mhurhangee/ep-ind-claims huggingface dataset:
A method implemented by a wireless transmit/receive unit, WTRU for controlling discontinuous reception, DRX, the method comprising: receiving higher layer signaling comprising DRX parameters for a first DRX level associated with a first DRX cycle length, a second DRX level associated with a second DRX cycle length, and an indication of a resume period, wherein the indication of a resume period indicates a number of DRX cycles at which the WTRU is to perform DRX using the first DRX cycle length prior to implicitly transitioning to performing DRX using the second DRX cycle length if no new transmissions are received; performing DRX using the second DRX cycle length; performing DRX using the first DRX cycle length based on a trigger; determining that the WTRU has performed DRX using the first DRX cycle length for the number of DRX cycles indicated by the resume period without receiving a new transmission; and transitioning the WTRU from performing DRX using the first DRX cycle length to performing DRX using the second DRX cycle length based on determining that the WTRU has performed DRX using the first DRX cycle length for the determined number of DRX cycles indicated by the resume period without receiving a new transmission, wherein the second DRX cycle length is a multiple of the first DRX cycle length. receiving higher layer signaling comprising DRX parameters for a first DRX level associated with a first DRX cycle length, a second DRX level associated with a second DRX cycle length, and an indication of a resume period, wherein the indication of a resume period indicates a number of DRX cycles at which the WTRU is to perform DRX using the first DRX cycle length prior to implicitly transitioning to performing DRX using the second DRX cycle length if no new transmissions are received; performing DRX using the second DRX cycle length; performing DRX using the first DRX cycle length based on a trigger; determining that the WTRU has performed DRX using the first DRX cycle length for the number of DRX cycles indicated by the resume period without receiving a new transmission; and transitioning the WTRU from performing DRX using the first DRX cycle length to performing DRX using the second DRX cycle length based on determining that the WTRU has performed DRX using the first DRX cycle length for the determined number of DRX cycles indicated by the resume period without receiving a new transmission, wherein the second DRX cycle length is a multiple of the first DRX cycle length.
An elastic wave filter comprising: a plurality of series arm resonators (S1,S2) connected in series to one another on a series arm connecting an input terminal to an output terminal; a first inductor connected to first and second connection nodes on the series arm in such a manner as to be in parallel with a series connection of two or more (S1,S2) of the plurality of the series arm resonators; and a plurality of parallel arm resonators (P1-P3) arranged on a parallel arm connecting the first connection node to a ground potential, on a parallel arm connecting the second connection node to a ground potential, and on a parallel arm connecting a further connection node, between adjacent series arm resonators (S1,S2) of said series connection, to the ground potential; wherein the two or more series arm resonators of said series connection include a first series arm resonator and a second series arm resonator that has a resonant frequency equal to or higher than an anti-resonant frequency of the first series arm resonator; and wherein resonant points of the parallel arm resonators (P1-P3) form two attenuation regions in the passband of the elastic wave filter, and the first inductor forms with equivalent circuits of the first and second series arm resonators (S1,S2) an LC filter having two attenuation poles arranged in said two attenuation regions. a plurality of series arm resonators (S1,S2) connected in series to one another on a series arm connecting an input terminal to an output terminal; a first inductor connected to first and second connection nodes on the series arm in such a manner as to be in parallel with a series connection of two or more (S1,S2) of the plurality of the series arm resonators; and a plurality of parallel arm resonators (P1-P3) arranged on a parallel arm connecting the first connection node to a ground potential, on a parallel arm connecting the second connection node to a ground potential, and on a parallel arm connecting a further connection node, between adjacent series arm resonators (S1,S2) of said series connection, to the ground potential; wherein the two or more series arm resonators of said series connection include a first series arm resonator and a second series arm resonator that has a resonant frequency equal to or higher than an anti-resonant frequency of the first series arm resonator; and wherein resonant points of the parallel arm resonators (P1-P3) form two attenuation regions in the passband of the elastic wave filter, and the first inductor forms with equivalent circuits of the first and second series arm resonators (S1,S2) an LC filter having two attenuation poles arranged in said two attenuation regions.
