mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication at a user equipment, UE, comprising: receiving, from a base station, a downlink message that indicates a control channel monitoring periodicity and a control channel offset for a radio frame; identifying, based at least in part on the control channel monitoring periodicity and the control channel offset, a set of slots carrying control channel candidates within the radio frame for monitoring by the user equipment, UE; monitoring a search space of each slot of the identified set of slots for a control channel candidate, and calculating a location of a control channel element of the control channel candidate for a first slot based at least in part on a second slot, the second slot being the previous monitored slot carrying a control channel candidate, and wherein one or more slots occur between the first slot and the second slot; and receiving downlink control information for the UE based at least in part on the control channel candidate for the first slot. receiving, from a base station, a downlink message that indicates a control channel monitoring periodicity and a control channel offset for a radio frame; identifying, based at least in part on the control channel monitoring periodicity and the control channel offset, a set of slots carrying control channel candidates within the radio frame for monitoring by the user equipment, UE; monitoring a search space of each slot of the identified set of slots for a control channel candidate, and calculating a location of a control channel element of the control channel candidate for a first slot based at least in part on a second slot, the second slot being the previous monitored slot carrying a control channel candidate, and wherein one or more slots occur between the first slot and the second slot; and receiving downlink control information for the UE based at least in part on the control channel candidate for the first slot.
A device for estimating a condition of a vehicle, characterized in that the device estimates a centroid position in a longitudinal direction of the vehicle based on a vehicle weight value, a stability factor value, a relation between a front wheel axle load and a front wheel cornering power and a relation between a rear wheel axle load and a rear wheel cornering power.
A method for authenticating a device being a tag, the method comprising: - executing, by a tag reader of a first blockchain node, a one-side authentication of the device; - submitting, by the tag reader of the first blockchain node, results of the one-side authentication to a blockchain by submitting an authentication message to said blockchain; and - verifying the one-side authentication at a second blockchain node of the plurality of blockchain nodes by verifying the submitted authentication message using an authentication key. - executing, by a tag reader of a first blockchain node, a one-side authentication of the device; - submitting, by the tag reader of the first blockchain node, results of the one-side authentication to a blockchain by submitting an authentication message to said blockchain; and - verifying the one-side authentication at a second blockchain node of the plurality of blockchain nodes by verifying the submitted authentication message using an authentication key.
A method for the production of a superhydrophobic film, surface or material comprising the steps of: (i) providing a composition comprising a hydrophobic substance and a hydrophilic solvent, said hydrophilic solvent being a liquid at a temperature of 25 °C and atmospheric pressure; and (ii) spraying said composition towards a substrate for deposition of a solid residue onto the surface of said substrate for generation of said superhydrophobic film, surface or material; wherein the temperature of said composition is at least 5 °C higher than the temperature of said substrate when carrying out step (ii), wherein said hydrophobic substance is a compound of formula or, or a mixture of a compound of formula and a compound of formula, wherein R1 and R2 are independently selected from C12-22 alkyl and C12-22 fluoroalkyl; and R3 is selected from OH, NH2, OC1-8 alkyl, OC1-8 fluoroalkyl, NHC1-8 alkyl, NHC1-8 fluoroalkyl and OCH2CHR4CH2R5, said R4 and R5 being independently selected from O C13-23 alkyl, O C13-23 fluoroalkyl and O C13-23 alkenyl, and wherein said hydrophilic solvent is HOC1-8 alkyl. (i) providing a composition comprising a hydrophobic substance and a hydrophilic solvent, said hydrophilic solvent being a liquid at a temperature of 25 °C and atmospheric pressure; and (ii) spraying said composition towards a substrate for deposition of a solid residue onto the surface of said substrate for generation of said superhydrophobic film, surface or material; wherein R1 and R2 are independently selected from C12-22 alkyl and C12-22 fluoroalkyl; and R3 is selected from OH, NH2, OC1-8 alkyl, OC1-8 fluoroalkyl, NHC1-8 alkyl, NHC1-8 fluoroalkyl and OCH2CHR4CH2R5, said R4 and R5 being independently selected from O C13-23 alkyl, O C13-23 fluoroalkyl and O C13-23 alkenyl, and wherein said hydrophilic solvent is HOC1-8 alkyl.
