mhurhangee/patent-ind-claim-en huggingface dataset:
A method for cell reselection in a mobile communications system, the method being performed by a user equipment, UE, and comprising: acquiring parameters from a Node B in a system information broadcast of a serving cell, wherein the parameters comprise a first time period, a second time period, and a number threshold supporting cell reselection; counting , during the first time period, a number of cell reselections of the UE, excluding the number of cell reselections to a same cell if the same cell is reselected during the first time period; determining whether the number of cell reselections exceeds the number threshold; setting the UE to a high-speed state if the number of cell reselections of the UE exceeds the number threshold, and performing cell reselection in the high-speed state according to a scaled down second time period for the cell reselection; and setting the UE to a non-high-speed state if the number of cell reselections of the UE does not exceed the number threshold, and performing cell reselection in the non-high-speed state according to the second time period for the cell reselection, wherein, in the high-speed state, the cell reselection to a neighbor cell is performed if the neighbor cell is higher-ranked than a serving cell during the scaled down second time period for the cell reselection. acquiring parameters from a Node B in a system information broadcast of a serving cell, wherein the parameters comprise a first time period, a second time period, and a number threshold supporting cell reselection; counting , during the first time period, a number of cell reselections of the UE, excluding the number of cell reselections to a same cell if the same cell is reselected during the first time period; determining whether the number of cell reselections exceeds the number threshold; setting the UE to a high-speed state if the number of cell reselections of the UE exceeds the number threshold, and performing cell reselection in the high-speed state according to a scaled down second time period for the cell reselection; and setting the UE to a non-high-speed state if the number of cell reselections of the UE does not exceed the number threshold, and performing cell reselection in the non-high-speed state according to the second time period for the cell reselection, wherein, in the high-speed state, the cell reselection to a neighbor cell is performed if the neighbor cell is higher-ranked than a serving cell during the scaled down second time period for the cell reselection.
A process for preparing a copolyester comprising repeating units derived from (i) at least one aliphatic glycol, (ii) at least one aromatic dicarboxylic acid, and (iii) at least one aliphatic dicarboxylic acid, wherein the aliphatic dicarboxylic acid constitutes a proportion of the acid fraction of the copolyester; and wherein the process comprises the steps of: (a) reacting in an esterification reaction said at least one aliphatic glycol (i) with a dicarboxylic acid selected from said at least one aromatic dicarboxylic acid (ii) or said at least one aliphatic dicarboxylic acid (iii) to form an ester of the respective acid(s); (c) reacting in an ester interchange reaction (e.g. a transesterification), the ester obtained and/or obtainable from step (a) with a further ester which is different from the ester obtained and/or obtainable from step (a), said further ester being selected from the ester of said aromatic dicarboxylic acid (ii) or the ester of said aliphatic dicarboxylic acid (iii); wherein step (c) comprises reacting the bis(hydroxyalkyl)-ester of the aromatic dicarboxylic acid (ii) with the bis(hydroxyalkyl)-ester of the aliphatic dicarboxylic acid (iii). wherein the process comprises the steps of: (a) reacting in an esterification reaction said at least one aliphatic glycol (i) with a dicarboxylic acid selected from said at least one aromatic dicarboxylic acid (ii) or said at least one aliphatic dicarboxylic acid (iii) to form an ester of the respective acid(s); (c) reacting in an ester interchange reaction (e.g. a transesterification), the ester obtained and/or obtainable from step (a) with a further ester which is different from the ester obtained and/or obtainable from step (a), said further ester being selected from the ester of said aromatic dicarboxylic acid (ii) or the ester of said aliphatic dicarboxylic acid (iii); (a) reacting in an esterification reaction said at least one aliphatic glycol (i) with a dicarboxylic acid selected from said at least one aromatic dicarboxylic acid (ii) or said at least one aliphatic dicarboxylic acid (iii) to form an ester of the respective acid(s); (c) reacting in an ester interchange reaction (e.g. a transesterification), the ester obtained and/or obtainable from step (a) with a further ester which is different from the ester obtained and/or obtainable from step (a), said further ester being selected from the ester of said aromatic dicarboxylic acid (ii) or the ester of said aliphatic dicarboxylic acid (iii); wherein step (c) comprises reacting the bis(hydroxyalkyl)-ester of the aromatic dicarboxylic acid (ii) with the bis(hydroxyalkyl)-ester of the aliphatic dicarboxylic acid (iii).