A process for making a compound of Formula I or a pharmaceutically acceptable salt thereof, wherein: X is selected from -C(R 3)= or -N=, wherein R 3 is hydrogen, F or CN; Y is CH or N; R 1 is selected from the group consisting of C 1-4 alkyl, cyclopropylmethyl, cyclobutylmethyl and [1-(trifluoromethyl)cyclopropyl]methyl, each of which is optionally substituted with one or more substituents as allowed by valence independently selected from the group consisting of F and hydroxy; and R 2 is hydrogen, methyl, F, Cl, or Br; comprising initiating the reaction of a compound of Formula F Wherein E 1 is selected from the group consisting of halogen, -C -O-R", -CN, -CONRR', - NRR', -CH 2 -OR, OR, methyl and vinyl, wherein each R and R' are independently selected from the group consisting of hydrogen, C 1-6 alkyl, aryl, heteroaryl or benzyl and R" is hydrogen or is selected from methyl, ethyl, propyl, isopropyl, n-butyl, iso-butyl, sec-butyl tert-butyl, allyl, hexyl, octyl, cyclohexyl, benzyl and phenyl; E 2 is a functional group that has leaving ability, and PG is a nitrogen protecting group, in an organic phase, in the presence of a mono- or bis-quaterary cinchona alkaloid salt and an inorganic base in an aqueous phase, to form a biphasic medium comprising the aqueous phase and organic phase, to make a compound of Formula G when E 1 is other than -C -O-H, replacing E 1 with or converting E 1 to a carboxylic acid utilizing a suitable chemical reaction to yield a compound of Formula H deprotecting the compound of Formula H to yield the compound of Formula C optionally isolated as a salt, and coupling the compound of Formula C with a compound of Formula B optionally as a salt, under conditions for an amide bond formation between an acid and an amine to yield a compound of Formula I. X is selected from -C(R 3)= or -N=, wherein R 3 is hydrogen, F or CN; Y is CH or N; R 1 is selected from the group consisting of C 1-4 alkyl, cyclopropylmethyl, cyclobutylmethyl and [1-(trifluoromethyl)cyclopropyl]methyl, each of which is optionally substituted with one or more substituents as allowed by valence independently selected from the group consisting of F and hydroxy; and R 2 is hydrogen, methyl, F, Cl, or Br; Wherein E 1 is selected from the group consisting of halogen, -C -O-R", -CN, -CONRR', - NRR', -CH 2 -OR, OR, methyl and vinyl, wherein each R and R' are independently selected from the group consisting of hydrogen, C 1-6 alkyl, aryl, heteroaryl or benzyl and R" is hydrogen or is selected from methyl, ethyl, propyl, isopropyl, n-butyl, iso-butyl, sec-butyl tert-butyl, allyl, hexyl, octyl, cyclohexyl, benzyl and phenyl; E 2 is a functional group that has leaving ability, and PG is a nitrogen protecting group,
Support device for supporting a padding of a chair and/or lounger, in particular a mattress of a bed, comprising a main body having resilient elements (22, 24) for supporting the area of the padding and comprising at least one pressurising/unpressurising device for achieving pressurising or unpressurising of the padding, wherein the pressurising/unpressurising device for achieving pressurising or unpressurising acts on at least one resilient element (22, 24), wherein the pressurising/unpressurising device has at least one electric motor which is in operative connection with at least one pressure element, by means of which to achieve pressurising or unpressurising a pressure force may be exerted or is exerted onto at least one resilient element (22, 24), wherein the pressurising/unpressurising device has at least one first slide in drive connection with an electric motor, which slide can be moved in translation in longitudinal direction of the support device, wherein the first slide supports at least one arm, the free end of which supports the pressure element for pressurising/unpressurising the resilient elements (22, 24), wherein the resilient element are resilient slats (22, 24), characterised in that the resilient slats (22, 24) are joined together by at least one flexible band (40, 42), wherein at least one pressure element (36, 36') bears on the band for pressurising/unpressurising the slats (22, 24) by means of the band.
