mhurhangee/patent-ind-claim-en huggingface dataset:
A mobility management method, comprising: allocating (S201, S501), by a first base station to which a first cell belongs, a source identifier to a user equipment, UE, in a connected state in the first cell, wherein the source identifier comprises a UE identifier used to identify the UE in the first base station; sending, by the first base station, a control instruction to the UE to instruct the UE to enter a low-overhead state, wherein the low-overhead state is a state in which a connection context is stored in the UE and the UE camps on a cell according to a cell reselection criterion in a moving process; storing (S204, S504), by the first base station, the connection context of the UE in the connected state; and characterised by receiving, by the first base station, information about a paging parameter from a core network, wherein the paging parameter comprises a paging index of the UE or a DRX cycle of the UE; sending (S506), by the first base station, a paging message to a second base station when downlink data for the UE reaches the first base station, wherein the second base station and the first base station belong to a same paging region, and the paging message comprises the paging parameter and the source identifier. allocating (S201, S501), by a first base station to which a first cell belongs, a source identifier to a user equipment, UE, in a connected state in the first cell, wherein the source identifier comprises a UE identifier used to identify the UE in the first base station; sending, by the first base station, a control instruction to the UE to instruct the UE to enter a low-overhead state, wherein the low-overhead state is a state in which a connection context is stored in the UE and the UE camps on a cell according to a cell reselection criterion in a moving process; storing (S204, S504), by the first base station, the connection context of the UE in the connected state; and characterised by receiving, by the first base station, information about a paging parameter from a core network, wherein the paging parameter comprises a paging index of the UE or a DRX cycle of the UE; sending (S506), by the first base station, a paging message to a second base station when downlink data for the UE reaches the first base station, wherein the second base station and the first base station belong to a same paging region, and the paging message comprises the paging parameter and the source identifier.
A catalyst composition for a production process of δ-lactone from carbon dioxide and 1,3-butadiene, wherein said catalyst composition comprises: a) palladium metal complexes selected from palladium (II) salicylaldehyde, palladium (II) methoxy salicylaldehyde, palladium (II) 4-methoxy salicylaldehyde, palladium (II) 5-methoxy salicylaldehyde, palladium (II) 4,6-dimethoxy salicylaldehyde, palladium (II) 4-diethylamino salicylaldehyde, palladium (II) 4-dibutylamino salicylaldehyde, palladium (II) 5-bromo salicylaldehyde, palladium (II) 5-chloro salicylaldehyde, palladium (II) 3,5-dichloro salicylaldehyde, palladium (II) 3-methyl salicylaldehyde, palladium (II) 4-methyl salicylaldehyde, and palladium (II) 5-methyl salicylaldehyde ; and b) phosphorus compound selected from triphenylphosphine, tricyclohexylphosphine, tris(2-methoxyphenyl)phosphine, tris(4-methoxyphenyl)phosphine, or a mixture thereof. a) palladium metal complexes selected from palladium (II) salicylaldehyde, palladium (II) methoxy salicylaldehyde, palladium (II) 4-methoxy salicylaldehyde, palladium (II) 5-methoxy salicylaldehyde, palladium (II) 4,6-dimethoxy salicylaldehyde, palladium (II) 4-diethylamino salicylaldehyde, palladium (II) 4-dibutylamino salicylaldehyde, palladium (II) 5-bromo salicylaldehyde, palladium (II) 5-chloro salicylaldehyde, palladium (II) 3,5-dichloro salicylaldehyde, palladium (II) 3-methyl salicylaldehyde, palladium (II) 4-methyl salicylaldehyde, and palladium (II) 5-methyl salicylaldehyde ; and b) phosphorus compound selected from triphenylphosphine, tricyclohexylphosphine, tris(2-methoxyphenyl)phosphine, tris(4-methoxyphenyl)phosphine, or a mixture thereof.
