mhurhangee/patent-ind-claim-en huggingface dataset:
A hub-bearing unit comprising: - a bearing unit comprising a radially outer ring , stationary, a radially inner ring , rotatable, and a double row of rolling bodies , the first row of rolling bodies , axially outwards, being interposed between the radially outer ring and a rotor-hub and whose centers of the rolling bodies are located along a first circle having a radius (R), with respect to a symmetry axis (X) of the hub-bearing unit , and the second row of rolling bodies , axially inwards, being interposed between the radially outer ring and the radially inner ring , - the rotor-hub (20, rotatable, on top of which the radially inner ring is assembled, the rotor-hub comprising a tubular portion , to which is steadily fixed a flange portion , axially external and provided with a plurality of fixing holes , whose axes are located along a second circle having a radius (r), with respect to the symmetry axis (X) of the hub-bearing unit , wherein - the radius (r) of the second circle of the fixing holes axes is less than or at most equal to the radius (R) of the first circle of the rolling bodies centers, characterized in that - a bushing , for centering the vehicle wheel, is coupled to the flange portion of the rotor-hub . - a bearing unit comprising a radially outer ring , stationary, a radially inner ring , rotatable, and a double row of rolling bodies , the first row of rolling bodies , axially outwards, being interposed between the radially outer ring and a rotor-hub and whose centers of the rolling bodies are located along a first circle having a radius (R), with respect to a symmetry axis (X) of the hub-bearing unit , and the second row of rolling bodies , axially inwards, being interposed between the radially outer ring and the radially inner ring , - the rotor-hub (20, rotatable, on top of which the radially inner ring is assembled, the rotor-hub comprising a tubular portion , to which is steadily fixed a flange portion , axially external and provided with a plurality of fixing holes , whose axes are located along a second circle having a radius (r), with respect to the symmetry axis (X) of the hub-bearing unit , wherein - the radius (r) of the second circle of the fixing holes axes is less than or at most equal to the radius (R) of the first circle of the rolling bodies centers, characterized in that - a bushing , for centering the vehicle wheel, is coupled to the flange portion of the rotor-hub .
A frame for an electrically-assisted vehicle, comprising a down tube and a middle tube connected with each other, wherein a controller is disposed in the middle tube , characterized in that , inside the down tube , the frame is provided with relative circuits; the relative circuits comprising a charging circuit and charging socket , the charging circuit and charging socket are disposed in a charging box base , the charging box base is disposed in the down tube , the charging box base is hinged with a charging box lid via one or more hinge pins ; the relative circuits also comprising a USB socket and relative circuit thereof, the USB socket and relative circuit thereof are disposed in the charging box base ; the relative circuits also comprise a battery , the battery is disposed in the down tube , and an end of the battery is provided with a DC charging plug , the DC charging plug is electrically connected with the charging circuit; the battery is provided with a USB buck board, the USB buck board is also provided with a USB plug , the USB plug is electrically connected with the USB socket and relative circuit thereof.
