mhurhangee/patent-ind-claim-en huggingface dataset:
A negative electrode composition for a rechargeable lithium battery , the negative electrode composition comprising: a negative active material and a crystalline carbon conductive material, wherein: the negative active material comprises soft carbon, and the crystalline carbon conductive material comprises graphite having a particle diameter, D90 - volume percentage -, of 1 micrometer to 10 micrometers. a negative active material and a crystalline carbon conductive material, wherein: the negative active material comprises soft carbon, and the crystalline carbon conductive material comprises graphite having a particle diameter, D90 - volume percentage -, of 1 micrometer to 10 micrometers. the negative active material comprises soft carbon, and the crystalline carbon conductive material comprises graphite having a particle diameter, D90 - volume percentage -, of 1 micrometer to 10 micrometers.
A composition in solid or powder form for use in promoting and/or sustaining ketosis in a mammal while simultaneously preventing or limiting electrolyte imbalance or promoting or maintaining electrolyte balance, thereby treating high blood glucose, treating type II diabetes, preventing metabolic dysfunction, preventing mitochondrial defect, or preventing insulin resistance, comprising: a beta-hydroxybutyrate mixed salt, the beta-hydroxybutyrate salt being formed from at least four different cations and comprising: 10-30% by weight of sodium beta-hydroxybutyrate; 10-30% by weight of potassium beta-hydroxybutyrate; 10-40% by weight of calcium beta-hydroxybutyrate; and a 10-40% by weight of magnesium beta-hydroxybutyrate, wherein sodium beta-hydroxybutyrate is included in an amount by weight no greater than the amount by weight of the potassium beta-hydroxybutyrate, wherein calcium beta-hydroxybutyrate is included in an amount by weight no greater than the amount by weight of the magnesium beta-hydroxybutyrate. a beta-hydroxybutyrate mixed salt, the beta-hydroxybutyrate salt being formed from at least four different cations and comprising: 10-30% by weight of sodium beta-hydroxybutyrate; 10-30% by weight of potassium beta-hydroxybutyrate; 10-40% by weight of calcium beta-hydroxybutyrate; and a 10-40% by weight of magnesium beta-hydroxybutyrate, 10-30% by weight of sodium beta-hydroxybutyrate; 10-30% by weight of potassium beta-hydroxybutyrate; 10-40% by weight of calcium beta-hydroxybutyrate; and a 10-40% by weight of magnesium beta-hydroxybutyrate, wherein sodium beta-hydroxybutyrate is included in an amount by weight no greater than the amount by weight of the potassium beta-hydroxybutyrate, wherein calcium beta-hydroxybutyrate is included in an amount by weight no greater than the amount by weight of the magnesium beta-hydroxybutyrate.
Sole bar arrangement for a body of a vehicle, in particular a rail vehicle, characterised in that at least one sole bar having a hole pattern and at least one suspension apparatus which is perforated in an interface-identical manner to the hole pattern and has a U-shaped cross-section as well as a U-shaped contour, are provided, wherein the at least one suspension apparatus is interlockingly and frictionally connected to the at least one sole bar and rests on the sole bar in the region of a contact surface .
A mat assembly comprising: a center section having a peripheral portion, the center section comprising a sponge layer and a top plate , a center portion of each of the top plate and the sponge layer secured together, a plurality of ramps , each ramp having an inclined top portion , a bottom portion , and a connecting flange , one end of the inclined top portion terminating at a free end of the ramp , the free end extending longitudinally along the ramp , the ramp having a plurality of channels extending longitudinally along the ramp , adjacent channels separated by a member extending between the inclined top portion and bottom portion of the ramp , the ramp also having opposing end portions, the end portions of adjacent ramps configured to be attached together, characterised in that the connecting flange is positioned between an underside portion of the top plate and an upper surface portion of the sponge layer layer, each of which being in the peripheral portion of the center section , the connecting flange , underside portion and upper surface portion attached together to form an integral connection between each ramp and the center section . a center section having a peripheral portion, the center section comprising a sponge layer and a top plate , a center portion of each of the top plate and the sponge layer secured together, a plurality of ramps , each ramp having an inclined top portion , a bottom portion , and a connecting flange , one end of the inclined top portion terminating at a free end of the ramp , the free end extending longitudinally along the ramp , the ramp having a plurality of channels extending longitudinally along the ramp , adjacent channels separated by a member extending between the inclined top portion and bottom portion of the ramp , the ramp also having opposing end portions, the end portions of adjacent ramps configured to be attached together, characterised in that the connecting flange is positioned between an underside portion of the top plate and an upper surface portion of the sponge layer layer, each of which being in the peripheral portion of the center section , the connecting flange , underside portion and upper surface portion attached together to form an integral connection between each ramp and the center section .
