mhurhangee/ep-ind-claims huggingface dataset:
A communication method, characterized by comprising: receiving, by a base station, capability information from a terminal, wherein the capability information comprises: information about a capability of the terminal to sequentially monitor multiple beams; wherein the capability of the terminal to sequentially monitor multiple beams is beam switching capability of the terminal, and the beam switching capability indicates the terminal can implement beam switching on each symbol; generating, by the base station, beam configuration information based on the capability information of the terminal, wherein the beam configuration information comprises beam indication information and beam monitoring information; and sending, by the base station, the beam configuration information to the terminal. receiving, by a base station, capability information from a terminal, wherein the capability information comprises: information about a capability of the terminal to sequentially monitor multiple beams; wherein the capability of the terminal to sequentially monitor multiple beams is beam switching capability of the terminal, and the beam switching capability indicates the terminal can implement beam switching on each symbol; generating, by the base station, beam configuration information based on the capability information of the terminal, wherein the beam configuration information comprises beam indication information and beam monitoring information; and sending, by the base station, the beam configuration information to the terminal.
An ice maker (10, 110) for forming ice, the ice maker comprising: (i) a refrigeration system (12, 112) comprising a compressor, a condenser, an ice formation device (20, 120), and a condenser fan comprising a fan blade and a condenser fan motor for driving the fan blade, wherein the compressor, condenser and ice formation device are in fluid communication by one or more refrigerant lines; (ii) a water system (14, 114) for supplying water to the ice formation device; characterized in that the ice maker further comprises: (iii) a control system comprising a controller adapted to operate the condenser fan motor at a first speed in a forward direction when the ice maker is making ice and adapted to operate the condenser fan motor at a second speed in a reverse direction when the ice maker is not making ice, wherein operating the condenser fan motor at the second speed in the reverse direction is sufficient to reduce the amount of dirt, lint, dust, and/or other contaminants on or in the condenser; wherein the controller is adapted to monitor the elapsed time from the last time that condenser fan motor was operated in the reverse direction, and wherein the controller is adapted to turn the compressor off and to operate the condenser fan motor in the reverse direction when the elapsed time is greater than or equal to a desired maximum time between operations of the condenser fan motor in the reverse direction. (i) a refrigeration system (12, 112) comprising a compressor, a condenser, an ice formation device (20, 120), and a condenser fan comprising a fan blade and a condenser fan motor for driving the fan blade, wherein the compressor, condenser and ice formation device are in fluid communication by one or more refrigerant lines; (ii) a water system (14, 114) for supplying water to the ice formation device;
A method of taking a dental impression of a dentition including sub-gingival parts, comprising the steps of: (i) conditioning the dentition including sub-gingival parts by the application thereto of a wetting agent comprising a surfactant and a carrier; (ii) contacting the dentition with a dental impression material selected from the group consisting of hydrophilic and hydrophobic dental impression materials, whereby the impression material is allowed to flow into sub-gingival parts, further comprising the step of preparing the dentition with a gingival retraction cord, wherein said gingival retraction cord has been contacted with a wetting agent further comprising a hemostatic agent. (i) conditioning the dentition including sub-gingival parts by the application thereto of a wetting agent comprising a surfactant and a carrier; (ii) contacting the dentition with a dental impression material selected from the group consisting of hydrophilic and hydrophobic dental impression materials, whereby the impression material is allowed to flow into sub-gingival parts, further comprising the step of preparing the dentition with a gingival retraction cord, wherein said gingival retraction cord has been contacted with a wetting agent further comprising a hemostatic agent.