A method, comprising: receiving at a controller a memory address range that corresponds to memory cells in an array, wherein the memory cells are coupled to a plurality of sense lines; accessing at the controller a first error code for data stored in the memory cells; calculating within a sensing circuitry (150, 250), coupled to the plurality of sense lines, a second error code for the data without transferring data via an input/output, I/O, line of the sensing circuitry, wherein an execution of a plurality of operations to calculate the second error code are distributed between an execution of a different plurality of operations; determining at the sensing circuitry whether the first error code and the second error code are a same error code; and responsive to a determination that the first error code and the second error code are not the same error code, notifying, by the controller, a host that the first error code and the second error code are not the same error code. receiving at a controller a memory address range that corresponds to memory cells in an array, wherein the memory cells are coupled to a plurality of sense lines; accessing at the controller a first error code for data stored in the memory cells; calculating within a sensing circuitry (150, 250), coupled to the plurality of sense lines, a second error code for the data without transferring data via an input/output, I/O, line of the sensing circuitry, wherein an execution of a plurality of operations to calculate the second error code are distributed between an execution of a different plurality of operations; determining at the sensing circuitry whether the first error code and the second error code are a same error code; and responsive to a determination that the first error code and the second error code are not the same error code, notifying, by the controller, a host that the first error code and the second error code are not the same error code.
A foam comprising: i) 80 to 95 wt.% of water, and ii) 1 to 20 wt.% native rapeseed protein isolate comprising 40 to 65 wt.% cruciferins and 35 to 60 wt.% napins and having a solubility of at least 88% over a pH range from 3 to 10 at a temperature of 23±2°C, iii) a second protein selected from the group consisting of whey protein, casein or milk protein, isolates of any thereof, concentrates of any thereof and combinations of any thereof, wherein the ratio between said rapeseed protein isolate and said second protein is from 95:5 (w:w) to 5:95 (w:w), wherein i) + ii) + iii) add up to 100 wt.% or less. i) 80 to 95 wt.% of water, and ii) 1 to 20 wt.% native rapeseed protein isolate comprising 40 to 65 wt.% cruciferins and 35 to 60 wt.% napins and having a solubility of at least 88% over a pH range from 3 to 10 at a temperature of 23±2°C, iii) a second protein selected from the group consisting of whey protein, casein or milk protein, isolates of any thereof, concentrates of any thereof and combinations of any thereof, wherein the ratio between said rapeseed protein isolate and said second protein is from 95:5 (w:w) to 5:95 (w:w),
A method for improving operation lifetime of a capacitor module in an electronic circuit employing the capacitor module, comprising the steps of: providing two or more capacitor modules of same configuration; and controlling alternately a respective one of the capacitor modules by a capacitor module controller to operate in the electronic circuit for a same first predetermined period of time, said capacitor module controller counting the first predetermined period of time for each of the capacitor modules, and disconnecting the operation of the capacitor module in operation after connecting another capacitor module to operate at the termination of the first predetermined period of time; wherein the controlling step comprises always actuating a first one of the capacitor modules to operate for half of the first predetermined period of time every time the electronic circuit is turned on. providing two or more capacitor modules of same configuration; and controlling alternately a respective one of the capacitor modules by a capacitor module controller to operate in the electronic circuit for a same first predetermined period of time, said capacitor module controller counting the first predetermined period of time for each of the capacitor modules, and disconnecting the operation of the capacitor module in operation after connecting another capacitor module to operate at the termination of the first predetermined period of time; wherein the controlling step comprises always actuating a first one of the capacitor modules to operate for half of the first predetermined period of time every time the electronic circuit is turned on.
