mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication, comprising: determining whether a wireless device desires dynamic sounding reference signal, SRS, resources in addition to periodic SRS resources, wherein the determining includes estimating an operational parameter for a communication channel with the wireless device; and signaling, based on the determination, an indication which dynamic SRS resource from a set of dynamic SRS time/frequency transmission resources is allocated to the wireless device in a portion of an uplink or downlink scheduling grant. determining whether a wireless device desires dynamic sounding reference signal, SRS, resources in addition to periodic SRS resources, wherein the determining includes estimating an operational parameter for a communication channel with the wireless device; and signaling, based on the determination, an indication which dynamic SRS resource from a set of dynamic SRS time/frequency transmission resources is allocated to the wireless device in a portion of an uplink or downlink scheduling grant.
A transparent laminate having a plurality of filmy members (10, 20, 30) each configured to be formed on at least one side of a base (11, 21, 31) with structures (12, 22, 32) having protrusions and recesses whose pitch is equal to or less than visible light wavelength, wherein the filmy members (10, 20, 30) are overlapped and at least secured at an end thereof, wherein the overlapped filmy members (10, 20, 30) are provided with a space arranged between the structures (12, 22, 32) facing each other, wherein the secured filmy member (10, 20, 30) is jointed in a peelable manner with an adhesive layer arranged at least at an outer edge serving as the end, wherein the facing structures (12, 22, 32) are not in contact with each other according to the thickness of the adhesive layer, and wherein the space is an air layer formed between the structures (12, 22, 32).
A catalyst composition for a producing process of an unsaturated carboxylic acid salt and its derivatives from carbon dioxide and olefin, wherein said catalyst composition comprises: a) a palladium metal complex as shown in structure; wherein, R 1, R 2, R 3, and R 4 independently represents a group selected from hydrogen atom, chlorine atom, tert-butyl group, methoxy group, trifluoromethyl group, or diethylamine group; and R 5 represents a group selected from ethylene, 1,2-phenylene, binaphthyl, or 1,2-cyclohexyl; b) a ligand selected from organophosphorus compound selected from diphosphine group with a general formula PR 7 3 CH 2 CH 2 PR 7 3, wherein R 7 is selected from alkyl group, phenyl group, or cycloalkyl group; c) a base selected from sodium tert-butoxide, sodium isopropoxide, sodium 2,6-dimethylphenolate, sodium 2,6-difluorophenolate, sodium 2-methylphenolate, or sodium 2-fluorophenolate); and d) a reducing agent selected from zinc, L-ascorbic acid, or sodium citrate. a) a palladium metal complex as shown in structure; wherein, R 1, R 2, R 3, and R 4 independently represents a group selected from hydrogen atom, chlorine atom, tert-butyl group, methoxy group, trifluoromethyl group, or diethylamine group; and R 5 represents a group selected from ethylene, 1,2-phenylene, binaphthyl, or 1,2-cyclohexyl; R 1, R 2, R 3, and R 4 independently represents a group selected from hydrogen atom, chlorine atom, tert-butyl group, methoxy group, trifluoromethyl group, or diethylamine group; and R 5 represents a group selected from ethylene, 1,2-phenylene, binaphthyl, or 1,2-cyclohexyl; b) a ligand selected from organophosphorus compound selected from diphosphine group with a general formula PR 7 3 CH 2 CH 2 PR 7 3, wherein R 7 is selected from alkyl group, phenyl group, or cycloalkyl group; c) a base selected from sodium tert-butoxide, sodium isopropoxide, sodium 2,6-dimethylphenolate, sodium 2,6-difluorophenolate, sodium 2-methylphenolate, or sodium 2-fluorophenolate); and d) a reducing agent selected from zinc, L-ascorbic acid, or sodium citrate.