A battery case, characterized in that, comprising: a bottom plate; and a plurality of extensions (a) circumferentially spaced, the extensions (a) being formed by extending horizontally outward along the bottom plate, wherein each of the extensions (a) is bended at least once to form a case side arm and a cavity of the battery case is enclosed by the case side arms and the bottom plate, and wherein end faces for connection of the case side arms are bended to form connecting portions, and two adjacent connecting portions are snap-fitted to fix the adjacent case side arms to each other; wherein the connecting portions comprise first connecting portions and second connecting portions; the case side arms comprise: at least two end plates, end faces for connection of the end plates being bended to form the first connecting portions; and at least two side plates, an end plate being arranged between the adjacent side plates, end faces for connection of the side plates being bended to form the second connecting portions; and adjacent first connecting portion and second connecting portion are snap-fitted together; wherein the end faces, facing away from the bottom plate, of the side plates extend outward to form pressing members, and the pressing members are located inside the cavity of the battery case. a bottom plate; and a plurality of extensions (a) circumferentially spaced, the extensions (a) being formed by extending horizontally outward along the bottom plate, wherein each of the extensions (a) is bended at least once to form a case side arm and a cavity of the battery case is enclosed by the case side arms and the bottom plate, and wherein end faces for connection of the case side arms are bended to form connecting portions, and two adjacent connecting portions are snap-fitted to fix the adjacent case side arms to each other; wherein the connecting portions comprise first connecting portions and second connecting portions; the case side arms comprise: at least two end plates, end faces for connection of the end plates being bended to form the first connecting portions; and at least two side plates, an end plate being arranged between the adjacent side plates, end faces for connection of the side plates being bended to form the second connecting portions; and adjacent first connecting portion and second connecting portion are snap-fitted together; wherein the end faces, facing away from the bottom plate, of the side plates extend outward to form pressing members, and the pressing members are located inside the cavity of the battery case. at least two end plates, end faces for connection of the end plates being bended to form the first connecting portions; and at least two side plates, an end plate being arranged between the adjacent side plates, end faces for connection of the side plates being bended to form the second connecting portions; and adjacent first connecting portion and second connecting portion are snap-fitted together; wherein the end faces, facing away from the bottom plate, of the side plates extend outward to form pressing members, and the pressing members are located inside the cavity of the battery case.
Method for producing plant cell sap concentrate, which includes an extraction of the chopped raw materials with the aid of liquefied carbon dioxide at room temperature and separation of the oil fraction, characterized in that the extraction is carried out at a high flow rate of the liquefied carbon dioxide starting from a ratio of at least 1 litre of carbon dioxide per 1 gram of obtained plant cell sap concentrate, wherein the cell sap concentrate is obtained in the form of a water fraction from which the oil fraction is separated.
A method for wireless communications by a user equipment, UE, comprising: sampling subcarriers of a synchronization signal, SS, block based on a frequency density of channel state information, CSI, reference signals, CSI-RSs, multiplexed in a symbol period with the SS block; obtaining a power difference between the sampled subcarriers and a set of subcarriers used for the CSI-RSs; and performing: measuring at least one of reference signal received power, RSRP, or CSI, based on the sampled subcarriers and the CSI-RSs, wherein said measuring the RSRP or the CSI is based on the obtained power difference, and reporting at least one of the RSRP or the CSI, based on the sampled subcarriers and the CSI-RSs. sampling subcarriers of a synchronization signal, SS, block based on a frequency density of channel state information, CSI, reference signals, CSI-RSs, multiplexed in a symbol period with the SS block; obtaining a power difference between the sampled subcarriers and a set of subcarriers used for the CSI-RSs; and performing: measuring at least one of reference signal received power, RSRP, or CSI, based on the sampled subcarriers and the CSI-RSs, wherein said measuring the RSRP or the CSI is based on the obtained power difference, and reporting at least one of the RSRP or the CSI, based on the sampled subcarriers and the CSI-RSs. measuring at least one of reference signal received power, RSRP, or CSI, based on the sampled subcarriers and the CSI-RSs, wherein said measuring the RSRP or the CSI is based on the obtained power difference, and reporting at least one of the RSRP or the CSI, based on the sampled subcarriers and the CSI-RSs.