Apparatus for handling a container, comprising filling the container with a filling product, preferably with a beverage in a beverage bottling plant, wherein the apparatus has: a valve main body with an outlet for introducing the filling product into the container and with a swirl chamber which is fluidically connected to the outlet and is configured to induce a swirling motion in the filling product as the latter is being introduced into the container, wherein the valve main body has a main inlet which opens tangentially into the swirl chamber and is configured to introduce the filling product or a main component of the filling product into the swirl chamber in such a manner that a swirling motion is induced in the filling product in the swirl chamber; a valve cone which is at least partially arranged in the valve body, defines an axial direction and through which a gas duct penetrates in the axial direction, wherein the valve cone is preferably configured so as to be displaceable in the axial direction for flow control of the filling product through the outlet; and a sensor device with a sensor head which is configured to detect at least one signal and is arranged in the gas duct. a valve main body with an outlet for introducing the filling product into the container and with a swirl chamber which is fluidically connected to the outlet and is configured to induce a swirling motion in the filling product as the latter is being introduced into the container, wherein the valve main body has a main inlet which opens tangentially into the swirl chamber and is configured to introduce the filling product or a main component of the filling product into the swirl chamber in such a manner that a swirling motion is induced in the filling product in the swirl chamber; a valve cone which is at least partially arranged in the valve body, defines an axial direction and through which a gas duct penetrates in the axial direction, wherein the valve cone is preferably configured so as to be displaceable in the axial direction for flow control of the filling product through the outlet; and a sensor device with a sensor head which is configured to detect at least one signal and is arranged in the gas duct.
A flame retardant comprising magnesium hydroxide particles subjected to a surface treatment, the particles satisfying the following to: an average particle size is 2 μm or less according to a laser diffraction method; a BET specific surface area is 3 to 15 m 2 /g; a degree of mono-dispersion is 50% or more, the degree of mono-dispersion being represented by the following equation: Degree of mono-dispersion (%) = (average primary particle size [μm] of particles according to SEM observation/average particle size [μm] of particles according to laser diffraction method) x 100; and just after 1 mL of a 0.1 M solution of nitric acid is dropwise added at a dropping rate of 0.1 mL/minute to a suspension obtained by adding 1.0 g of the flame retardant to 100 mL of an aqueous mixed solution containing 0.1% by weight of each of Triton X-100 as a wetting agent and lithium perchlorate as an electrolyte, pH of the suspension is 9.0 or less according to a potentiometric titration. an average particle size is 2 μm or less according to a laser diffraction method; a BET specific surface area is 3 to 15 m 2 /g; a degree of mono-dispersion is 50% or more, the degree of mono-dispersion being represented by the following equation: Degree of mono-dispersion (%) = (average primary particle size [μm] of particles according to SEM observation/average particle size [μm] of particles according to laser diffraction method) x 100; and Degree of mono-dispersion (%) = (average primary particle size [μm] of particles according to SEM observation/average particle size [μm] of particles according to laser diffraction method) x 100; and just after 1 mL of a 0.1 M solution of nitric acid is dropwise added at a dropping rate of 0.1 mL/minute to a suspension obtained by adding 1.0 g of the flame retardant to 100 mL of an aqueous mixed solution containing 0.1% by weight of each of Triton X-100 as a wetting agent and lithium perchlorate as an electrolyte, pH of the suspension is 9.0 or less according to a potentiometric titration.
A single-use cartridge, wherein: the cartridge defines a plurality of blind bores, each blind bore defining one opening, at least one of the plurality of blind bores containing two mutually immiscible liquids (3,4) both of which are immiscible with water, one of the two mutually immiscible liquids (3,4) having a specific gravity greater than water and the other of the two mutually immiscible liquids having a specific gravity less than water.