A sorbent cartridge, comprising: at least two modules, wherein the at least two modules are part of a controlled compliant dialysis circuit, at least one module being a reusable module, wherein the at least two modules are positioned parallel to one another, and wherein at least one specified sorbent material is in each of the modules; the at least two modules are connectable through at least one connector to form the sorbent cartridge; wherein the modules have one or more connectors selectively fluidly connectable to any one of a fluid flow path, a wash line wherein the wash line is fluidly connectable to a recharger, and a bypass line wherein the bypass line is fluidly connectable to another module or fluid flow path, and at least one of the modules is configured to be in an offline state by being fluidly connected to one or more recharger, and at least one of the modules is configured to be in an online state by being fluidly connected to any one of the fluid flow path or the bypass line. at least two modules, wherein the at least two modules are part of a controlled compliant dialysis circuit, at least one module being a reusable module, wherein the at least two modules are positioned parallel to one another, and wherein at least one specified sorbent material is in each of the modules; the at least two modules are connectable through at least one connector to form the sorbent cartridge; wherein the modules have one or more connectors selectively fluidly connectable to any one of a fluid flow path, a wash line wherein the wash line is fluidly connectable to a recharger, and a bypass line wherein the bypass line is fluidly connectable to another module or fluid flow path, and at least one of the modules is configured to be in an offline state by being fluidly connected to one or more recharger, and at least one of the modules is configured to be in an online state by being fluidly connected to any one of the fluid flow path or the bypass line.
A method for tracking a user's exposure to air pollutants, comprising: receiving pollutant information from a plurality of air quality data sources at one or more user locations; determining a weighting for at least one of the plurality of data sources, wherein determining the weighting for at least one of the plurality of data sources comprises calculating the weighting of the data source based on information about the type of data source and hence quality of the data from the data source, the weighting thereby representing quality of the pollutant information from the respective data source; selecting data sources from the plurality of data sources based on the weighting; and aggregating pollutant information from the selected data sources to determine the user's exposure over a predetermined period of time. receiving pollutant information from a plurality of air quality data sources at one or more user locations; determining a weighting for at least one of the plurality of data sources, wherein determining the weighting for at least one of the plurality of data sources comprises calculating the weighting of the data source based on information about the type of data source and hence quality of the data from the data source, the weighting thereby representing quality of the pollutant information from the respective data source; selecting data sources from the plurality of data sources based on the weighting; and aggregating pollutant information from the selected data sources to determine the user's exposure over a predetermined period of time.
A synergistic microbicidal composition comprising phenoxyethanol and dipropylene glycol phenyl ether, wherein the weight ratio of phenoxyethanol to dipropylene glycol phenyl ether is from 1:0.01 to 1:27.
A positive electrode active material for a non-aqueous electrolyte secondary battery , including: a Ni-containing lithium composite oxide A; and a Ni-containing lithium composite oxide B, wherein the Ni-containing lithium composite oxide A contains 55 mol% or more of Ni based on a total number of moles of metal elements except for Li, the Ni-containing lithium composite oxide B contains Ti and Ni, a content of Ni in the Ni-containing lithium composite oxide B is 55 mol% or more based on a total number of moles of metal elements except for Ti and Li, the Ni-containing lithium composite oxide A has an average primary particle size of 1 μm or more and an average secondary particle size of 2 μm to 6 μm, an average primary particle size of the Ni-containing lithium composite oxide B is 0.05 μm or more and is smaller than the average primary particle size of the Ni-containing lithium composite oxide A, an average secondary particle size of the Ni-containing lithium composite oxide B is 10 μm to 20 μm, wherein the particle sizes are measured according to the description, and a ratio between the Ni-containing lithium composite oxide A and the Ni-containing lithium composite oxide B is 5:95 to 55:45 in terms of mass ratio. a Ni-containing lithium composite oxide A; and a Ni-containing lithium composite oxide B, wherein the Ni-containing lithium composite oxide A contains 55 mol% or more of Ni based on a total number of moles of metal elements except for Li, the Ni-containing lithium composite oxide B contains Ti and Ni, a content of Ni in the Ni-containing lithium composite oxide B is 55 mol% or more based on a total number of moles of metal elements except for Ti and Li, the Ni-containing lithium composite oxide A has an average primary particle size of 1 μm or more and an average secondary particle size of 2 μm to 6 μm, an average primary particle size of the Ni-containing lithium composite oxide B is 0.05 μm or more and is smaller than the average primary particle size of the Ni-containing lithium composite oxide A, an average secondary particle size of the Ni-containing lithium composite oxide B is 10 μm to 20 μm, wherein the particle sizes are measured according to the description, and a ratio between the Ni-containing lithium composite oxide A and the Ni-containing lithium composite oxide B is 5:95 to 55:45 in terms of mass ratio.
