mhurhangee/patent-ind-claim-en huggingface dataset:
A power control method performed by a communications device, the method comprising: • for a terminal configured with a plurality of cells, grouping the plurality of cells into cell groups based on a subcarrier spacing, wherein a power control mode for the cell groups is configured by a base station as a first power control mode or a second power control mode, and the plurality of cells use either carrier aggregation CA or dual connectivity DC (step 502), wherein the grouping the plurality of cells into cell groups based on the subcarrier spacing comprises: putting cells with a same subcarrier spacing into a same cell group, wherein the cells in the cell group use a same power control mode, and the same power control mode is the first power control mode or the second power control mode, wherein the first power control mode is used to allocate a transmit power based on a priority of a channel type or a priority of a cell group type, and the second power control mode is used to allocate a power based on a time sequence for sending of a transmission channel or a cell group and, wherein the cell is at least one of a carrier or a serving cell. • for a terminal configured with a plurality of cells, grouping the plurality of cells into cell groups based on a subcarrier spacing, wherein a power control mode for the cell groups is configured by a base station as a first power control mode or a second power control mode, and the plurality of cells use either carrier aggregation CA or dual connectivity DC (step 502), wherein the grouping the plurality of cells into cell groups based on the subcarrier spacing comprises: putting cells with a same subcarrier spacing into a same cell group, wherein the cells in the cell group use a same power control mode, and the same power control mode is the first power control mode or the second power control mode, wherein the first power control mode is used to allocate a transmit power based on a priority of a channel type or a priority of a cell group type, and the second power control mode is used to allocate a power based on a time sequence for sending of a transmission channel or a cell group and, wherein the cell is at least one of a carrier or a serving cell. putting cells with a same subcarrier spacing into a same cell group, wherein the cells in the cell group use a same power control mode, and the same power control mode is the first power control mode or the second power control mode, wherein the first power control mode is used to allocate a transmit power based on a priority of a channel type or a priority of a cell group type, and the second power control mode is used to allocate a power based on a time sequence for sending of a transmission channel or a cell group and, wherein the cell is at least one of a carrier or a serving cell.
A flow sensing system for sensing a fluid flow in a fluid stream, the flow sensing system comprising: a sensing element configured to sense a fluid flow in a fluid stream, the sensing element providing an analog output signal that is related to the sensed fluid flow; a first channel receiving the analog output signal from the sensing element , the first channel including a first amplifier having a first offset for providing a first amplified output signal to a first Analog-to-Digital Converter (ADC) and providing a first digital output signal that has a first dynamic range; and a second channel receiving the analog output signal from the sensing element , the second channel including a second amplifier having a second offset for providing a second amplified output signal to a second Analog-to-Digital Converter (ADC) and providing a second digital output signal that has a second dynamic range; wherein the first channel and the second channel are configured such that the second dynamic range is narrower than the first dynamic range, and the second dynamic range falls within or substantially falls within the first dynamic range. a sensing element configured to sense a fluid flow in a fluid stream, the sensing element providing an analog output signal that is related to the sensed fluid flow; a first channel receiving the analog output signal from the sensing element , the first channel including a first amplifier having a first offset for providing a first amplified output signal to a first Analog-to-Digital Converter (ADC) and providing a first digital output signal that has a first dynamic range; and a second channel receiving the analog output signal from the sensing element , the second channel including a second amplifier having a second offset for providing a second amplified output signal to a second Analog-to-Digital Converter (ADC) and providing a second digital output signal that has a second dynamic range; wherein the first channel and the second channel are configured such that the second dynamic range is narrower than the first dynamic range, and the second dynamic range falls within or substantially falls within the first dynamic range.