A non-destructive method for determining the quantity and/or composition of at least one layer of at least one powdered resin or resin mixture spread on the upper surface of at least one carrier board or at least one paper layer, wherein the quantity of the powdered resin or resin mixture spread is between 10 and 150 g/m 2 , comprising the steps of - Applying at least one powdered resin or a powdered mixture of at least two resins in a defined mixing ratio in different quantitatively defined quantities to a carrier material as reference samples; - Recording of at least one NIR spectrum of each of the reference samples using at least one NIR measuring head in a wavelength range between 1400 nm and 1600 nm, and particularly advantageously between 1450 nm and 1550 nm; - Correlating the different quantitative amounts of powdered resin or resin mixture of the reference samples to the recorded NIR spectra of said reference samples; and - Creating a calibration model for the relationship between the spectral data of the NIR spectra and the corresponding quantitative quantities of powdered resin or resin mixture of the reference samples by means of multivariate data analysis; - Applying at least one layer of at least one powdered resin or resin mixture to a carrier material, - Recording at least one NIR spectrum of the carrier material coated with the powdered resin or resin mixture using the at least one NIR measuring head in a wavelength range between 1400 nm and 1600 nm and particularly advantageously between 1450 nm and 1550 nm; and - Determining the quantitative amount of powdered resin or resin mixture applied to the carrier material by comparing the NIR spectrum recorded from the coated carrier material with the calibration model created. - Applying at least one powdered resin or a powdered mixture of at least two resins in a defined mixing ratio in different quantitatively defined quantities to a carrier material as reference samples; - Recording of at least one NIR spectrum of each of the reference samples using at least one NIR measuring head in a wavelength range between 1400 nm and 1600 nm, and particularly advantageously between 1450 nm and 1550 nm; - Correlating the different quantitative amounts of powdered resin or resin mixture of the reference samples to the recorded NIR spectra of said reference samples; and - Creating a calibration model for the relationship between the spectral data of the NIR spectra and the corresponding quantitative quantities of powdered resin or resin mixture of the reference samples by means of multivariate data analysis; - Applying at least one layer of at least one powdered resin or resin mixture to a carrier material, - Recording at least one NIR spectrum of the carrier material coated with the powdered resin or resin mixture using the at least one NIR measuring head in a wavelength range between 1400 nm and 1600 nm and particularly advantageously between 1450 nm and 1550 nm; and - Determining the quantitative amount of powdered resin or resin mixture applied to the carrier material by comparing the NIR spectrum recorded from the coated carrier material with the calibration model created.
A lubricant additive consisting of: a monoester carboxylic acid salt (A) represented by formula , wherein R 1 represents an alkylene group or alkenylene group having 2 carbon atoms, R 2 represents a linear or branched saturated hydrocarbon group or a linear or branched unsaturated hydrocarbon group having 4 to 18 carbon atoms, AO represents an oxyalkylene group of one type selected from oxyalkylene groups having 2 to 4 carbon atoms, or a mixed oxyalkylene group of two or more types selected from oxyalkylene groups having 2 to 4 carbon atoms, n is the average number of added moles of the oxyalkylene group represented by AO and is 1 to 5, and M represents a secondary or tertiary ammonium cation. a monoester carboxylic acid salt (A) represented by formula , wherein R 1 represents an alkylene group or alkenylene group having 2 carbon atoms, R 2 represents a linear or branched saturated hydrocarbon group or a linear or branched unsaturated hydrocarbon group having 4 to 18 carbon atoms, AO represents an oxyalkylene group of one type selected from oxyalkylene groups having 2 to 4 carbon atoms, or a mixed oxyalkylene group of two or more types selected from oxyalkylene groups having 2 to 4 carbon atoms, n is the average number of added moles of the oxyalkylene group represented by AO and is 1 to 5, and M represents a secondary or tertiary ammonium cation.
A pouched product for oral use comprising a liquid permeable cover material and a portion sized amount of a filling material comprising nicotine, the filling material comprising a particulate material, wherein the particulate material comprises water insoluble particles of microcrystalline cellulose, water insoluble starch, silica or a mixture thereof, the filling material being enclosed by the liquid permeable cover material, characterized in that the water insoluble particles constitute 75% by dry weight to 99% by dry weight of the filling material, the particles of the particulate material have an average particle size within the range of from 0.3 mm to 3.0 mm and the particulate material contains less than 0.5% of particles passing through a sieve having a mesh size of 250 μm, the filling material comprising one or more water soluble components.