A method comprising: obtaining measurements of a quantum processor circuit comprising a plurality of qubit devices (212A-212E, 214A-214D), the plurality of qubit devices comprising a fixed-frequency qubit device (214A-214D) and a tunable-frequency qubit device (212A-212E); based on the measurements and by operation of one or more processors, computing multiple distinct gate conditions for applying a two-qubit quantum logic gate to a pair of qubits defined by the fixed-frequency qubit device (214A-214D) and the tunable-frequency qubit device (212A-212E); identifying one or more of the distinct gate conditions that satisfy an operating criterion associated with the two-qubit quantum logic gate; and based on the one or more gate conditions that satisfy the operating criterion, selecting gate parameters for the two-qubit quantum logic gate. obtaining measurements of a quantum processor circuit comprising a plurality of qubit devices (212A-212E, 214A-214D), the plurality of qubit devices comprising a fixed-frequency qubit device (214A-214D) and a tunable-frequency qubit device (212A-212E); based on the measurements and by operation of one or more processors, computing multiple distinct gate conditions for applying a two-qubit quantum logic gate to a pair of qubits defined by the fixed-frequency qubit device (214A-214D) and the tunable-frequency qubit device (212A-212E); identifying one or more of the distinct gate conditions that satisfy an operating criterion associated with the two-qubit quantum logic gate; and based on the one or more gate conditions that satisfy the operating criterion, selecting gate parameters for the two-qubit quantum logic gate.
A method for the diagnosis of cancer in a subject that comprises (i) determining the levels of PD-ECGF in a sample from said subject, wherein the sample is a sample of a biological fluid and, (ii) comparing the levels obtained in (i) to a reference value, wherein - if the levels of PD-ECGF in a sample from the subject are increased when compared to a reference value, then the subject is diagnosed with cancer, and - if the levels of PD-ECGF in a sample from the subject are decreased when compared to a reference value, then the subject is not diagnosed with cancer and. wherein the cancer is renal cell carcinoma (RCC) or colorectal cancer, wherein the biological fluid is selected from the group consisting of blood, plasma and serum. (i) determining the levels of PD-ECGF in a sample from said subject, wherein the sample is a sample of a biological fluid and, (ii) comparing the levels obtained in (i) to a reference value, - if the levels of PD-ECGF in a sample from the subject are increased when compared to a reference value, then the subject is diagnosed with cancer, and - if the levels of PD-ECGF in a sample from the subject are decreased when compared to a reference value, then the subject is not diagnosed with cancer and.
A premixing apparatus (A) for mixing air with a fuel gas in order to supply a burner with an air-fuel mixture through a fan , wherein an air supply passage of the premixing apparatus (A) is disposed, on an upstream side of the fan , a gas supply passage of the premixing apparatus (A) having interposed therein a zero governor for adjusting a secondary gas pressure to an atmospheric pressure, the premixing apparatus (A) comprising: the air supply passage ; the gas supply passage ; a gas suction part disposed in a portion of the air supply passage , wherein a downstream end of the gas supply passage is connected to the gas suction part ; the zero governor ; an excess air ratio detection device for detecting an excess air ratio of the air-fuel mixture; and a flow control valve interposed in a portion, on a downstream side of the zero governor , of the gas supply passage , wherein the flow control valve is controlled such that the excess air ratio of the air-fuel mixture detected by the excess air ratio detection device becomes constant, and wherein the premixing apparatus (A) further comprises a bypass passage having interposed therein an on-off valve , the bypass passage being disposed in parallel with the flow control valve and in a portion, on the downstream side of the zero governor , of the gas supply passage . the air supply passage ; the gas supply passage ; a gas suction part disposed in a portion of the air supply passage , wherein a downstream end of the gas supply passage is connected to the gas suction part ; the zero governor ; an excess air ratio detection device for detecting an excess air ratio of the air-fuel mixture; and a flow control valve interposed in a portion, on a downstream side of the zero governor , of the gas supply passage , wherein the flow control valve is controlled such that the excess air ratio of the air-fuel mixture detected by the excess air ratio detection device becomes constant, and wherein the premixing apparatus (A) further comprises a bypass passage having interposed therein an on-off valve , the bypass passage being disposed in parallel with the flow control valve and in a portion, on the downstream side of the zero governor , of the gas supply passage .
