: (a) the rear surface of the second substrate main body is bonded to the front surface of the first substrate main body; or (b) the rear surface of the first substrate main body is bonded to the front surface of the second substrate main body; - an optical fiber having a FBG sensor portion for measuring a temperature from a relationship between a Bragg wavelength and the temperature, characterised in that: the optical fiber is embedded in the second substrate main body so that the FBG sensor portion is positioned in the second substrate main body. - a substrate having a first substrate main body having a front surface and a rear surface, and a second substrate main body having a front surface and a rear surface, and which has a coefficient of thermal expansion larger than that of the first substrate main body, and is bonded to the first substrate main body such that either: (a) the rear surface of the second substrate main body is bonded to the front surface of the first substrate main body; or (b) the rear surface of the first substrate main body is bonded to the front surface of the second substrate main body; (a) the rear surface of the second substrate main body is bonded to the front surface of the first substrate main body; or (b) the rear surface of the first substrate main body is bonded to the front surface of the second substrate main body; - an optical fiber having a FBG sensor portion for measuring a temperature from a relationship between a Bragg wavelength and the temperature,
Method for operating a trailer vehicle having an electric drive and friction brakes, wherein the method comprises: - determining a differential mass between a first mass of a driven axle of the trailer vehicle and a second mass of a non-driven axle of the trailer vehicle, wherein the first mass and the second mass each denote the masses of the corresponding axle itself, without including a mass acting on the axle; - determining a deceleration torque on the basis of the differential mass, - generating at least or exactly the determined deceleration torque with the electric drive when the friction brakes are activated. - determining a differential mass between a first mass of a driven axle of the trailer vehicle and a second mass of a non-driven axle of the trailer vehicle, wherein the first mass and the second mass each denote the masses of the corresponding axle itself, without including a mass acting on the axle; - determining a deceleration torque on the basis of the differential mass, - generating at least or exactly the determined deceleration torque with the electric drive when the friction brakes are activated.
A method of performing a multiplexed digital amplification assay by creating R signals representative of light detected in R different wavelength regimes from partitions and calculating an average level of each target in the partitions based on the R signals, the method comprising: amplifying more than R targets in partitions, wherein a fraction of the partitions contain two or more different targets in the same individual partitions, and wherein the partitions are fluid volumes that are isolated from one another; creating R signals representative of light detected in R different wavelength regimes from the partitions, where R ≥ 2; and calculating a concentration of each target in the partitions based on the respective numbers of partitions positive for each signal alone and signal combination wherein the calculation is based on copies of each target having a Poisson distribution among the partitions; wherein calculating includes determining a total number of amplification-positive partitions for each target and determining a total number of partitions, wherein the concentration calculated accounts for a coincidence of different targets in the same individual partitions, wherein the more than R targets include a first target and a second target, and wherein calculating includes determining a first partition frequency for partitions containing the first target, a second partitions frequency for partitions containing the second target, and an estimated frequency of partitions containing both the first target and the second target as a product of the first and second partition frequencies. amplifying more than R targets in partitions, wherein a fraction of the partitions contain two or more different targets in the same individual partitions, and wherein the partitions are fluid volumes that are isolated from one another; creating R signals representative of light detected in R different wavelength regimes from the partitions, where R ≥ 2; and calculating a concentration of each target in the partitions based on the respective numbers of partitions positive for each signal alone and signal combination wherein the calculation is based on copies of each target having a Poisson distribution among the partitions; wherein calculating includes determining a total number of amplification-positive partitions for each target and determining a total number of partitions, wherein the concentration calculated accounts for a coincidence of different targets in the same individual partitions, wherein the more than R targets include a first target and a second target, and wherein calculating includes determining a first partition frequency for partitions containing the first target, a second partitions frequency for partitions containing the second target, and an estimated frequency of partitions containing both the first target and the second target as a product of the first and second partition frequencies.
A modular joint prosthesis with a curved head part, to the conical nose of which a push-on joint ball is fastened, and with a stem insertable into the bone marrow canal of the long bone and having a stem neck, a connecting means being provided between head part and stem neck which holds the head part non-rotatably, characterised in that the connecting means comprises at least one collar-like module (3, 3.1-3.4) placed in the axial direction of the stem and having at least two half-shells (8.1, 8.2) divided in the axial direction of the module (3, 3.1-3.4) and joined undoably together, which half-shells together form an axially extending bushing for insertion of the stem neck into the bushing and which comprise mutually corresponding openings (12.1, 12.2) arranged coaxially in the longitudinal direction of the module and each positioned perpendicular to the axis for receiving a clamping means, which in the clamped state fixes the stem neck in the bushing solely by means of frictional engagement in the manner of a clamping jaw with a tightening torque sufficient to counter axial displacement and rotation.