Method for operating a continuous annealing line for the processing of a rolled good, especially of a metallic strip, wherein in respect of a model-predictive regulation - at least one property of the rolled good related to at least one point or at least one section of the rolled good is supplied as an input variable to a computer-aided model, wherein the at least one point or the at least one section of the rolled good is located before or in the continuous annealing line, - with the aid of the computer-aided model, at least one material property of the rolled good after the continuous annealing process is simulated, - the simulated material property is compared with a predetermined target value, - and if the simulated material property deviates from the target value, at least one process variable (T, V) of the continuous annealing process is regulated by a control device for as long as the at least one point or the at least one section of the rolled good is before or in the continuous annealing line. - at least one property of the rolled good related to at least one point or at least one section of the rolled good is supplied as an input variable to a computer-aided model, wherein the at least one point or the at least one section of the rolled good is located before or in the continuous annealing line, - with the aid of the computer-aided model, at least one material property of the rolled good after the continuous annealing process is simulated, - the simulated material property is compared with a predetermined target value, - and if the simulated material property deviates from the target value, at least one process variable (T, V) of the continuous annealing process is regulated by a control device for as long as the at least one point or the at least one section of the rolled good is before or in the continuous annealing line.
A method of wireless communication, comprising: semi-statically selecting, by the serving base station (500, 600, 700, 900), a maximum total number of virtual cell identifiers, IDs, associated with a combined area of the coordinated communication cluster and the one or more neighboring coordinated communication clusters; and semi-statically selecting, by the serving base station (500, 600, 700, 900), a maximum cluster number of virtual cell IDs associated with a maximum number of virtual cell IDs per coordinated cluster, identifying (400, 800), by the serving base station (500, 600, 700, 900), a set of virtual cell IDs up to the maximum total number of virtual cell IDs and up to the maximum cluster number of virtual cell IDs, wherein the set of virtual cell IDs corresponds to at least one of: one or more transmission points located within a coordinated communication cluster in which a user equipment, UE, (501, 601, 701, 901) served by the serving base station (500, 600, 700, 900) is located, and one or more neighboring transmission points located within one or more neighboring coordinated communication clusters; grouping (401, 801), by the serving base station (500, 600, 700, 900), each virtual cell ID of the set of virtual cell IDs available for use in transmission into one or more subsets of virtual cell IDs according to a primary cell ID associated with said each virtual cell ID; and transmitting (402, 802), by the serving base station (500, 600, 700, 900), the one or more subsets of virtual cell IDs to the UE (501, 601, 701, 901). semi-statically selecting, by the serving base station (500, 600, 700, 900), a maximum total number of virtual cell identifiers, IDs, associated with a combined area of the coordinated communication cluster and the one or more neighboring coordinated communication clusters; and semi-statically selecting, by the serving base station (500, 600, 700, 900), a maximum cluster number of virtual cell IDs associated with a maximum number of virtual cell IDs per coordinated cluster, identifying (400, 800), by the serving base station (500, 600, 700, 900), a set of virtual cell IDs up to the maximum total number of virtual cell IDs and up to the maximum cluster number of virtual cell IDs, wherein the set of virtual cell IDs corresponds to at least one of: one or more transmission points located within a coordinated communication cluster in which a user equipment, UE, (501, 601, 701, 901) served by the serving base station (500, 600, 700, 900) is located, and one or more neighboring transmission points located within one or more neighboring coordinated communication clusters; grouping (401, 801), by the serving base station (500, 600, 700, 900), each virtual cell ID of the set of virtual cell IDs available for use in transmission into one or more subsets of virtual cell IDs according to a primary cell ID associated with said each virtual cell ID; and transmitting (402, 802), by the serving base station (500, 600, 700, 900), the one or more subsets of virtual cell IDs to the UE (501, 601, 701, 901).
A refrigerator including a body that includes at least a cool air chamber, a chamber door (11, 12) that selectively opens and closes the chamber and a home bar door that is rotatably mounted on the front of the chamber door, wherein the refrigerator further includes: a heater that is provided at an edge part of a hole sealed by the home bar door; a heater driver that provides a voltage input to the heater; and a controller that transmits an operating signal to the heater driver, characterized in that the refrigerator further comprises a sensor that detects the opening or closing of the home bar door, and when the heater is activated, the controller and the heater driver are configured to provide a variable voltage to the heater depending on the opening or closing of the home bar door detected by the sensor. a heater that is provided at an edge part of a hole sealed by the home bar door; a heater driver that provides a voltage input to the heater; and a controller that transmits an operating signal to the heater driver, characterized in that the refrigerator further comprises a sensor that detects the opening or closing of the home bar door, and when the heater is activated, the controller and the heater driver are configured to provide a variable voltage to the heater depending on the opening or closing of the home bar door detected by the sensor.