A composition comprising: 32 to 46 weight percent of a poly(phenylene ether) having an intrinsic viscosity of 0.2 to 0.35 deciliter per gram, measured at 25 °C in chloroform; 30 to 49 weight percent of a rubber-modified polystyrene; 13 to 19 weight percent of an organophosphate ester; and 0.2 to 1.5 weight percent of polymerized acrylonitrile residue; wherein the rubber-modified polystyrene and the polymerized acrylonitrile residue are provided in the form of a post-consumer recycled rubber-modified polystyrene comprising styrene-acrylonitrile copolymer, acrylonitrile-butadiene-styrene copolymer, or a mixture thereof; and wherein combustion of 100 parts by weight of the composition in air produces 0.1 to 3 parts by weight ash; wherein the amount of the polymerised acrylonitrile residue is determined by the C 13 n.m.r. method disclosed in the present specification and the ash content is determined by combustion in air at 600°C for two hours as described in present specification. 32 to 46 weight percent of a poly(phenylene ether) having an intrinsic viscosity of 0.2 to 0.35 deciliter per gram, measured at 25 °C in chloroform; 30 to 49 weight percent of a rubber-modified polystyrene; 13 to 19 weight percent of an organophosphate ester; and 0.2 to 1.5 weight percent of polymerized acrylonitrile residue; wherein the rubber-modified polystyrene and the polymerized acrylonitrile residue are provided in the form of a post-consumer recycled rubber-modified polystyrene comprising styrene-acrylonitrile copolymer, acrylonitrile-butadiene-styrene copolymer, or a mixture thereof; and wherein combustion of 100 parts by weight of the composition in air produces 0.1 to 3 parts by weight ash; wherein the amount of the polymerised acrylonitrile residue is determined by the C 13 n.m.r. method disclosed in the present specification and the ash content is determined by combustion in air at 600°C for two hours as described in present specification.
A cellulose acetate particle aggregate comprising 64-89 wt% of cellulose acetate particles, 10-35 wt% of a second kind of particles and 0.5-15 wt% of a binder, wherein the second kind of particles are prepared from one or more substances selected from cellulose, methylcellulose, ethylcellulose, propylcellulose, methylethylcellulose, and chitosan.
A computer-readable storage medium including instructions adapted to direct a computer to perform an operation, the operation comprising: receiving at least a first storage operation from a storage client, wherein the first storage operation is a data read operation with first stored data; accessing first storage lease information specifying a first time period of restricted access for the first stored data; comparing the first storage lease information with a current time reference; inhibiting the first storage operation from being performed in response to the current time reference being inside the first period of restricted access to the first stored data specified by the first storage lease information and allowing the first storage operation in response to the current time reference being outside the first time period of restricted access to the first stored data specified by the first storage lease information; and wherein the first storage lease information includes a timestamp; and wherein the timestamp indicates the end of the first time period for restricted access to the first stored data; and. the operation further comprising: generating a security certificate in response to the completion of at least the first storage operation, wherein the security certificate indicates completion of at least the first storage operation. receiving at least a first storage operation from a storage client, wherein the first storage operation is a data read operation with first stored data; accessing first storage lease information specifying a first time period of restricted access for the first stored data; comparing the first storage lease information with a current time reference; inhibiting the first storage operation from being performed in response to the current time reference being inside the first period of restricted access to the first stored data specified by the first storage lease information and allowing the first storage operation in response to the current time reference being outside the first time period of restricted access to the first stored data specified by the first storage lease information; and wherein the first storage lease information includes a timestamp; and wherein the timestamp indicates the end of the first time period for restricted access to the first stored data; and. the operation further comprising: generating a security certificate in response to the completion of at least the first storage operation, wherein the security certificate indicates completion of at least the first storage operation.