A platelet product, comprising: platelets, and an aqueous solution comprising: from 45 to 125 mM sodium chloride; from 5 to 15 mM sodium citrate; from 20 to 40 mM sodium acetate; from 0.05 to 12 mM phosphate; from 0.05 to 3 mM magnesium ion; from 0.05 to 10 mM potassium chloride; from 20 to 25 mM sodium bicarbonate; from about 0.5 to about 30 mM glucose, and up to 5% by volume plasma. platelets, and an aqueous solution comprising: from 45 to 125 mM sodium chloride; from 5 to 15 mM sodium citrate; from 20 to 40 mM sodium acetate; from 0.05 to 12 mM phosphate; from 0.05 to 3 mM magnesium ion; from 0.05 to 10 mM potassium chloride; from 20 to 25 mM sodium bicarbonate; from about 0.5 to about 30 mM glucose, and from 45 to 125 mM sodium chloride; from 5 to 15 mM sodium citrate; from 20 to 40 mM sodium acetate; from 0.05 to 12 mM phosphate; from 0.05 to 3 mM magnesium ion; from 0.05 to 10 mM potassium chloride; from 20 to 25 mM sodium bicarbonate; from about 0.5 to about 30 mM glucose, and up to 5% by volume plasma.
A replication capable group B oncolytic adenovirus selected from the group consisting of Ad11 and enadenotucirev, wherein the virus comprises a transgene encoding an antibody or a binding fragment thereof for expression on the surface of a cancer cell, wherein said antibody or binding fragment is specific to a CD3 protein of a T-cell receptor complex (TCR), and the gene encoding said antibody or binding fragment is located between the stop codon and polyA recognition site of the adenoviral gene L5 and the stop codon and polyA recognition site of the gene E4, and the encoded antibody further comprises a transmembrane domain or a GPI anchor, wherein the transgene encoding the anti-CD3 antibody or binding fragment is under the control of the endogenous major late promoter, wherein the virus encodes at least one further transgene, wherein the further transgene encodes a cytokine selected from the group comprising TNF superfamily, TGF beta superfamily, IL-1 family, IL-10 family, IL-17 family and interferon family, and said one or more further transgenes are between the E4 region and the fibre L5 under the control of the major late promoter, and wherein the anti-CD3 antibody or binding fragment thereof and protein encoded by the further transgene are expressed independently anchored at the surface of the cancer cell, wherein the virus does not encode a B7 protein or an active fragment thereof. wherein the transgene encoding the anti-CD3 antibody or binding fragment is under the control of the endogenous major late promoter, wherein the virus encodes at least one further transgene, wherein the further transgene encodes a cytokine selected from the group comprising TNF superfamily, TGF beta superfamily, IL-1 family, IL-10 family, IL-17 family and interferon family, and said one or more further transgenes are between the E4 region and the fibre L5 under the control of the major late promoter, and wherein the anti-CD3 antibody or binding fragment thereof and protein encoded by the further transgene are expressed independently anchored at the surface of the cancer cell, wherein the virus does not encode a B7 protein or an active fragment thereof.
A composition, which is an antifouling coating composition comprising, blended with each other, - a silylacrylic copolymer (A) having a component unit derived from triisopropylsilyl (meth) acrylate (A1) and a component unit derived from a polymerizable monomer (A2) having a polymerizable double bond; and - a rosin compound (B) which is at least one of a rosin and a metal-free type rosin derivative, each having an acid value of ≤ 180 (mg KOH/g). - a silylacrylic copolymer (A) having a component unit derived from triisopropylsilyl (meth) acrylate (A1) and a component unit derived from a polymerizable monomer (A2) having a polymerizable double bond; and - a rosin compound (B) which is at least one of a rosin and a metal-free type rosin derivative, each having an acid value of ≤ 180 (mg KOH/g).