A composite closure assembly (102, 200, 300) comprising: a closure shell (202, 802) including a closure socket surrounded by a shell wall and a shell end; an inner closure (204, 304, 804) within the closure socket, the inner closure (204, 304, 804) fixed to the closure shell (202, 802) to allow transmission of rotation and upward and downward forces from the closure shell (202, 802) to the inner closure (204, 304, 804), the inner closure (204, 304, 804) includes: a closure wall (212, 312), and a closure end (214, 314); a closure gap (226, 328) is between the shell end and the closure end (214, 314); and a plurality of support braces or a support brace (316, 400, 500, 700) including support elements (318, 404, 504, 702), the one or the plurality of support braces (216, 316, 400, 500, 700) extending from the closure end (214, 314) to the shell end and bridging the closure gap (226, 328), wherein the one or the plurality of support braces (216, 316, 400, 500, 700) is formed as an integral component with the inner closure (204, 304), characterized in that the closure gap (226, 338) is between and extends around each of the plurality of adjacent support braces or support elements (318, 404, 504, 702). a closure shell (202, 802) including a closure socket surrounded by a shell wall and a shell end; an inner closure (204, 304, 804) within the closure socket, the inner closure (204, 304, 804) fixed to the closure shell (202, 802) to allow transmission of rotation and upward and downward forces from the closure shell (202, 802) to the inner closure (204, 304, 804), the inner closure (204, 304, 804) includes: a closure wall (212, 312), and a closure end (214, 314); a closure wall (212, 312), and a closure end (214, 314); a closure gap (226, 328) is between the shell end and the closure end (214, 314); and a plurality of support braces or a support brace (316, 400, 500, 700) including support elements (318, 404, 504, 702), the one or the plurality of support braces (216, 316, 400, 500, 700) extending from the closure end (214, 314) to the shell end and bridging the closure gap (226, 328), wherein the one or the plurality of support braces (216, 316, 400, 500, 700) is formed as an integral component with the inner closure (204, 304),
A sunflower plant or progeny thereof having at least one copy of at least one gene encoding an acetohydroxy acid synthase large subunit (AHASL) polynucleotide, wherein said AHASL polynucleotide encodes an AHASL protein that confers resistance to an imidazolinone herbicide, a sulfonylurea herbicide, a triazolopyrimidine herbicide, and a pyrimidinyloxybenzoate herbicide, said AHASL protein comprising a mutation at amino acid position 574 or equivalent position, wherein amino acid position 574 or equivalent position is leucine, and wherein said sunflower plant or progeny thereof has increased resistance to an imidazolinone herbicide, a sulfonylurea herbicide, a triazolopyrimidine herbicide, and a pyrimidinyloxybenzoate herbicide, as compared to a wild type sunflower plant.
A method (600, 1100), implemented in a content server device storing media, the method comprising: receiving (610, 1115) a Quick User Datagram Protocol, Internet Connections, QUIC, request for a media portion of the media from a client computing device, the QUIC request comprising an object ordering priority field having an object ordering priority value; adjusting (620, 1155) a transmission rate of a QUIC-based media stream based on the object ordering priority value by increasing or decreasing the transmission rate responsive to the object ordering priority value being higher or lower, respectively, than a previous object ordering priority value upon which the transmission rate was previously based; and transmitting (630, 1165) the media portion to the client computing device via the QUIC-based media stream at the adjusted transmission rate. receiving (610, 1115) a Quick User Datagram Protocol, Internet Connections, QUIC, request for a media portion of the media from a client computing device, the QUIC request comprising an object ordering priority field having an object ordering priority value; adjusting (620, 1155) a transmission rate of a QUIC-based media stream based on the object ordering priority value by increasing or decreasing the transmission rate responsive to the object ordering priority value being higher or lower, respectively, than a previous object ordering priority value upon which the transmission rate was previously based; and transmitting (630, 1165) the media portion to the client computing device via the QUIC-based media stream at the adjusted transmission rate.
