mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting channel state information, performed by a user equipment, the method comprising: receiving, from a base station, a radio resource control RRC signal; receiving, from a plurality of antennas controlled by the base station, a plurality of channel state information reference signals CSI-RSs; generating channel state information CSI by measuring each of the plurality of CSI-RSs; and transmitting, to the base station, the generated CSI based on the RRC signal, the method being characterized in that: the RRC signal comprises a plurality of configurations for periodic CSI reports corresponding to the plurality of the CSI-RSs, wherein an index indicating a physical uplink control channel, PUCCH, subframe to be used for transmitting CSI corresponding to a periodic CSI report is configured for each of the plurality of configurations for the periodic CSI reports, wherein the each of the plurality of configurations for the periodic CSI reports comprises a first index, I CQI/PMI, and a second index, I CQI/PMI, and wherein each of the first index and the second index indicates a periodicity, N pd, and a subframe offset value, N OFFSET/CQI, for a PUCCH subframe at which CSI can be transmitted. receiving, from a base station, a radio resource control RRC signal; receiving, from a plurality of antennas controlled by the base station, a plurality of channel state information reference signals CSI-RSs; generating channel state information CSI by measuring each of the plurality of CSI-RSs; and transmitting, to the base station, the generated CSI based on the RRC signal, the method being characterized in that: the RRC signal comprises a plurality of configurations for periodic CSI reports corresponding to the plurality of the CSI-RSs, wherein an index indicating a physical uplink control channel, PUCCH, subframe to be used for transmitting CSI corresponding to a periodic CSI report is configured for each of the plurality of configurations for the periodic CSI reports, wherein the each of the plurality of configurations for the periodic CSI reports comprises a first index, I CQI/PMI, and a second index, I CQI/PMI, and wherein each of the first index and the second index indicates a periodicity, N pd, and a subframe offset value, N OFFSET/CQI, for a PUCCH subframe at which CSI can be transmitted. the RRC signal comprises a plurality of configurations for periodic CSI reports corresponding to the plurality of the CSI-RSs, wherein an index indicating a physical uplink control channel, PUCCH, subframe to be used for transmitting CSI corresponding to a periodic CSI report is configured for each of the plurality of configurations for the periodic CSI reports, wherein the each of the plurality of configurations for the periodic CSI reports comprises a first index, I CQI/PMI, and a second index, I CQI/PMI, and wherein each of the first index and the second index indicates a periodicity, N pd, and a subframe offset value, N OFFSET/CQI, for a PUCCH subframe at which CSI can be transmitted.
A shunt comprising: - a lumen, and - a first restrictive section, and - the shunt (50; 590) being configured to extend from an anterior chamber to a region of lower pressure, characterized by - a second restrictive section; - the first and second restrictive sections (596, 598) being disposed within the lumen, the first restrictive section positioned adjacent to an inlet of the implant, and the second restrictive section positioned adjacent to an outlet of the implant, - the shunt (50; 590) being configured to conduct fluid at a first nonzero flow rate, modifiable to a second flow rate, when the shunt is in an eye, by removing at least a portion of the first restrictive section or the second restrictive section (596, 598). - a lumen, and - a first restrictive section, and - the shunt (50; 590) being configured to extend from an anterior chamber to a region of lower pressure, - a second restrictive section; - the first and second restrictive sections (596, 598) being disposed within the lumen, the first restrictive section positioned adjacent to an inlet of the implant, and the second restrictive section positioned adjacent to an outlet of the implant, - the shunt (50; 590) being configured to conduct fluid at a first nonzero flow rate, modifiable to a second flow rate, when the shunt is in an eye, by removing at least a portion of the first restrictive section or the second restrictive section (596, 598).