A braking mode switching apparatus , comprising: a braking mode selection component , wherein the braking mode selection component moves between a first position corresponding to a first braking mode and a second position corresponding to a second braking mode; a transmission member , coupled to the braking mode selection component , and having a first transmission portion and a second transmission portion ; a stopper , comprising a first stopper portion and a second stopper portion ; a driver , comprising an output shaft ; characterised by a motion control component , disposed on the output shaft and coupled to the braking mode selection component , wherein the motion control component is configured to: abut against the first stopper portion in response to a case in which the driver is powered on, and the braking mode selection component is located in the first position, so that the first transmission portion engages with a first execution portion ; and abut against the second stopper portion in response to a case in which the driver is not powered on, and the braking mode selection component is located in the second position, so that the second transmission portion engages with a second execution portion . a braking mode selection component , wherein the braking mode selection component moves between a first position corresponding to a first braking mode and a second position corresponding to a second braking mode; a transmission member , coupled to the braking mode selection component , and having a first transmission portion and a second transmission portion ; a stopper , comprising a first stopper portion and a second stopper portion ; a driver , comprising an output shaft ; characterised by a motion control component , disposed on the output shaft and coupled to the braking mode selection component , wherein the motion control component is configured to: abut against the first stopper portion in response to a case in which the driver is powered on, and the braking mode selection component is located in the first position, so that the first transmission portion engages with a first execution portion ; and abut against the second stopper portion in response to a case in which the driver is not powered on, and the braking mode selection component is located in the second position, so that the second transmission portion engages with a second execution portion . abut against the first stopper portion in response to a case in which the driver is powered on, and the braking mode selection component is located in the first position, so that the first transmission portion engages with a first execution portion ; and abut against the second stopper portion in response to a case in which the driver is not powered on, and the braking mode selection component is located in the second position, so that the second transmission portion engages with a second execution portion .
A population of capsules, the capsules comprising: an oil-based core comprising a benefit agent; and a shell surrounding the core, the shell comprising: a substantially inorganic first shell component comprising: a condensed layer comprising a condensation product of a precursor, and a nanoparticle layer comprising inorganic nanoparticles, wherein the condensed layer is disposed between the core and the nanoparticle layer, and an inorganic second shell component surrounding the first shell component, wherein the inorganic second shell component surrounds the nanoparticle layer, and wherein the precursor comprises at least one compound of Formula (I) (M v O z Y n ) w (Formula I) where M is one or more of silicon, titanium and aluminum, v is the valence number of M and is 3 or 4, z is from 0.5 to 1.6, preferably 0.5 to 1.5, each Y is independently selected from -OH, -OR 2 , halo, , -NH 2 , -NHR 2 , - N(R 2 ) 2 , and wherein R 2 is a C 1 to C 20 alkyl, C 1 to C 20 alkylene, C 6 to C 22 aryl, or a 5-12 membered heteroaryl comprising from 1 to 3 ring heteroatoms selected from O, N, and S, R 3 is a H, C 1 to C 20 alkyl, C 1 to C 20 alkylene, C 6 to C 22 aryl, or a 5-12 membered heteroaryl comprising from 1 to 3 ring heteroatoms selected from O, N, and S, n is from 0.7 to (v-1), and w is from 2 to 2000. an oil-based core comprising a benefit agent; and a shell surrounding the core, the shell comprising: a substantially inorganic first shell component comprising: a condensed layer comprising a condensation product of a precursor, and a nanoparticle layer comprising inorganic nanoparticles, wherein the condensed layer is disposed between the core and the nanoparticle layer, and an inorganic second shell component surrounding the first shell component, wherein the inorganic second shell component surrounds the nanoparticle layer, and wherein the precursor comprises at least one compound of Formula (I) (M v O z Y n ) w (Formula I) a substantially inorganic first shell component comprising: a condensed layer comprising a condensation product of a precursor, and a nanoparticle layer comprising inorganic nanoparticles, wherein the condensed layer is disposed between the core and the nanoparticle layer, and a condensed layer comprising a condensation product of a precursor, and a nanoparticle layer comprising inorganic nanoparticles, wherein the condensed layer is disposed between the core and the nanoparticle layer, and an inorganic second shell component surrounding the first shell component, where M is one or more of silicon, titanium and aluminum, v is the valence number of M and is 3 or 4, z is from 0.5 to 1.6, preferably 0.5 to 1.5, each Y is independently selected from -OH, -OR 2 , halo, , -NH 2 , -NHR 2 , - N(R 2 ) 2 , and wherein R 2 is a C 1 to C 20 alkyl, C 1 to C 20 alkylene, C 6 to C 22 aryl, or a 5-12 membered heteroaryl comprising from 1 to 3 ring heteroatoms selected from O, N, and S, R 3 is a H, C 1 to C 20 alkyl, C 1 to C 20 alkylene, C 6 to C 22 aryl, or a 5-12 membered heteroaryl comprising from 1 to 3 ring heteroatoms selected from O, N, and S, n is from 0.7 to (v-1), and w is from 2 to 2000.