A class-D amplifier comprising a class-D amplifier circuit incorporating a bridge circuit comprising at least one series circuit of switching elements (2a to 2d), and an oscillation absorption circuit connected to a power input terminal of the class-D amplifier circuit, the oscillation absorption circuit being configured by a parallel circuit of a resistor and an inductor to attenuate oscillations in the high frequency range; the resistance of the oscillation absorption circuit constituting damping resistance in an oscillation circuit that is made up of the oscillation absorption circuit and the class-D amplifier circuit , characterized by incorporating in a package, said bridge circuit comprising said at least one series circuit of switching elements (2a to 2d) and a bypass capacitor connected in parallel to the series circuit of switching elements (2a to 2d); wherein the oscillation absorption circuit is connected outside of the package; wherein a value R of the resistor configuring the oscillation absorption circuit being set using a value C of the bypass capacitor as a parameter, the value R being equal to a value obtained by dividing an attenuation coefficient by a product of a resonance frequency and the value C of the bypass capacitor, a value of the resonance frequency of the oscillation circuit corresponding to a reciprocal value of the square root of the product of the wiring inductance Ld and the capacitance Cd of the switching elements (2a to 2d); and the attenuation coefficient being equal to C·R/(2·sqrt(Ld·Cd)). a class-D amplifier circuit incorporating a bridge circuit comprising at least one series circuit of switching elements (2a to 2d), and an oscillation absorption circuit connected to a power input terminal of the class-D amplifier circuit, the oscillation absorption circuit being configured by a parallel circuit of a resistor and an inductor to attenuate oscillations in the high frequency range; the resistance of the oscillation absorption circuit constituting damping resistance in an oscillation circuit that is made up of the oscillation absorption circuit and the class-D amplifier circuit , incorporating in a package, said bridge circuit comprising said at least one series circuit of switching elements (2a to 2d) and a bypass capacitor connected in parallel to the series circuit of switching elements (2a to 2d); wherein the oscillation absorption circuit is connected outside of the package; wherein a value R of the resistor configuring the oscillation absorption circuit being set using a value C of the bypass capacitor as a parameter, the value R being equal to a value obtained by dividing an attenuation coefficient by a product of a resonance frequency and the value C of the bypass capacitor, a value of the resonance frequency of the oscillation circuit corresponding to a reciprocal value of the square root of the product of the wiring inductance Ld and the capacitance Cd of the switching elements (2a to 2d); and the attenuation coefficient being equal to C·R/(2·sqrt(Ld·Cd)).
A harvester cleaning system comprising: louvers with louver wires connected to the louvers , each of the louver wires having a main portion about which the louver wire pivots and a lever portion and an adjustment arm having slots receiving the lever portion of each of the louver wires , the adjustment arm being movable to pivot the louver wires to pivot the louvers , characterized by a bar comprising spaced rails and rungs between the rails , the rungs forming pockets along the bar , wherein the lever portion of each louver wire is received within one of the pockets . louvers with louver wires connected to the louvers , each of the louver wires having a main portion about which the louver wire pivots and a lever portion and an adjustment arm having slots receiving the lever portion of each of the louver wires , the adjustment arm being movable to pivot the louver wires to pivot the louvers , characterized by a bar comprising spaced rails and rungs between the rails , the rungs forming pockets along the bar , wherein the lever portion of each louver wire is received within one of the pockets .
A build material container for a three-dimensional printing system comprising: an external casing ; and a plurality of reservoirs within the external casing, each reservoir having an outlet to supply build material stored within their respective reservoirs; wherein the reservoirs each comprise an aspiration channel coupled to the outlet and extending along the length of the reservoir; wherein each reservoir comprises a deformable structure and a surround, the aspiration channel being within the deformable structure, wherein a base of each surround comprises a vertex formed at an end of the aspiration channel, the base comprising at least one lower angled surface, and wherein the build material container comprises a support structure to accommodate the vertices, and to support the lower angled surfaces, of the plurality of surrounds.