A direct contact high temperature thermal desorption device for processing contaminated material, comprising: desorption means for performing desorption of contaminated material with direct contact in order to release contaminants from the contaminated material; oxidizing means for performing oxidization of at least part of the contaminants; channeling means for conveying the released contaminants downstream from the desorption means to the oxidizing means, the device being further characterized by comprising: air drafting means, located between the desorption means and the oxidizing means, for generating negative pressure in the channeling means between the desorption means and the air drafting means in order to move the released contaminants downstream from the desorption means; and controlling means for determining whether the power of the air drafting means is to be decreased, increased, or kept the same, on the basis of information from at least one sensor. desorption means for performing desorption of contaminated material with direct contact in order to release contaminants from the contaminated material; oxidizing means for performing oxidization of at least part of the contaminants; channeling means for conveying the released contaminants downstream from the desorption means to the oxidizing means, the device being further characterized by comprising: air drafting means, located between the desorption means and the oxidizing means, for generating negative pressure in the channeling means between the desorption means and the air drafting means in order to move the released contaminants downstream from the desorption means; and controlling means for determining whether the power of the air drafting means is to be decreased, increased, or kept the same, on the basis of information from at least one sensor. air drafting means, located between the desorption means and the oxidizing means, for generating negative pressure in the channeling means between the desorption means and the air drafting means in order to move the released contaminants downstream from the desorption means; and controlling means for determining whether the power of the air drafting means is to be decreased, increased, or kept the same, on the basis of information from at least one sensor.
A composition comprising at least one or two polypeptides binding specifically a DR5 receptor, wherein the at least one or two polypeptides comprise two immunoglobulin binding domains comprising: - a first binding domain comprising a pair of VH and VL chains wherein the VH chain contains a CDR1 of sequence SEQ ID NO: 13, a CDR2 of sequence SEQ ID NO: 14 a CDR3 of sequence SEQ ID NO: 15; and the VL chain contains a CDR1 of sequence SEQ ID NO: 16, a CDR2 of sequence FAS, a CDR3 of sequence SEQ ID NO: 17, and - a second binding domain comprising a pair of VH and VL chains wherein the VH chain contains a CDR1 of sequence SEQ ID NO: 18, a CDR2 of sequence SEQ ID NO: 14, a CDR3 of sequence SEQ ID NO: 19; and the VL chain contains a CDR1 of sequence SEQ ID NO: 20, a CDR2 of sequence RTS, a CDR3 of sequence SEQ ID NO: 21, wherein - the at least one polypeptide comprises both immunoglobulin binding domains; or - the at least two polypeptides comprise a first polypeptide comprising the first binding domain and a second polypeptide comprising the second binding domain; and a pharmaceutically carrier, diluent or excipient. - a first binding domain comprising a pair of VH and VL chains wherein the VH chain contains a CDR1 of sequence SEQ ID NO: 13, a CDR2 of sequence SEQ ID NO: 14 a CDR3 of sequence SEQ ID NO: 15; and the VL chain contains a CDR1 of sequence SEQ ID NO: 16, a CDR2 of sequence FAS, a CDR3 of sequence SEQ ID NO: 17, and - a second binding domain comprising a pair of VH and VL chains wherein the VH chain contains a CDR1 of sequence SEQ ID NO: 18, a CDR2 of sequence SEQ ID NO: 14, a CDR3 of sequence SEQ ID NO: 19; and the VL chain contains a CDR1 of sequence SEQ ID NO: 20, a CDR2 of sequence RTS, a CDR3 of sequence SEQ ID NO: 21, - the at least one polypeptide comprises both immunoglobulin binding domains; or - the at least two polypeptides comprise a first polypeptide comprising the first binding domain and a second polypeptide comprising the second binding domain;
A multilingual text-to-speech synthesis method comprising: receiving first learning data including a learning text of a first language, learning speech data of the first language corresponding to the learning text of the first language and a first speaker identifier, ID, associated with the learning speech data of the first language; receiving second learning data including a learning text of a second language, learning speech data of the second language corresponding to the learning text of the second language and a second speaker identifier, ID, associated with the learning speech data of the second language; and generating a single artificial neural network multilingual text-to-speech synthesis model in an end-to-end manner by learning similarity information indicative of phoneme similarity between phonemes of the first language and phonemes of the second language based on the first learning data and the second learning data, the single artificial neural network multilingual text-to-speech synthesis model comprising an encoder, a decoder, and at least one of a first vocoder and a second vocoder and each one of the learning text of the first language and the learning text of the second language, divided in units of a syllable, a character or a phoneme, being converted by the encoder into a respective text embedding vector. receiving first learning data including a learning text of a first language, learning speech data of the first language corresponding to the learning text of the first language and a first speaker identifier, ID, associated with the learning speech data of the first language; receiving second learning data including a learning text of a second language, learning speech data of the second language corresponding to the learning text of the second language and a second speaker identifier, ID, associated with the learning speech data of the second language; and generating a single artificial neural network multilingual text-to-speech synthesis model in an end-to-end manner by learning similarity information indicative of phoneme similarity between phonemes of the first language and phonemes of the second language based on the first learning data and the second learning data, the single artificial neural network multilingual text-to-speech synthesis model comprising an encoder, a decoder, and at least one of a first vocoder and a second vocoder and each one of the learning text of the first language and the learning text of the second language, divided in units of a syllable, a character or a phoneme, being converted by the encoder into a respective text embedding vector.