Connecting rod for an internal combustion engine with variable compression, having an eccentric adjusting device for the adjustment of the effective connecting rod length, the eccentric adjusting device having a first cylinder and a second cylinder, and in each case one feed line for feeding hydraulic liquid into the cylinders (110, 111) via a supply line and in each case one discharge line for discharging hydraulic liquid from the cylinders (110, 111) both being provided, the eccentric adjusting device having an eccentric which interacts with an eccentric lever, having a first piston and a second piston which are guided displaceably in each case in the cylinders (110, 111) and in which eccentric rods (108, 109) of the eccentric adjusting device which act on the eccentric lever are mounted, the cylinders (110, 111) being assigned in each case one check valve (130, 132) which enables a feed of hydraulic liquid via the feed line to the cylinders (110, 111) and prevents emptying of the cylinders (110, 111), the connecting rod having a switchover valve for controlling a hydraulic liquid flow of a connecting rod for an internal combustion engine with variable compression having an eccentric adjusting device for the adjustment of an effective connecting rod length, having a tapping element and having a valve housing which has a first working connector, a second working connector and a supply connector which can be loaded with a hydraulic pressure of the hydraulic liquid, the tapping element being arranged in the valve housing, and it being possible for the tapping element to be moved selectively into a first switching position or a second switching position, the first working connector being connected to the supply connector or a tank in the first switching position, and the second working connector being connected to the supply connector or a tank in the second switching position, characterized in that at least one further check valve is provided in the tapping element, which further check valve enables a hydraulic fluid flow from the second working connector to the first working connector.
A near-field electromagnetic wave absorbing film comprising a plastic film and a single-layer or multi-layer thin metal film formed on one surface of said plastic film; characterised in that said thin metal film has laser-beam-bored holes of 200 μm or less in diameter with intervals of 50 μm or less, and pluralities of openings as large as 2 to 20 mm in diameter or width, on the entire surface; and the area ratio of said openings is 15 to 60 %, to give transmission viewability.
A support structure, configured to be welded to a vehicle body part, comprising: - a support body, preferentially provided with a mounting means for attaching a technical element; - a welding part, arranged at a periphery of the support body, characterized in that, the welding part includes: • a plurality of buffer apertures spaced apart from each other, • a plurality of crisscross ribs, each crisscross rib being disconnected from each other and arranged between two adjacent buffer apertures, wherein a solder joint between the support structure and the vehicle body part is located on the crisscross rib. - a support body, preferentially provided with a mounting means for attaching a technical element; - a welding part, arranged at a periphery of the support body, characterized in that, the welding part includes: • a plurality of buffer apertures spaced apart from each other, • a plurality of crisscross ribs, each crisscross rib being disconnected from each other and arranged between two adjacent buffer apertures, wherein a solder joint between the support structure and the vehicle body part is located on the crisscross rib. characterized in that, the welding part includes: • a plurality of buffer apertures spaced apart from each other, • a plurality of crisscross ribs, each crisscross rib being disconnected from each other and arranged between two adjacent buffer apertures, • a plurality of buffer apertures spaced apart from each other, • a plurality of crisscross ribs, each crisscross rib being disconnected from each other and arranged between two adjacent buffer apertures, wherein a solder joint between the support structure and the vehicle body part is located on the crisscross rib.
Envelope for a laminar structure providing adaptive thermal insulation, the envelope enclosing at least one cavity having included therein a gas generating agent having an unactivated configuration and an activated configuration, the gas generating agent being adapted to change from the unactivated configuration to the activated configuration, such as to increase a gas pressure inside the cavity, in response to an increase in temperature in the cavity, the envelope being configured such that a volume of the envelope increases in response to the increase in gas pressure inside the cavity, characterized in that the envelope is made of a polymer composite material, the polymer composite material including a fluid tight layer which is covered by a reinforcing layer (8a;8d,8e) comprising a polymer material, the reinforcing layer being configured to limit formation of wrinkles in the fluid tight layer when subjecting the envelope to one, or a plurality of, activation/deactivation cycles.
A tire wear state estimation system comprising: at least one tire for supporting a vehicle; a tire pressure measuring means affixed to the at least one tire for measuring tire inflation pressure and for generating tire inflation pressure data; a tire torsional mode measuring means for measuring a tire torsional mode frequency and for generating tire torsional mode frequency data; a tire identification means for generating tire-specific frequency mode coefficients using tire-specific identification data; and tire wear estimation means for calculating an estimation of a tire wear state based upon the tire inflation pressure data, the torsional mode frequency data, and the tire-specific frequency mode coefficients; characterized in that the tire wear estimation means comprises a correlation model between the tire wear state and the tire torsional mode frequency and the correlation model comprises a recursive least squares algorithm based on a polynomial model capturing a dependency between a wear state of the tire, the tire inflation pressure data and the tire torsional mode frequency. at least one tire for supporting a vehicle; a tire pressure measuring means affixed to the at least one tire for measuring tire inflation pressure and for generating tire inflation pressure data; a tire torsional mode measuring means for measuring a tire torsional mode frequency and for generating tire torsional mode frequency data; a tire identification means for generating tire-specific frequency mode coefficients using tire-specific identification data; and tire wear estimation means for calculating an estimation of a tire wear state based upon the tire inflation pressure data, the torsional mode frequency data, and the tire-specific frequency mode coefficients; characterized in that the tire wear estimation means comprises a correlation model between the tire wear state and the tire torsional mode frequency and the correlation model comprises a recursive least squares algorithm based on a polynomial model capturing a dependency between a wear state of the tire, the tire inflation pressure data and the tire torsional mode frequency.