A hot-rolled steel sheet comprising, as a chemical composition, by mass%: C: 0.02% to 0.12%; Si: 0.01% to 2.00%; Mn: 1.00% to 3.00%; P: 0.100% or less; S: 0.010% or less; N: 0.010% or less; Al: 0.005% to 1.000%; Ti: 0.01% to 0.20%; Nb: 0% to 0.10%; V: 0% to 0.100%; Ni: 0% to 2.00%; Cu: 0% to 2.00%; Cr: 0% to 2.00%; Mo: 0% to 2.00%; W: 0% to 0.100%; B: 0% to 0.0100%; REM: 0% to 0.0300%; Ca: 0% to 0.0300%; Mg: 0% to 0.0300%; and a remainder of Fe and impurities, wherein the chemical composition satisfies 0.10 ≤ Ti + Nb + V ≤ 0.45, a microstructure includes 80% or more of tempered martensite by a volume percentage, a remainder consists of one or more of ferrite, pearlite, bainite, fresh martensite, and residual austenite, the tempered martensite includes 5 × 10 9 pieces/mm 3 or more of precipitates containing Ti and having an equivalent circle diameter of 5 nm or less per unit volume, in a surface layer region that is a range from a surface to a 1/10 position of a sheet thickness, a sum of an average pole density of a crystal orientation group consisting of <111> to <112> and a pole density in a crystal orientation of <001> is 6.0 or less, and a tensile strength is 980 MPa or more, and wherein the microstructure, the precipitates containing Ti and having an equivalent circle diameter of 5 nm or less per unit volume, the sum of an average pole density of a crystal orientation group consisting of <111> to <112> and a pole density in a crystal orientation of <001>, and the tensile strength are determined as described in the description. C: 0.02% to 0.12%; Si: 0.01% to 2.00%; Mn: 1.00% to 3.00%; P: 0.100% or less; S: 0.010% or less; N: 0.010% or less; Al: 0.005% to 1.000%; Ti: 0.01% to 0.20%; Nb: 0% to 0.10%; V: 0% to 0.100%; Ni: 0% to 2.00%; Cu: 0% to 2.00%; Cr: 0% to 2.00%; Mo: 0% to 2.00%; W: 0% to 0.100%; B: 0% to 0.0100%; REM: 0% to 0.0300%; Ca: 0% to 0.0300%; Mg: 0% to 0.0300%; and a remainder of Fe and impurities, wherein the chemical composition satisfies 0.10 ≤ Ti + Nb + V ≤ 0.45, a microstructure includes 80% or more of tempered martensite by a volume percentage, a remainder consists of one or more of ferrite, pearlite, bainite, fresh martensite, and residual austenite, the tempered martensite includes 5 × 10 9 pieces/mm 3 or more of precipitates containing Ti and having an equivalent circle diameter of 5 nm or less per unit volume, in a surface layer region that is a range from a surface to a 1/10 position of a sheet thickness, a sum of an average pole density of a crystal orientation group consisting of <111> to <112> and a pole density in a crystal orientation of <001> is 6.0 or less, and a tensile strength is 980 MPa or more, and wherein the microstructure, the precipitates containing Ti and having an equivalent circle diameter of 5 nm or less per unit volume, the sum of an average pole density of a crystal orientation group consisting of <111> to <112> and a pole density in a crystal orientation of <001>, and the tensile strength are determined as described in the description.
A composition comprising a polyvalent metal salt of pyrithione and a complex of a polyvalent metal with pyridine amide.
A system to determine the extent of applied cardiac tissue stimulation due to pacing, the system comprising: electrodes configured to be distributed on a patent's torso; a pacing device configured to stimulate the patent's cardiac tissue; a processing unit configured to: determine the number of electrodes that register an activation time that meet a predetermined criteria; calculate a percentage index by dividing the number of electrodes that registered activation times that meet the predetermined criteria by the total number of electrodes distributed on the patient's torso; and determine the extent of applied cardiac tissue stimulation due to pacing based on the percentage index. electrodes configured to be distributed on a patent's torso; a pacing device configured to stimulate the patent's cardiac tissue; a processing unit configured to: determine the number of electrodes that register an activation time that meet a predetermined criteria; calculate a percentage index by dividing the number of electrodes that registered activation times that meet the predetermined criteria by the total number of electrodes distributed on the patient's torso; and determine the extent of applied cardiac tissue stimulation due to pacing based on the percentage index. determine the number of electrodes that register an activation time that meet a predetermined criteria; calculate a percentage index by dividing the number of electrodes that registered activation times that meet the predetermined criteria by the total number of electrodes distributed on the patient's torso; and determine the extent of applied cardiac tissue stimulation due to pacing based on the percentage index.