A method for updating alarm limits applied in monitoring one or more medical parameters of a subject, the method comprising the steps of: a) obtaining (320, 420) a measurement of ambient pressure at a defined time point ('t 1 '), comparing (324, 424) the measurement of ambient pressure to a reference ambient pressure, and updating (326b, 428b) the alarm limits to correspond with the ambient pressure at ti or alerting a user to update the alarm limits in response to a difference between the measured ambient pressure at ti and the reference ambient pressure being at or above a predetermined threshold; or b) obtaining (320, 420) a measurement of a rate of change of ambient pressure during the monitoring of the one or more medical parameters, comparing (324, 424) the rate of change of ambient pressure to a predefined threshold, and updating (326b, 428b) the alarm limits or alerting a user to update the alarm limits in response to the rate of change of ambient pressure being at or above the predefined threshold; and wherein for both a) and b), the alarm limits are applied in monitoring one or more medical parameters of a subject, and wherein the one or more medical parameters comprises a CO 2 related parameter and are affected by a change in ambient pressure. a) obtaining (320, 420) a measurement of ambient pressure at a defined time point ('t 1 '), comparing (324, 424) the measurement of ambient pressure to a reference ambient pressure, and updating (326b, 428b) the alarm limits to correspond with the ambient pressure at ti or alerting a user to update the alarm limits in response to a difference between the measured ambient pressure at ti and the reference ambient pressure being at or above a predetermined threshold; or comparing (324, 424) the measurement of ambient pressure to a reference ambient pressure, and updating (326b, 428b) the alarm limits to correspond with the ambient pressure at ti or alerting a user to update the alarm limits in response to a difference between the measured ambient pressure at ti and the reference ambient pressure being at or above a predetermined threshold; or b) obtaining (320, 420) a measurement of a rate of change of ambient pressure during the monitoring of the one or more medical parameters, comparing (324, 424) the rate of change of ambient pressure to a predefined threshold, and updating (326b, 428b) the alarm limits or alerting a user to update the alarm limits in response to the rate of change of ambient pressure being at or above the predefined threshold; and comparing (324, 424) the rate of change of ambient pressure to a predefined threshold, and updating (326b, 428b) the alarm limits or alerting a user to update the alarm limits in response to the rate of change of ambient pressure being at or above the predefined threshold; and
A dispersant, comprising: a constituent unit derived from a compound A represented by General Formula below; and a constituent unit derived from a compound B that comprises an ionic group, wherein the dispersant is used for dispersion of metal particles, where in General Formula above, R 1 is a hydrogen atom or a methyl group, x is a natural number of 2 or greater, and n is a natural number of 1 or greater wherein the dispersant is obtainable by being synthesized from compound A and compound B and the molar ratio A/B is from 9 to 999. a constituent unit derived from a compound A represented by General Formula below; and a constituent unit derived from a compound B that comprises an ionic group, wherein the dispersant is used for dispersion of metal particles, where in General Formula above, R 1 is a hydrogen atom or a methyl group, x is a natural number of 2 or greater, and n is a natural number of 1 or greater wherein the dispersant is obtainable by being synthesized from compound A and compound B and the molar ratio A/B is from 9 to 999.