A thermally conductive composition comprising: a. from 20 wt. % to 80 wt. % of a polycarbonate polymer; b. from 0.5 wt. % to 30 wt. % of an impact modifier; and c. a thermal conductivity modifier comprising: i. from 0.5 wt. % to 10 wt. % of a high density polyethylene polymer; ii. from 0.5 wt. % to 10 wt. % of a maleic anhydride type copolymer; or iii. from 0.01 wt. % to 10 wt. % of an acid component; wherein the thermally conductive composition comprises a notched Izod impact strength of at least 30 J/m, a through-plane thermal conductivity of at least 0.4 W/mK and an in-plane thermal conductivity of at least 1.0 W/mK, measured as indicated in the specification. a. from 20 wt. % to 80 wt. % of a polycarbonate polymer; b. from 0.5 wt. % to 30 wt. % of an impact modifier; and c. a thermal conductivity modifier comprising: i. from 0.5 wt. % to 10 wt. % of a high density polyethylene polymer; ii. from 0.5 wt. % to 10 wt. % of a maleic anhydride type copolymer; or iii. from 0.01 wt. % to 10 wt. % of an acid component; i. from 0.5 wt. % to 10 wt. % of a high density polyethylene polymer; ii. from 0.5 wt. % to 10 wt. % of a maleic anhydride type copolymer; or iii. from 0.01 wt. % to 10 wt. % of an acid component;
A battery system comprising: a housing that defines an internal volume and a vent that fluidly couples said internal volume with an atmosphere surrounding said housing; and a support structure within said internal volume, said support structure being configured to support a plurality of battery cell modules in said internal volume; wherein the system further comprises a charging system electrically connectable to said plurality of battery cell modules, wherein said charging system comprises electronics configured to identify malfunctioning cell modules and non-malfunctioning cell modules within said plurality of battery cell modules, the charging system further being configured to electrically isolate said malfunctioning cell modules from said non-malfunctioning cell modules, to supply a charging voltage to said non-malfunctioning cell modules and to increase said charging voltage within a safe battery charge range when said malfunctioning cell modules are isolated. a housing that defines an internal volume and a vent that fluidly couples said internal volume with an atmosphere surrounding said housing; and a support structure within said internal volume, said support structure being configured to support a plurality of battery cell modules in said internal volume; wherein the system further comprises a charging system electrically connectable to said plurality of battery cell modules, wherein said charging system comprises electronics configured to identify malfunctioning cell modules and non-malfunctioning cell modules within said plurality of battery cell modules, the charging system further being configured to electrically isolate said malfunctioning cell modules from said non-malfunctioning cell modules, to supply a charging voltage to said non-malfunctioning cell modules and to increase said charging voltage within a safe battery charge range when said malfunctioning cell modules are isolated.
A method for processing seismic data, comprising: creating a fictitious source-receiver line connecting a source with a receiver location of interest; projecting one or more receiver locations adjacent the receiver location of interest onto the fictitious source-receiver line; and decomposing seismic data on the one or more receiver locations disposed on the fictitious source-receiver line into up-going wavefields and down-going wavefields. creating a fictitious source-receiver line connecting a source with a receiver location of interest; projecting one or more receiver locations adjacent the receiver location of interest onto the fictitious source-receiver line; and decomposing seismic data on the one or more receiver locations disposed on the fictitious source-receiver line into up-going wavefields and down-going wavefields.