Method for producing a pipe fitting , wherein a metallic material is melted by heating, and wherein a plurality of material layers are successively produced from the molten material , wherein the material layer produced in each case is connected in a bonded manner to the respectively preceding material layer , and wherein the pipe fitting is formed from the mutually bonded material layers , characterized in that the metallic material is an aluminum alloy with a weight fraction of at least 2.5% magnesium.
A timepiece incorporating a miniature, user-powered electrical generating device employing mechanical energy storage and incorporating one or more miniature special effect elements which are activated on-demand for a limited duration without the need for a battery or other electro-chemical storage device, the device comprising a. a spring , b. a manual spring loading mechanism mechanically coupled to the spring, c. a manual trigger mechanism mechanically coupled to the manual spring loading mechanism, d. a transmission , e. a miniature generator , and f. said one or more special effect elements ; the spring being mechanically coupled to the transmission , said transmission being configured for increasing a rotational speed, the transmission being mechanically coupled to the miniature generator , the spring being releasable by a user via the manual trigger mechanism to actuate the one or more special effect elements , the transmission being rotationally coupled to the miniature generator , the miniature generator being electrically coupled to the one or more special effect elements to provide a special effect, and the miniature generator providing sufficient electrical energy to activate the one or more special effect elements for a given time period. a. a spring , b. a manual spring loading mechanism mechanically coupled to the spring, c. a manual trigger mechanism mechanically coupled to the manual spring loading mechanism, d. a transmission , e. a miniature generator , and f. said one or more special effect elements ;
A method for manufacturing a calcined gypsum for a gypsum board, comprising: compounding a raw gypsum only with a carboxylic acid-type material; and calcining a mixture only of the raw gypsum and the carboxylic acid-type material by using a kettle or a rotary kiln; wherein the carboxylic acid-type material to be compounded with a raw gypsum is at least one kind of succinic acid and salts thereof, malic acid and salts thereof, citric acid and salts thereof, tartaric acid and salts thereof, maleic acid and salts thereof, and gluconic acid and salts thereof. compounding a raw gypsum only with a carboxylic acid-type material; and calcining a mixture only of the raw gypsum and the carboxylic acid-type material by using a kettle or a rotary kiln; wherein the carboxylic acid-type material to be compounded with a raw gypsum is at least one kind of succinic acid and salts thereof, malic acid and salts thereof, citric acid and salts thereof, tartaric acid and salts thereof, maleic acid and salts thereof, and gluconic acid and salts thereof.
An apparatus, comprising a cam driven, concentric drive rotary-valve dual-piston engine, wherein each of the pistons drives a reciprocating crankshaft that protrudes through a cylinder wall and cooperatively rotate a pair of rotors by engaging substantially sinusoidal cam tracks on the rotors turning in opposite directions to provide bi-directional torque-free operation without heavy gears or transmissions, wherein action between angled rotor cam tracks and linear cylinder cam track walls cause angular force to be applied to the rotors , thus forcing them to turn.