An electroluminescent device, referred to as EL device, comprising: a) an illumination area having one or more primary EL emitters; b) a reference area having a reference EL emitter; c) a reference driver circuit for causing the reference EL emitter to emit light while the EL device is active; d) a sensor for measuring light emitted by the reference EL emitter; e) a measurement unit adapted to measure an aging-related parameter of the reference EL emitter while it is emitting light; and f) a controller for receiving an input signal for each primary EL emitter in the illumination area, forming a corrected input signal from each input signal using the measured light and the aging-related parameter, and applying the corrected input signals to the respective primary EL emitters in the illumination area, wherein the reference driver circuit is adapted to cause the reference EL emitter to emit light by driving the reference EL emitter at two current density levels at different times, wherein the two current density levels are a measurement current density level representative of a current density at which light is emitted by the primary EL emitters, and a fade current density level, wherein the measurements of the reference EL emitter are taken while the reference EL emitter emits light at the measurement current density level, characterized in that, at the fade current density level, the current density with which the reference EL emitter is driven is higher than the highest current density commanded by the input signals, and wherein the aging-related parameter of the reference EL emitter measured by the measurement unit is a voltage across the reference EL emitter or a current flowing through the reference EL emitter. a) an illumination area having one or more primary EL emitters; b) a reference area having a reference EL emitter; c) a reference driver circuit for causing the reference EL emitter to emit light while the EL device is active; d) a sensor for measuring light emitted by the reference EL emitter; e) a measurement unit adapted to measure an aging-related parameter of the reference EL emitter while it is emitting light; and f) a controller for receiving an input signal for each primary EL emitter in the illumination area, forming a corrected input signal from each input signal using the measured light and the aging-related parameter, and applying the corrected input signals to the respective primary EL emitters in the illumination area, a measurement current density level representative of a current density at which light is emitted by the primary EL emitters, and a fade current density level,
An aircraft propulsion system, the system comprising: an internal combustion engine configured to produce an exhaust gas containing water vapour; a first heat exchanger configured to exchange heat from the internal combustion engine exhaust with a working fluid of a closed cycle heat recovery generator configured to convert heat from the exhaust gas to mechanical power; a condenser provided downstream of the first heat exchanger, configured to condense water vapour in the exhaust gas stream; characterised in that the condenser comprises a heat exchanger configured to exchange heat between the exhaust gas stream and the internal combustion engine fuel. an internal combustion engine configured to produce an exhaust gas containing water vapour; a first heat exchanger configured to exchange heat from the internal combustion engine exhaust with a working fluid of a closed cycle heat recovery generator configured to convert heat from the exhaust gas to mechanical power; a condenser provided downstream of the first heat exchanger, configured to condense water vapour in the exhaust gas stream; characterised in that the condenser comprises a heat exchanger configured to exchange heat between the exhaust gas stream and the internal combustion engine fuel.
A process for providing an absorbent structure comprising of a carrier layer, an intermediate absorbent material and an auxiliary layer, wherein the absorbent material is at least partly enclosed by the carrier layer and auxiliary layer, comprising the steps of: - providing a moving carrier layer; - positioning absorbent material in a desired pattern of absorbent material clusters on the moving carrier layer; - covering the absorbent material with an auxiliary layer; characterized in that the method further comprises: - joining the carrier layer to the auxiliary layer to form the absorbent structure with the absorbent material clusters there between; - prior to joining the carrier layer to the auxiliary layer, altering the distribution of the absorbent material on the moving carrier layer through an airflow by blowing on at least one attachment area from below the attachment area, in such a way as to decrease the amount of absorbent material at the position where the carrier layer and auxiliary layer are to be joined subsequently, and as to provide areas where substantially no absorbent material is present in between the absorbent material clusters in the absorbent structure; wherein the areas are intended to act as additional distribution and transport channel facilitating the flow of liquid away from the point of insult and toward the absorbent material clusters, wherein the airflow is created by at least one blowing orifice situated below the attachment area and at least one suction orifice situated below the attachment area on either side thereof. - providing a moving carrier layer; - positioning absorbent material in a desired pattern of absorbent material clusters on the moving carrier layer; - covering the absorbent material with an auxiliary layer; characterized in that the method further comprises: - joining the carrier layer to the auxiliary layer to form the absorbent structure with the absorbent material clusters there between; - prior to joining the carrier layer to the auxiliary layer, altering the distribution of the absorbent material on the moving carrier layer through an airflow by blowing on at least one attachment area from below the attachment area, in such a way as to decrease the amount of absorbent material at the position where the carrier layer and auxiliary layer are to be joined subsequently, and as to provide areas where substantially no absorbent material is present in between the absorbent material clusters in the absorbent structure; wherein the areas are intended to act as additional distribution and transport channel facilitating the flow of liquid away from the point of insult and toward the absorbent material clusters, wherein the airflow is created by at least one blowing orifice situated below the attachment area and at least one suction orifice situated below the attachment area on either side thereof.