A non-naturally occurring or engineered composition comprising a vector system comprising one or more vectors comprising I. a first regulatory element operably linked to a CRISPR-Cas system guide RNA comprising: (a) a guide RNA polynucleotide capable of hybridizing to a target sequence in a eukaryotic cell, (b) a tracr mate RNA polynucleotide, and (c) a tracr RNA polynucleotide, and II. a second regulatory element operably linked to a protein-coding sequence encoding a Cas9 protein comprising at least one or more nuclear localization sequences, wherein (a), (b) and (c) are arranged in a 5' to 3' orientation, wherein components I and II are located on the same or different vectors of the system, wherein when transcribed, the tracr mate RNA polynucleotide hybridizes to the tracr RNA polynucleotide and the guide RNA polynucleotide directs sequence-specific binding of a CRISPR complex to the target sequence, and wherein the CRISPR complex comprises the Cas9 protein complexed with the guide RNA polynucleotide that is hybridized to the target sequence, and the tracr mate RNA polynucleotide that is hybridized to the tracr RNA polynucleotide, wherein the Cas9 protein is Staphylococcus aureus Cas9 (SaCas9). I. a first regulatory element operably linked to a CRISPR-Cas system guide RNA comprising: (a) a guide RNA polynucleotide capable of hybridizing to a target sequence in a eukaryotic cell, (b) a tracr mate RNA polynucleotide, and (c) a tracr RNA polynucleotide, and (a) a guide RNA polynucleotide capable of hybridizing to a target sequence in a eukaryotic cell, (b) a tracr mate RNA polynucleotide, and (c) a tracr RNA polynucleotide, and II. a second regulatory element operably linked to a protein-coding sequence encoding a Cas9 protein comprising at least one or more nuclear localization sequences,
Lubricant composition comprising (a) a base oil having a viscosity of 30 to 70 mm 2 /s at 40°C, (b) 0.05 to 1.5% by weight, based on the total weight of the composition, of a hydrolysis protection component comprising at least one epoxidized C 11 -C 22 fatty acid C 1 -C 12 alkyl ester and/or at least one epoxidized C 11 -C 22 fatty acid glyceride having an epoxy oxygen content of 1 to 10% by weight, based on the total mass of epoxidized fatty acid C 1 -C 12 alkyl ester and/or epoxidized fatty acid glyceride, and (c) 0.05 to 2% by weight, based on the total weight of the composition, of a rust and oxidation inhibitor, containing at least one singly or multiply C 1 -C 12 alkyl-substituted phenol and at least one arylamine. (a) a base oil having a viscosity of 30 to 70 mm 2 /s at 40°C, (b) 0.05 to 1.5% by weight, based on the total weight of the composition, of a hydrolysis protection component comprising at least one epoxidized C 11 -C 22 fatty acid C 1 -C 12 alkyl ester and/or at least one epoxidized C 11 -C 22 fatty acid glyceride having an epoxy oxygen content of 1 to 10% by weight, based on the total mass of epoxidized fatty acid C 1 -C 12 alkyl ester and/or epoxidized fatty acid glyceride, and (c) 0.05 to 2% by weight, based on the total weight of the composition, of a rust and oxidation inhibitor, containing at least one singly or multiply C 1 -C 12 alkyl-substituted phenol and at least one arylamine.
An anchor for implantation in body tissue in combination with a line , the anchor comprising a number of hooks for engagement with the body tissue and having a folded position and an unfolded position, wherein the anchor is made of an elastic material such that it can be elastically deformed into the folded position by application of a constraining force, and will return to the unfolded position when no constraining force is applied, the anchor characterised by : a locking mechanism for clamping the line when no force is applied to the locking mechanism, and being able to be elastically deformed to release the line from the locking mechanism for adjustment of the length of the line, wherein the locking mechanism comprises a resiliently deformable locking segment formed in a wall of the anchor and divided from the wall by one or more slit(s), and wherein the line is looped once or multiple times through the slit(s).