A sensor molecule for resonance energy transfer based detection of a nicotinamide adenine dinucleotide analyte, the sensor comprising a segment A connected via a linker to a segment B, wherein each of segment A and segment B comprises a member of a RET pair comprising a donor moiety and an acceptor moiety, the acceptor moiety being an acceptor fluorophore, further characterized in that (i) segment A comprises a binding protein for the nicotinamide adenine dinucleotide analyte, the BP being sepiapterin reductase (SPR; EC 1.1.1.153) or a functional homolog, fragment, derivative or variant thereof having at least 70% sequence identity to SEQ ID NO: 1, 2 or 3, and showing the desired nicotinamide adenine dinucleotide analyte binding properties; (ii) segment B comprises a SPR ligand (SPR-L) based on a benzenesulfonamide, capable of intramolecular binding to said BP in the presence of the oxidized form of said analyte; such that the donor moiety and the acceptor moiety are in a suitable juxtaposition to yield a RET signal when SPR-L is bound to BP, and wherein an analyte-induced change in SPR-L binding to BP results in a change in RET efficiency. (i) segment A comprises a binding protein for the nicotinamide adenine dinucleotide analyte, the BP being sepiapterin reductase (SPR; EC 1.1.1.153) or a functional homolog, fragment, derivative or variant thereof having at least 70% sequence identity to SEQ ID NO: 1, 2 or 3, and showing the desired nicotinamide adenine dinucleotide analyte binding properties; (ii) segment B comprises a SPR ligand (SPR-L) based on a benzenesulfonamide, capable of intramolecular binding to said BP in the presence of the oxidized form of said analyte;
Method for validating an obstacle identification system, in which - stochastic combinations (KV ijk) of predetermined distributions (V i, V j, V k) from submodels (SM, WUM, HM) are provided for the purpose of forming driving scenarios, - the provided combinations (KV ijk) are subjected both to simulation by a simulator (2, 3) in order to perform a simulation study and to automatic processing by an obstacle identification algorithm of the obstacle identification system, and - a result of a simulation study performed by the simulator (2, 3) and a result of the automatic processing are automatically tested for agreement. - stochastic combinations (KV ijk) of predetermined distributions (V i, V j, V k) from submodels (SM, WUM, HM) are provided for the purpose of forming driving scenarios, - the provided combinations (KV ijk) are subjected both to simulation by a simulator (2, 3) in order to perform a simulation study and to automatic processing by an obstacle identification algorithm of the obstacle identification system, and - a result of a simulation study performed by the simulator (2, 3) and a result of the automatic processing are automatically tested for agreement.
A reciprocating piston internal combustion engine having a first cylinder, a second cylinder and a third cylinder, and having a crankshaft drive with a crankshaft which is mounted rotatably in a crankcase, with a first and a second crank pin (3, 4), wherein associated with the first crank pin is a first and a second connecting rod (5, 6) for a first and a second piston (7, 8) and associated with the second crank pin is a third connecting rod for a third piston, wherein the first and the second cylinder (15, 16) are arranged in a V shape with the first and the second piston (7, 8), characterised in that the reciprocating piston internal combustion engine is provided for a single-track vehicle, and in that the third cylinder is arranged with the third piston in the V, wherein a cylinder axis of the first cylinder and a cylinder axis of the second cylinder include a V angle α of between 45° and 80°.
A heating device for heating a workpiece, comprising: a furnace defining a closed space insulated from an exterior and surrounded by a heat insulator; a heater disposed in the furnace to heat a workpiece; bar-shaped support elements for supporting a workpiece in the furnace, each support element comprising a rectangular tube comprising a combination of two sheet metal members (30g,30h) each having an L-shaped cross section; and bases holding longitudinal ends of the support elements for mounting the support elements on a wall of the furnace, each base having support element retaining portions, the support elements being held by the support element retaining portions, each support element being made of an austenitic nickel-iron-chromium solid solution alloy thereby increasing the bending strength against sagging between its longitudinal ends. a furnace defining a closed space insulated from an exterior and surrounded by a heat insulator; a heater disposed in the furnace to heat a workpiece; bar-shaped support elements for supporting a workpiece in the furnace, each support element comprising a rectangular tube comprising a combination of two sheet metal members (30g,30h) each having an L-shaped cross section; and bases holding longitudinal ends of the support elements for mounting the support elements on a wall of the furnace, each base having support element retaining portions, the support elements being held by the support element retaining portions, each support element being made of an austenitic nickel-iron-chromium solid solution alloy thereby increasing the bending strength against sagging between its longitudinal ends.