A simulator for estimating a behavior of a system including a carrier having a transporting surface for continuously transporting a target (232, 242) that is placed thereon and a processing device for picking up and placing the target (232, 242) onto the transporting surface, the simulator comprising: a creating unit configured to virtually create the system in a three-dimensional virtual space; a tracking unit configured to update positions of a plurality of targets (232, 242) placed on the transporting surface in the three-dimensional virtual space based on a corresponding movement of the carrier, and update a position of a target (232, 242) picked up by the processing device in the three-dimensional virtual space in a manner associated with a behavior of the processing device; and an instruction generation unit configured to generate a control instruction for the behavior of the processing device based on the position of each target (232, 242) in the three-dimensional virtual space, wherein when the processing device places a target (232, 242) within a predetermined range from the transporting surface, the tracking unit associates the target (232, 242) with the transporting surface and updates a position of the target (232, 242), wherein the tracking unit is further configured to correct a position of a target (232, 242) in a horizontal direction in the three-dimensional virtual space in accordance with a transporting speed in the horizontal direction in the three-dimensional virtual space at a timing when the processing device releases the target (232, 242). a creating unit configured to virtually create the system in a three-dimensional virtual space; a tracking unit configured to update positions of a plurality of targets (232, 242) placed on the transporting surface in the three-dimensional virtual space based on a corresponding movement of the carrier, and update a position of a target (232, 242) picked up by the processing device in the three-dimensional virtual space in a manner associated with a behavior of the processing device; and an instruction generation unit configured to generate a control instruction for the behavior of the processing device based on the position of each target (232, 242) in the three-dimensional virtual space,
A measurement device comprising: an electric field generator configured to generate an alternating current electric field; an electric field detector disposed to face the electric field generator at a distance from the electric field generator and configured to detect the alternating current electric field generated by the electric field generator; a thickness gauge configured to measure a thickness of a measurement target in a non-contact manner; and a processor configured to derive a calibration curve representing a relationship between a specific dielectric constant and an intensity of an alternating current electric field, the electric field detector is configured to detect an intensity of the alternating current electric field attenuated by the measurement target, and the processor is configured to calculate a specific dielectric constant of the measurement target on the basis of the detected intensity of the alternating current electric field, the measured thickness, and the derived calibration curve, characterised in that the measurement target is insertable between the electric field generator and the electric field detector. an electric field generator configured to generate an alternating current electric field; an electric field detector disposed to face the electric field generator at a distance from the electric field generator and configured to detect the alternating current electric field generated by the electric field generator; a thickness gauge configured to measure a thickness of a measurement target in a non-contact manner; and a processor configured to derive a calibration curve representing a relationship between a specific dielectric constant and an intensity of an alternating current electric field, the electric field detector is configured to detect an intensity of the alternating current electric field attenuated by the measurement target, and the processor is configured to calculate a specific dielectric constant of the measurement target on the basis of the detected intensity of the alternating current electric field, the measured thickness, and the derived calibration curve, characterised in that the measurement target is insertable between the electric field generator and the electric field detector.
Rotary selector, characterized in that it is arranged to be positioned in a carrier having slots (3a-f) defining predetermined positions of the rotary selector, the rotary selector comprising at least one spring element (4a, 4b) arranged to snap into locking engagement with one of the slots of the carrier to hold the rotary selector in one of the predefined positions.
A method being performed by a terminal and comprising: receiving information regarding discovery signals, from a primary cell, Pcell, wherein the information includes a periodicity, a subframe offset and a cell identifier of a secondary cell, Scell; receiving a discovery signal, from the Scell; determining a measurement timing for the discovery signal transmitted from the Scell, wherein the measurement timing is determined based on i) the periodicity, ii) the subframe offset and iii) a system frame number, SFN, of the Pcell; and measuring the discovery signal transmitted from the Scell based on the determined measurement timing, wherein the discovery signal is a signal based on a channel-state information reference signal, CSI-RS, wherein the subframe offset indicates a start point of the discovery signal. receiving information regarding discovery signals, from a primary cell, Pcell, wherein the information includes a periodicity, a subframe offset and a cell identifier of a secondary cell, Scell; receiving a discovery signal, from the Scell; determining a measurement timing for the discovery signal transmitted from the Scell, wherein the measurement timing is determined based on i) the periodicity, ii) the subframe offset and iii) a system frame number, SFN, of the Pcell; and measuring the discovery signal transmitted from the Scell based on the determined measurement timing, wherein the discovery signal is a signal based on a channel-state information reference signal, CSI-RS, wherein the subframe offset indicates a start point of the discovery signal.