A method comprising the step of contacting monomers with a stable aqueous dispersion of first polymer particles under emulsion polymerization conditions to form a stable aqueous dispersion of second polymer particles, wherein: a) the first polymer particles comprise structural units of methyl methacrylate or styrene or a combination thereof; and a C 1 -C 10 -alkyl acrylate; and have a T g in the range of from -30 °C to 30 °C, wherein the Tg is calculated as indicated in the specification; b) the monomers comprise methyl methacrylate or styrene or a combination thereof, a polymerizable carboxylic acid monomer, and a sufficient amount of C 1 -C 10 -alkyl acrylate to achieve a calculated T g in the range of 50 °C to 120 °C; c) the concentration of the polymerizable carboxylic acid monomer is from 2 to 10 weight percent, based on the weight of the monomers; d) the weight-to-weight ratio of the monomers to the first polymer particles is in the range of 1:99 to 8:92. a) the first polymer particles comprise structural units of methyl methacrylate or styrene or a combination thereof; and a C 1 -C 10 -alkyl acrylate; and have a T g in the range of from -30 °C to 30 °C, wherein the Tg is calculated as indicated in the specification; b) the monomers comprise methyl methacrylate or styrene or a combination thereof, a polymerizable carboxylic acid monomer, and a sufficient amount of C 1 -C 10 -alkyl acrylate to achieve a calculated T g in the range of 50 °C to 120 °C; c) the concentration of the polymerizable carboxylic acid monomer is from 2 to 10 weight percent, based on the weight of the monomers; d) the weight-to-weight ratio of the monomers to the first polymer particles is in the range of 1:99 to 8:92.
A computer-implemented method, comprising: obtaining, by one or more computing machines, a training dataset, the training dataset comprising a plurality of examples, each example comprising entries for a plurality of features; partitioning, by the one or more computing machines, the plurality of features into a plurality of blocks, wherein at least one of the plurality of blocks contains at least two features, wherein, for each block, a respective feature subvector for each example has at most one non-zero entry, wherein partitioning the plurality of features into the plurality of blocks comprises partitioning the plurality of features according to a plurality of variables, wherein each variable is a categorical variable, a cross product of categorical variables, a bucketized numerical variable or a dense numerical variable, and learning, by the one or more computing machines, a plurality of model parameters from the plurality of blocks, wherein learning the model parameters comprises performing, by the one or more computing machines, a plurality of iterations, and wherein performing the plurality of iterations comprises processing, by the one or more computing machines, only one of the plurality of blocks per iteration, wherein the one or more computing machines comprise a master computing machine and a plurality of worker computing machines under control of the master computing machine. obtaining, by one or more computing machines, a training dataset, the training dataset comprising a plurality of examples, each example comprising entries for a plurality of features; partitioning, by the one or more computing machines, the plurality of features into a plurality of blocks, wherein at least one of the plurality of blocks contains at least two features, wherein, for each block, a respective feature subvector for each example has at most one non-zero entry, wherein partitioning the plurality of features into the plurality of blocks comprises partitioning the plurality of features according to a plurality of variables, wherein each variable is a categorical variable, a cross product of categorical variables, a bucketized numerical variable or a dense numerical variable, and learning, by the one or more computing machines, a plurality of model parameters from the plurality of blocks, wherein learning the model parameters comprises performing, by the one or more computing machines, a plurality of iterations, and wherein performing the plurality of iterations comprises processing, by the one or more computing machines, only one of the plurality of blocks per iteration, wherein the one or more computing machines comprise a master computing machine and a plurality of worker computing machines under control of the master computing machine.
A door assembly having a door skin , a carrier component and an interior panel component , wherein the carrier component is mounted on the door skin by way of at least one mounting element , wherein the at least one mounting element is also used to mount the interior panel component in that the at least one mounting element protrudes on the carrier component by way of a head portion , to which the interior panel component is fixed, and the at least one mounting element comprises a shank portion which is connected in a positively locking and/or non-positively locking manner to the door skin , characterized in that the shank portion is formed to create an aperture in the carrier component when the carrier component is being mounted on the door skin .