A terminal apparatus that is configured to communicate with a base station apparatus by using a plurality of cells, comprising: a reception unit configured to and/or programmed to receive a higher layer signal at least indicating Radio Network Temporary Identifier, RNTI, periodicity to monitor a Physical Downlink Control Channel, PDCCH, with the RNTI, and subframes within the periodicity to monitor the PDCCH with the RNTI, and to receive, for each of the plurality of cells, an index which indicates one of M pieces of information, each of the M pieces of information indicating an uplink-downlink configuration, and a control unit configured to and/or programmed to configure the subframes to monitor the PDCCH with the RNTI based on at least the received higher layer signal, wherein the reception unit is configured to and/or programmed to monitor, in the configured subframes, the PDCCH with the RNTI in a common search space on a predetermined cell which is one of the plurality of cells, and to receive the M pieces of information included in the PDCCH with the RNTI, and the control unit is configured to and/or programmed to determine, for each of the plurality of cells, the uplink-downlink configuration from the M pieces of information based on the index. a reception unit configured to and/or programmed to receive a higher layer signal at least indicating Radio Network Temporary Identifier, RNTI, periodicity to monitor a Physical Downlink Control Channel, PDCCH, with the RNTI, and subframes within the periodicity to monitor the PDCCH with the RNTI, and to receive, for each of the plurality of cells, an index which indicates one of M pieces of information, each of the M pieces of information indicating an uplink-downlink configuration, and to receive a higher layer signal at least indicating Radio Network Temporary Identifier, RNTI, periodicity to monitor a Physical Downlink Control Channel, PDCCH, with the RNTI, and subframes within the periodicity to monitor the PDCCH with the RNTI, and to receive, for each of the plurality of cells, an index which indicates one of M pieces of information, each of the M pieces of information indicating an uplink-downlink configuration, and a control unit configured to and/or programmed to configure the subframes to monitor the PDCCH with the RNTI based on at least the received higher layer signal, wherein the reception unit is configured to and/or programmed to monitor, in the configured subframes, the PDCCH with the RNTI in a common search space on a predetermined cell which is one of the plurality of cells, and to receive the M pieces of information included in the PDCCH with the RNTI, and the control unit is configured to and/or programmed to determine, for each of the plurality of cells, the uplink-downlink configuration from the M pieces of information based on the index.
An electrochromic composition comprising a cathodic component in the form of a quaternary salt of dipyridine, an anodic component in the form of a ferrocene derivative or heterocyclic compound capable of switching between two oxidation states, a polymeric thickener and a solvent, wherein the cathodic component comprises a salt of cation of 1,1'-dialkyl-4,4'-dipyridinium (alkyl group) and 1,1-(alkane-alpha (alkane spacer), omega-diyl)-bis-(1'-alkyl-4,4'- dipyridinium) with weakly coordinated anions.