A data recording method, applied to a service processor, and comprising: obtaining target data from a data owner, wherein the service processor has permission to obtain data from the data owner; generating a blockchain transaction based on the target data when the target data is obtained in response to an access request initiated by a data user, and transmitting the generated blockchain transaction to a blockchain node, so that the blockchain node performs transaction consensus with other nodes contained in a blockchain network that comprises the blockchain node, and stores the blockchain transaction in a blockchain when the transaction consensus is reached; and returning the target data obtained from the data owner or index information generated by the blockchain node for the blockchain transaction to the data user when the data user is determined to have access permission to the target data, wherein the index information is used by the data user to generate a request transaction for the blockchain transaction to obtain the blockchain transaction or the target data contained in the blockchain transaction from any node in the blockchain network that comprises the blockchain node. obtaining target data from a data owner, wherein the service processor has permission to obtain data from the data owner; generating a blockchain transaction based on the target data when the target data is obtained in response to an access request initiated by a data user, and transmitting the generated blockchain transaction to a blockchain node, so that the blockchain node performs transaction consensus with other nodes contained in a blockchain network that comprises the blockchain node, and stores the blockchain transaction in a blockchain when the transaction consensus is reached; and returning the target data obtained from the data owner or index information generated by the blockchain node for the blockchain transaction to the data user when the data user is determined to have access permission to the target data, wherein the index information is used by the data user to generate a request transaction for the blockchain transaction to obtain the blockchain transaction or the target data contained in the blockchain transaction from any node in the blockchain network that comprises the blockchain node.
Composition or material comprising - permanently polarized hydroxyapatite, wherein the corresponding 31 P-NMR spectrum of the permanently polarized hydroxyapatite is carried out with solid hydroxyapatite using phosphoric acid as a reference and shows a unique peak at 2.6 ppm or around 2.6 ppm, i.e. in the range of 2.5 ppm to 2.7 ppm, and - brushite, wherein in the wide angle x-ray scattering spectrum the most representative peaks of brushite appear at 2θ = 29°, 31°, 35°, 42° and 51° and/or a brushite-like material, wherein the brushite-like material presents in the Raman spectrum peaks at 878, 848 and 794 cm -1 , and wherein the permanently polarized hydroxyapatite has a proportion of 50% by weight to 99.9% by weight, based on the total weight of the composition or material. - permanently polarized hydroxyapatite, wherein the corresponding 31 P-NMR spectrum of the permanently polarized hydroxyapatite is carried out with solid hydroxyapatite using phosphoric acid as a reference and shows a unique peak at 2.6 ppm or around 2.6 ppm, i.e. in the range of 2.5 ppm to 2.7 ppm, and - brushite, wherein in the wide angle x-ray scattering spectrum the most representative peaks of brushite appear at 2θ = 29°, 31°, 35°, 42° and 51° and/or a brushite-like material, wherein the brushite-like material presents in the Raman spectrum peaks at 878, 848 and 794 cm -1 , and wherein the permanently polarized hydroxyapatite has a proportion of 50% by weight to 99.9% by weight, based on the total weight of the composition or material.
Rubber mixture, characterized in that it contains at least one rubber and at least one resin as a crosslinking agent and polyvinyl chloride, wherein the resin is a para-tert-butylphenol formaldehyde resin.
A crystalline 3-phenyl-4-propyl-1-(pyridin-2-yl)-1 H -pyrazol-5-ol hydrochloride represented by the following Formula 1, having a maximum endothermic temperature, measured with a differential scanning calorimeter (DSC), of 134.25 ± 3°C wherein the crystalline 3-phenyl-4-propyl-1- (pyridin-2-yl)-1 H -pyrazol-5-ol hydrochloride has 2θ diffraction angles (2θ ± 0.2°) having a relative intensity of 15% or higher, obtained through X-ray powder diffraction analysis, of 7.15, 10.72, 13.36, 15.99, 16.39, 16.71, 17.14, 19.61, 21.50, 21.82, 23.46, 24.08, 25.91 and 27.36.
A connecting system , comprising at least two hole carriers with a row of side openings made therein in a longitudinal direction, the openings being aligned in a first orientation and in a second orientation orthogonal thereto and being made transverse to the longitudinal direction, wherein the side openings of the first and the second orientation are shifted by one half of the distance between the center axes of two side openings , the connecting system further comprising at least one connection element for connection of at least two hole carriers , characterized in that the distances between two side openings in the first orientation are less than the clear width of the side openings , wherein the side openings of the second orientation are introduced in each case in the distance between two flank openings in the first orientation, and wherein the side openings of the first and the second orientation partially penetrating one another.