A method for performing wireless communication by a first device, the method comprising: transmitting (S2210), to a second device, a plurality of physical sidelink control channels, PSCCHs, and a plurality of physical sidelink shared channels, PSSCHs, wherein each of the plurality of PSSCHs is related with a corresponding one of the plurality of PSCCHs; receiving (S2220), from the second device, each of a plurality of sidelink, SL, hybrid automatic repeat request, HARQ, feedback information bits through a corresponding one of a plurality of physical sidelink feedback channels, PSFCHs, wherein each of the plurality of PSFCHs is related with a corresponding one of the plurality of PSSCHs; determining (S2230) a priority value of physical uplink control channel, PUCCH, transmission for reporting the plurality of SL HARQ feedback information bits to a base station; and performing the PUCCH transmission or SL transmission based on the priority value of the PUCCH transmission and a priority value of the SL transmission, wherein the priority value of the PUCCH transmission with the plurality of SL HARQ feedback information bits is a smallest value among priority values of the plurality of SL HARQ feedback information bits, wherein the PUCCH transmission and the SL transmission overlap in a time domain, and wherein, if the priority value of the PUCCH transmission is smaller than the priority value of the SL transmission, the PUCCH transmission is performed to the base station. transmitting (S2210), to a second device, a plurality of physical sidelink control channels, PSCCHs, and a plurality of physical sidelink shared channels, PSSCHs, wherein each of the plurality of PSSCHs is related with a corresponding one of the plurality of PSCCHs; receiving (S2220), from the second device, each of a plurality of sidelink, SL, hybrid automatic repeat request, HARQ, feedback information bits through a corresponding one of a plurality of physical sidelink feedback channels, PSFCHs, wherein each of the plurality of PSFCHs is related with a corresponding one of the plurality of PSSCHs; determining (S2230) a priority value of physical uplink control channel, PUCCH, transmission for reporting the plurality of SL HARQ feedback information bits to a base station; and performing the PUCCH transmission or SL transmission based on the priority value of the PUCCH transmission and a priority value of the SL transmission, wherein the priority value of the PUCCH transmission with the plurality of SL HARQ feedback information bits is a smallest value among priority values of the plurality of SL HARQ feedback information bits, wherein the PUCCH transmission and the SL transmission overlap in a time domain, and wherein, if the priority value of the PUCCH transmission is smaller than the priority value of the SL transmission, the PUCCH transmission is performed to the base station.
A method for optimizing a tolerance range of a control characteristic of an electronic mixture control for gas and a specific fuel gas using an ionization current control in a gas heater having a burner and a blower , wherein a quantity of the gas supplied to the burner via the blower and a quantity of fuel gas are regulated by means of an electronically controlled fuel gas actuator via a control unit , comprising the steps: - effecting a temporary increase in the quantity of fuel gas in order to enrich a fuel gas/gas mixture supplied to the burner during an operating point of the gas heater until an ionization signal (Io signal) detected on a burner flame of the burner reaches a maximum (Io-max), - calculating an ionization signal target value (Io target) for the specific fuel gas, - adjusting the fuel gas/gas mixture until the ionization signal target value (Io target) is reached, - assigning a fan speed of the fan to a position of the fuel gas actuator when the ionization signal target value (Io target) is reached, characterized by the steps: - determining the control characteristic on a characteristic map formed from the fan speed and the position of the fuel gas actuator, - setting the tolerance range around the determined control characteristic for the specific combustible gas. - effecting a temporary increase in the quantity of fuel gas in order to enrich a fuel gas/gas mixture supplied to the burner during an operating point of the gas heater until an ionization signal (Io signal) detected on a burner flame of the burner reaches a maximum (Io-max), - calculating an ionization signal target value (Io target) for the specific fuel gas, - adjusting the fuel gas/gas mixture until the ionization signal target value (Io target) is reached, - assigning a fan speed of the fan to a position of the fuel gas actuator when the ionization signal target value (Io target) is reached, - determining the control characteristic on a characteristic map formed from the fan speed and the position of the fuel gas actuator, - setting the tolerance range around the determined control characteristic for the specific combustible gas.
System comprising a vacuum device having a vacuum device housing and having at least one vacuum device network socket , wherein the at least one vacuum device network socket is attached to the vacuum device housing , and a plug-in module having a plug-in module communication unit , having an electrical plug-in module network plug unit and having a current control unit , which is designed to control an electric current between the plug-in module and the vacuum device .