Adapter for a rolling assembly having an axis of rotation (YY'), the rolling assembly comprising: - a tyre having two beads, - a rim having two rim bead seats, - for each bead, the said adapter providing the connection between the bead and the rim, the said adapter comprising: - an axially inner end comprising an inner reinforcing element and intended to be mounted on a rim bead seat, - an axially outer end comprising an outer reinforcing element and intended to come into contact, via a substantially radial axially inner face, or bearing face, with a bead, - a body connecting the axially outer end to the axially inner end so as to form a single piece, and comprising at least one main reinforcement providing the connection between the outer reinforcing element and the inner reinforcing element, and comprising a substantially axial adapter seat intended to come into contact with a bead, - the outer reinforcing element being wholly axially on the outside of the bearing face, and the outer reinforcing element being an annular structure, referred to as a bead wire, having a mean line, characterized in that the bead wire is made up of a stack of at least three layers (23, 24, 25) made up of metal threads and concentric with respect to the mean line, in that a first layer or core comprises at least one metal thread having a diameter D1 at least equal to 0.8 mm and at most equal to 5 mm, in that a second layer is made up of a metal thread having a diameter D2 at most equal to 1.4 times the diameter D1 and wound in a helix around the core, forming, with the mean line of the bead wire, an angle A2 at least equal to 2° and at most equal to 10°, and in that a third layer is made up of a metal thread having a diameter D3 wound in a helix around the second layer, forming, with the mean line of the bead wire, an angle A3 at least equal to 2° and at most equal to 10°, and of opposite sign to that of the angle A2. - a tyre having two beads, - a rim having two rim bead seats, - for each bead, the said adapter providing the connection between the bead and the rim, - an axially inner end comprising an inner reinforcing element and intended to be mounted on a rim bead seat, - an axially outer end comprising an outer reinforcing element and intended to come into contact, via a substantially radial axially inner face, or bearing face, with a bead, - a body connecting the axially outer end to the axially inner end so as to form a single piece, and comprising at least one main reinforcement providing the connection between the outer reinforcing element and the inner reinforcing element, and comprising a substantially axial adapter seat intended to come into contact with a bead, - the outer reinforcing element being wholly axially on the outside of the bearing face, and the outer reinforcing element being an annular structure, referred to as a bead wire, having a mean line,
An addition-fragmentation oligomer of the formula: wherein R A is non-directionally a 1-methylene-3,3-dimethyl propyl group, R B is a hydrocarbyl group that optionally further comprises a functional group D, wherein at least two R A and/or R B groups are substituted with a D group; group D is selected from phosphonic acid, carboxylic acid, and silyl groups; X 1 is -O- or NR 5 -, where R 5 is H or C 1 -C 4 alkyl; Z comprises an ethylenically unsaturated polymerizable group; y is 0 or 1; and x is 0 to 60. R A is non-directionally a 1-methylene-3,3-dimethyl propyl group, R B is a hydrocarbyl group that optionally further comprises a functional group D, wherein at least two R A and/or R B groups are substituted with a D group; group D is selected from phosphonic acid, carboxylic acid, and silyl groups; X 1 is -O- or NR 5 -, where R 5 is H or C 1 -C 4 alkyl; Z comprises an ethylenically unsaturated polymerizable group; y is 0 or 1; and x is 0 to 60.