A liquid ejection head (10, 10', 10"), comprising: head units each provided with a plurality of nozzles which eject liquid, the head units having a uniform nozzle pitch in a projected nozzle row obtained by projecting all of the nozzles to an alignment in a first direction; and an intermediate unit (14, 14', 14") provided with a fixing section to which a plurality of the head units are fixed, wherein the intermediate unit (14, 14', 14") is installed in such a manner that intermediate units can be replaced independently, the intermediate unit (14, 14', 14") has a structure in which portions of the nozzles of two head units that are mutually adjacent in a second direction (Y) perpendicular to a first direction (X) are mutually overlapped in the first direction, and positions of two head units that are mutually adjacent in the second direction are not overlapped in the second direction, and in a joint section where portions of nozzles of head units that are mutually adjacent in the second direction are overlapped, a relationship between a total number of nozzles N A included in a joint section between the head units belonging to a same intermediate unit and a total number of nozzles N B included in a joint section between the intermediate units satisfies : N A < N B , characterized in that the head units are fixed to the intermediate unit with a positioning accuracy of not more than 1/4 of the nozzle pitch in the projected nozzle row. head units each provided with a plurality of nozzles which eject liquid, the head units having a uniform nozzle pitch in a projected nozzle row obtained by projecting all of the nozzles to an alignment in a first direction; and an intermediate unit (14, 14', 14") provided with a fixing section to which a plurality of the head units are fixed, wherein the intermediate unit (14, 14', 14") is installed in such a manner that intermediate units can be replaced independently, the intermediate unit (14, 14', 14") has a structure in which portions of the nozzles of two head units that are mutually adjacent in a second direction (Y) perpendicular to a first direction (X) are mutually overlapped in the first direction, and positions of two head units that are mutually adjacent in the second direction are not overlapped in the second direction, and in a joint section where portions of nozzles of head units that are mutually adjacent in the second direction are overlapped, a relationship between a total number of nozzles N A included in a joint section between the head units belonging to a same intermediate unit and a total number of nozzles N B included in a joint section between the intermediate units satisfies :
Method carried out in a telecommunication network for assisting a user terminal (100 1 ), hereinafter referred to as "first user terminal", in benefiting from a data connectivity, the method comprising: indicating (s10), by another user terminal (100 2 ), hereinafter referred to as "second user terminal", to a network node , hereinafter referred to as "connectivity donation server", that the second user terminal (100 2 ) is willing to sponsor data connectivity of the first user terminal (100 1 ) and that at least one restriction is to be imposed on how the sponsored data connectivity can be used by the first user terminal (100 1 ), wherein the at least one restriction comprises at least one of: where the first user terminal (100 1 ) is to be located for benefiting from the sponsored data connectivity; and which access network or access networks the first user terminal (100 1 ) has to connect to for benefiting from the sponsored data connectivity; transmitting (s20), from the connectivity donation server to the second user terminal (100 2 ), a token identifying the second user terminal's willingness to sponsor data connectivity of the first user terminal considering the at least one restriction; and transmitting (s30), from the second user terminal (100 2 ) to the first user terminal (100 1 ), the token , using proximity-based means. indicating (s10), by another user terminal (100 2 ), hereinafter referred to as "second user terminal", to a network node , hereinafter referred to as "connectivity donation server", that the second user terminal (100 2 ) is willing to sponsor data connectivity of the first user terminal (100 1 ) and that at least one restriction is to be imposed on how the sponsored data connectivity can be used by the first user terminal (100 1 ), wherein the at least one restriction comprises at least one of: where the first user terminal (100 1 ) is to be located for benefiting from the sponsored data connectivity; and which access network or access networks the first user terminal (100 1 ) has to connect to for benefiting from the sponsored data connectivity; where the first user terminal (100 1 ) is to be located for benefiting from the sponsored data connectivity; and which access network or access networks the first user terminal (100 1 ) has to connect to for benefiting from the sponsored data connectivity; transmitting (s20), from the connectivity donation server to the second user terminal (100 2 ), a token identifying the second user terminal's willingness to sponsor data connectivity of the first user terminal considering the at least one restriction; and transmitting (s30), from the second user terminal (100 2 ) to the first user terminal (100 1 ), the token , using proximity-based means.