A method of identifying a cell population comprising an antibody secreting cell exhibiting an extracellular effect attributable to an antibody secreted by the ASC, comprising: retaining in a microreactor a heterogeneous cell population comprising 10 to 500 cells, wherein the heterogeneous cell population comprises an ASC, wherein the contents of the microreactor further comprise a readout particle population comprising one or more readout beads functionalized to bind the secreted antibody of the ASC, wherein the readout particle population or a subpopulation thereof provides a direct or indirect readout of the extracellular effect and is fluorescently labeled, and wherein the extracellular effect is a binding interaction between an antibody secreted by the ASC to the readout particle population, or subpopulation thereof; incubating the cell population and the readout particle population within the microreactor, wherein the microreactor is substantially isolated from its surrounding environment; assaying the heterogeneous cell population for the presence of the extracellular effect via detection of the fluorescent label, and determining, based on the results of the assaying step, whether the ASC within the heterogeneous cell population exhibits the extracellular effect attributable to an antibody secreted by the ASC. retaining in a microreactor a heterogeneous cell population comprising 10 to 500 cells, wherein the heterogeneous cell population comprises an ASC, wherein the contents of the microreactor further comprise a readout particle population comprising one or more readout beads functionalized to bind the secreted antibody of the ASC, wherein the readout particle population or a subpopulation thereof provides a direct or indirect readout of the extracellular effect and is fluorescently labeled, and wherein the extracellular effect is a binding interaction between an antibody secreted by the ASC to the readout particle population, or subpopulation thereof; incubating the cell population and the readout particle population within the microreactor, wherein the microreactor is substantially isolated from its surrounding environment; assaying the heterogeneous cell population for the presence of the extracellular effect via detection of the fluorescent label, and determining, based on the results of the assaying step, whether the ASC within the heterogeneous cell population exhibits the extracellular effect attributable to an antibody secreted by the ASC.
A microorganism which is transformed with a polynucleotide encoding a protein having lysine decarboxylase activity, said protein comprising the amino acid sequence of SEQ ID NO: 1 or an amino acid sequence having 95% or more sequence identity therewith, wherein said protein is from Pseudomonas sp., and the microorganism is an Escherichia sp. microorganism.
A polarizing plate comprising: a polarizer; an acrylic film attached to at least one surface of the polarizer via an adhesive layer; and a primer layer formed on at least one surface of the acrylic film, wherein the primer layer is formed of a primer composition including a water dispersible resin containing a sulfonic acid group, water dispersible particles, and water, characterized in that a weight ratio of the water dispersible resin to the water dispersible particles is in a range of 1:0.01 to 5:1, and the water dispersible resin is a polyester-acrylic copolymer resin containing an ester repeating unit and a acrylic repeating unit or the water dispersible resin is a polyester-urethane copolymer resin containing an ester repeating unit and a urethane repeating unit. a polarizer; an acrylic film attached to at least one surface of the polarizer via an adhesive layer; and a primer layer formed on at least one surface of the acrylic film, wherein the primer layer is formed of a primer composition including a water dispersible resin containing a sulfonic acid group, water dispersible particles, and water, characterized in that a weight ratio of the water dispersible resin to the water dispersible particles is in a range of 1:0.01 to 5:1, and the water dispersible resin is a polyester-acrylic copolymer resin containing an ester repeating unit and a acrylic repeating unit or the water dispersible resin is a polyester-urethane copolymer resin containing an ester repeating unit and a urethane repeating unit.
A roller, comprising a support frame, the support frame comprising a vertical support wall, mounting positions being symmetrically arranged on two sides of the vertical support wall, and two single wheels being symmetrically arranged on the mounting positions on the two sides of the support wall, characterized in that an inner surface of the single wheel is provided with an annular mounting groove, an annular outer ring cover is arranged on the mounting positions on the two sides of the support frame, the outer ring cover is inserted into the annular mounting groove, and a gap is provided between a side wall of the outer ring cover and a side wall of the annular mounting groove.
A balloon catheter provided on an outer surface of a balloon with a plurality of elongate bodies which are crystals of a water-insoluble drug extending while having independent long axes, the balloon catheter comprising: a base layer including a water-soluble low-molecular compound disposed in a layer form on the outer surface of the balloon, wherein at least part of the elongate bodies is located in the inside of the base layer, wherein the molecular weight of the water-soluble low-molecular compound is 50 to 2,000, wherein an excipient that constitutes the base layer does not form a matrix, and wherein the length of that portion of the elongate body which is located on the outside of the base layer is greater than the length of that portion of the elongate body which is located inside the base layer. a base layer including a water-soluble low-molecular compound disposed in a layer form on the outer surface of the balloon, wherein at least part of the elongate bodies is located in the inside of the base layer, wherein the molecular weight of the water-soluble low-molecular compound is 50 to 2,000, wherein an excipient that constitutes the base layer does not form a matrix, and wherein the length of that portion of the elongate body which is located on the outside of the base layer is greater than the length of that portion of the elongate body which is located inside the base layer.