A swing arm assembly (1-1; 1-2; 1-3; 1-4; 1-5) for a mid-wheel drive wheelchair, comprising: a front swing arm having a front swing arm pivot point, a drive assembly swing arm having a drive assembly swing arm pivot point and a resilient member first mounting point, a rear swing arm having a rear swing arm pivot point and a resilient member second mounting point, and a resilient member configured to be connected to the resilient member first mounting point and to the resilient member second mounting point to enable force transfer between the drive assembly swing arm and the rear swing arm. a front swing arm having a front swing arm pivot point, a drive assembly swing arm having a drive assembly swing arm pivot point and a resilient member first mounting point, a rear swing arm having a rear swing arm pivot point and a resilient member second mounting point, and a resilient member configured to be connected to the resilient member first mounting point and to the resilient member second mounting point to enable force transfer between the drive assembly swing arm and the rear swing arm.
A method of encoding video data, the method comprising: calculating a plurality of DC offset values for a frame of the video data, wherein the plurality of DC offset values are associated with a plurality of different integer and sub-integer pixel locations, wherein the DC offset values include one DC offset value for integer pixel locations and DC offset values for each of the different sub-integer pixel locations; applying the DC offset values to predictive video blocks to bias the predictive video blocks according to the DC offset values and thereby generate offset predictive video blocks; and encoding video blocks of the frame based on the offset predictive video blocks. calculating a plurality of DC offset values for a frame of the video data, wherein the plurality of DC offset values are associated with a plurality of different integer and sub-integer pixel locations, wherein the DC offset values include one DC offset value for integer pixel locations and DC offset values for each of the different sub-integer pixel locations; applying the DC offset values to predictive video blocks to bias the predictive video blocks according to the DC offset values and thereby generate offset predictive video blocks; and encoding video blocks of the frame based on the offset predictive video blocks.
A method for separating in real-time voice from noise in an audio signal X received on a receiver equipped with an audio sensor, said audio signal X having a length L, characterised in that it contains at least the following steps: - the received audio stream is separated into N frames X N, - a tensor I N containing information on the entirety of the audio stream is associated with each frame X N, - each frame X N is transmitted to a first module M 1,, configured to generate a signal X N 1 and a tensor I N -1, obtained in the preceding iteration of processing the frame X N - 1, is transmitted to a module M 3,, such that I N = I N- 1 + λ(A N - I N- 1), with λ a gain factor and A N a tensor, - the signal X N 1 is transformed by a module M 2 in order to generate a signal X N 2, - the module M 3 concatenates X N 2 and the tensor I N -1 in order to generate a signal X N 3 of 2F × T size, with F a given number of filters and T a divisor of the length L, - the signal X N 3,, is transmitted to a module M 4 configured to generate a signal X N 4 that is combined,, with the signal X N 1, - the signal resulting from the combination is decoded by a decoder M 5,, in order to generate a first voice signal X N, 0 and a second signal X N,1. - the received audio stream is separated into N frames X N, - a tensor I N containing information on the entirety of the audio stream is associated with each frame X N, - each frame X N is transmitted to a first module M 1,, configured to generate a signal X N 1 and a tensor I N -1, obtained in the preceding iteration of processing the frame X N - 1, is transmitted to a module M 3,, such that I N = I N- 1 + λ(A N - I N- 1), with λ a gain factor and A N a tensor, - the signal X N 1 is transformed by a module M 2 in order to generate a signal X N 2, - the module M 3 concatenates X N 2 and the tensor I N -1 in order to generate a signal X N 3 of 2F × T size, with F a given number of filters and T a divisor of the length L, - the signal X N 3,, is transmitted to a module M 4 configured to generate a signal X N 4 that is combined,, with the signal X N 1, - the signal resulting from the combination is decoded by a decoder M 5,, in order to generate a first voice signal X N, 0 and a second signal X N,1.
An α,ω-diamino poly(oxyethylene-co-oxytetramethylene ether) random copolymer composition comprising, 25 to 75 mole% oxyethylene units, wherein the amine end groups of the copolymer comprise greater than 90% primary amine groups.