A microelectromechanical systems, MEMS, apparatus comprising: a reference MEMS structure located in a plane above a MEMS substrate, wherein the reference MEMS structure is anchored to the MEMS substrate; a sensing MEMS structure located in the plane above the MEMS substrate, wherein the sensing MEMS structure is configured to move in response to an external load applied to the MEMS apparatus, wherein the reference MEMS structure and the sensing MEMS structure are each configured as respective sets of arms arranged as an interdigitated set of arms extending radially around a center portion of the reference MEMS structure; a flexible coupling configured to suspend the sensing MEMS structure above the MEMS substrate; a plurality of sense electrodes located parallel to the sensing MEMS structure configured to that sense position of the sensing MEMS structure; and a plurality of reference electrodes located parallel to the reference MEMS structure configured to sense deformation of the MEMS substrate. a reference MEMS structure located in a plane above a MEMS substrate, wherein the reference MEMS structure is anchored to the MEMS substrate; a sensing MEMS structure located in the plane above the MEMS substrate, wherein the sensing MEMS structure is configured to move in response to an external load applied to the MEMS apparatus, wherein the reference MEMS structure and the sensing MEMS structure are each configured as respective sets of arms arranged as an interdigitated set of arms extending radially around a center portion of the reference MEMS structure; a flexible coupling configured to suspend the sensing MEMS structure above the MEMS substrate; a plurality of sense electrodes located parallel to the sensing MEMS structure configured to that sense position of the sensing MEMS structure; and a plurality of reference electrodes located parallel to the reference MEMS structure configured to sense deformation of the MEMS substrate.
A side rail formed in a split ring shape with an opening and to be mounted on a space expander in an annular shape to constitute, together with the space expander, a multi-piece oil ring used in an internal combustion engine, the side rail comprising: an outer peripheral surface facing radially outward; an inner peripheral surface facing radially inward; a first axial surface facing a crankcase; a second axial surface facing a combustion chamber and parallel to the first axial surface; and a protrusion formed on the outer peripheral surface in a position offset from an intermediate position between the first axial surface and the second axial surface toward the first axial surface and protruding radially outward from the outer peripheral surface, wherein the protrusion is formed at an end of the outer peripheral surface adjacent to the first axial surface, characterised in that a tapered portion is formed between the second axial surface and the outer peripheral surface , and wherein a sliding surface of the protrusion is formed in a semi-barrel shape. an outer peripheral surface facing radially outward; an inner peripheral surface facing radially inward; a first axial surface facing a crankcase; a second axial surface facing a combustion chamber and parallel to the first axial surface; and a protrusion formed on the outer peripheral surface in a position offset from an intermediate position between the first axial surface and the second axial surface toward the first axial surface and protruding radially outward from the outer peripheral surface, wherein the protrusion is formed at an end of the outer peripheral surface adjacent to the first axial surface, characterised in that a tapered portion is formed between the second axial surface and the outer peripheral surface , and wherein a sliding surface of the protrusion is formed in a semi-barrel shape.
An electronic device, comprising: a housing in which an internal recess is defined, wherein the housing comprises a first antenna region for accommodating a first antenna of the electronic device and a second antenna region for accommodating a second antenna, and wherein the antenna regions extend generally parallel to a shorter side of the device; a piezo beam positioned in the internal recess and mounted to an internal structure of the electronic device defining a wall of the recess, the piezo beam being mounted to the internal structure in a mounting direction generally perpendicular to a thinnest dimension of the electronic device; and an elongate mass coupled to a center area of the piezo beam and having opposing free ends that are free to vibrate at selected frequencies to produce haptic feedback, wherein the piezo beam and the elongate mass are positioned between and spaced apart from the antenna regions . a housing in which an internal recess is defined, wherein the housing comprises a first antenna region for accommodating a first antenna of the electronic device and a second antenna region for accommodating a second antenna, and wherein the antenna regions extend generally parallel to a shorter side of the device; a piezo beam positioned in the internal recess and mounted to an internal structure of the electronic device defining a wall of the recess, the piezo beam being mounted to the internal structure in a mounting direction generally perpendicular to a thinnest dimension of the electronic device; and an elongate mass coupled to a center area of the piezo beam and having opposing free ends that are free to vibrate at selected frequencies to produce haptic feedback, wherein the piezo beam and the elongate mass are positioned between and spaced apart from the antenna regions .
A test and measurement system, comprising: a test and measurement instrument ; a probe connected to the test and measurement instrument , the probe having a fixed impedance; a device under test connected to the probe ; at least one memory configured to store parameters for characterizing the probe ; a user interface configured to receive a nominal source impedance of the device under test ; and a processor configured to receive the parameters for characterizing the probe from the memory and the nominal source impedance of the device under test from the user interface and to calculate an equalization filter using the parameters for characterizing the probe and nominal source impedance from the user interface . a test and measurement instrument ; a probe connected to the test and measurement instrument , the probe having a fixed impedance; a device under test connected to the probe ; at least one memory configured to store parameters for characterizing the probe ; a user interface configured to receive a nominal source impedance of the device under test ; and a processor configured to receive the parameters for characterizing the probe from the memory and the nominal source impedance of the device under test from the user interface and to calculate an equalization filter using the parameters for characterizing the probe and nominal source impedance from the user interface .