An apparatus comprising: memory; and processing circuitry, configured to cause a User Equipment, UE, to: determine , for a group of two or more physical links of a split radio bearer, maximum sequence numbers, SNs, of Packet Data Convergence Protocol, PDCP, packets received on the physical links; determine a SN of a missing PDCP packet based on the SNs of the received PDCP packets; determine that the SN of the missing PDCP packet is greater than at least one of the maximum SNs; in response to the determination that the SN of the missing PDCP packet is greater than at least one of the maximum SNs, start a PDCP reordering timer associated with the missing PDCP packet; wherein the processing circuitry is further configured to cause the UE to: receive additional PDCP packets on the two or more second physical links; determine an updated set of maximum SNs based on the additional PDCP packets; determine that the SN of the missing packet is below the updated set of maximum SNs; and determine that the PDCP reordering timer for the missing PDCP packet is to be halted based on the determination that the SN of the missing PDCP packet is less than the updated set of maximum SNs. determine , for a group of two or more physical links of a split radio bearer, maximum sequence numbers, SNs, of Packet Data Convergence Protocol, PDCP, packets received on the physical links; determine a SN of a missing PDCP packet based on the SNs of the received PDCP packets; determine that the SN of the missing PDCP packet is greater than at least one of the maximum SNs; in response to the determination that the SN of the missing PDCP packet is greater than at least one of the maximum SNs, start a PDCP reordering timer associated with the missing PDCP packet; wherein the processing circuitry is further configured to cause the UE to: receive additional PDCP packets on the two or more second physical links; determine an updated set of maximum SNs based on the additional PDCP packets; determine that the SN of the missing packet is below the updated set of maximum SNs; and determine that the PDCP reordering timer for the missing PDCP packet is to be halted based on the determination that the SN of the missing PDCP packet is less than the updated set of maximum SNs. receive additional PDCP packets on the two or more second physical links; determine an updated set of maximum SNs based on the additional PDCP packets; determine that the SN of the missing packet is below the updated set of maximum SNs; and determine that the PDCP reordering timer for the missing PDCP packet is to be halted based on the determination that the SN of the missing PDCP packet is less than the updated set of maximum SNs.
A display device comprising: a substrate ; a display unit disposed on the substrate and comprising a pixel circuit (PC) and a display element electrically connected to the pixel circuit (PC); a driving circuit disposed outside of the display unit , the driving circuit comprising a thin film transistor (TFT); an inorganic insulating layer disposed on the driving circuit ; a power supply line disposed on the inorganic insulating layer , the power supply line overlapping the driving circuit , and connected to a common electrode of the display element ; an encapsulation substrate disposed on the power supply line and facing the substrate ; and a sealing material interposed between the substrate and the encapsulation substrate and overlapping the driving circuit , the display device further comprising a first organic insulating layer interposed between the inorganic insulating layer and an end of the power supply line , wherein the end of the power supply line is adjacent to the display unit , and wherein an end of the first organic insulating layer is spaced apart from the sealing material with the driving circuit therebetween characterized in that the display device further comprises a second organic insulating layer interposed between the first organic insulating layer and a pixel electrode of the display element , wherein the second organic insulating layer comprises an end spaced apart from the sealing material with the driving circuit therebetween, and wherein the end of the power supply line adjacent to the display unit is covered by the second organic insulating layer . a substrate ; a display unit disposed on the substrate and comprising a pixel circuit (PC) and a display element electrically connected to the pixel circuit (PC); a driving circuit disposed outside of the display unit , the driving circuit comprising a thin film transistor (TFT); an inorganic insulating layer disposed on the driving circuit ; a power supply line disposed on the inorganic insulating layer , the power supply line overlapping the driving circuit , and connected to a common electrode of the display element ; an encapsulation substrate disposed on the power supply line and facing the substrate ; and a sealing material interposed between the substrate and the encapsulation substrate and overlapping the driving circuit , the display device further comprising a first organic insulating layer interposed between the inorganic insulating layer and an end of the power supply line , wherein the end of the power supply line is adjacent to the display unit , and wherein an end of the first organic insulating layer is spaced apart from the sealing material with the driving circuit therebetween characterized in that the display device further comprises a second organic insulating layer interposed between the first organic insulating layer and a pixel electrode of the display element , wherein the second organic insulating layer comprises an end spaced apart from the sealing material with the driving circuit therebetween, and wherein the end of the power supply line adjacent to the display unit is covered by the second organic insulating layer .