A Customer Replaceable Unit Monitoring, CRUM, chip including an interface for performing communication with a controller inside a main body of an image forming device; a memory configured to store information for verifying a consumable unit , wherein the information includes: serial information of the CRUM chip , and a conversion serial information list including pieces of conversion serial information, each of which is converted from the serial information according to a plurality of different predetermined rules; a central processing unit, CPU, configured to provide the conversion serial information list to the controller of the image forming device for verifying the consumable unit , wherein the conversion serial information list further includes a trigger bit to designate at least one piece of conversion serial information, from among the pieces of conversion serial information, to be used in verifying, and wherein the memory is configured to store a detection list including information on nongenuine CRUM chips and version information of the detection list stored in the memory , to check whether a detection list prestored in the image forming device needs to be updated. serial information of the CRUM chip , and a conversion serial information list including pieces of conversion serial information, each of which is converted from the serial information according to a plurality of different predetermined rules; a central processing unit, CPU, configured to provide the conversion serial information list to the controller of the image forming device for verifying the consumable unit , wherein the conversion serial information list further includes a trigger bit to designate at least one piece of conversion serial information, from among the pieces of conversion serial information, to be used in verifying, and wherein the memory is configured to store a detection list including information on nongenuine CRUM chips and version information of the detection list stored in the memory , to check whether a detection list prestored in the image forming device needs to be updated.
A method for determining beam settings for beam management, the method being performed by a first radio transceiver device , the method comprising: obtaining (S102) information about expected distribution of second radio transceiver devices in a network coverage region of the first radio transceiver device in which the beam management is to be performed; and determining (S104) beam settings for a first set of beams and a second set of beams , wherein the first set of beams and the second set of beams are to be used for the beam management, wherein there are fewer beams in the first set of beams than in the second set of beams , wherein the beams in the first set of beams collectively cover all beams in the second set of beams , wherein for at least two of the beams in the first set of beams the respective numbers of beams in the second set of beams covered by each of the at least two beams in the first set of beams are unequal, and wherein the beam settings for the beams in the first set of beams are determined according to the obtained information. obtaining (S102) information about expected distribution of second radio transceiver devices in a network coverage region of the first radio transceiver device in which the beam management is to be performed; and determining (S104) beam settings for a first set of beams and a second set of beams , wherein the first set of beams and the second set of beams are to be used for the beam management, wherein there are fewer beams in the first set of beams than in the second set of beams , wherein the beams in the first set of beams collectively cover all beams in the second set of beams , wherein for at least two of the beams in the first set of beams the respective numbers of beams in the second set of beams covered by each of the at least two beams in the first set of beams are unequal, and wherein the beam settings for the beams in the first set of beams are determined according to the obtained information.
A catalyst composition comprising a heterobimetallic zeolite characterized by a chabazite structure loaded with copper ions and at least one trivalent metal ion other than Al 3+ , wherein said zeolite is CuFe-SSZ-13 and wherein said catalyst composition decreases NO x emissions in diesel exhaust.
A method of determining a user cadence ( C ) from an inertial signal ( S i ) generated by an inertial sensor and comprising one or more frequency components, the method comprising: determining a spectral signal based on a frequency transform of the inertial signal ( S i ) generated by the inertial sensor responsive to at least one of head movement of a user and limb movement of the user, said inertial sensor secured to at least one body part of the user; determining a peak frequency ( f p ) of the spectral signal, said peak frequency ( f p ) corresponding to a frequency component of the inertial signal ( S i ) having a largest amplitude; comparing the peak frequency ( f p ) to one or more frequency thresholds; characterized by : determining at least one frequency threshold of the one or more frequency thresholds based on a previous user cadence ( C p ) of the user; determining the user cadence ( C ) based on the peak frequency ( f p ) and the one or more frequency threshold comparisons, said user cadence ( C ) representing at least one of a movement of a head of the user and a movement of one or more limbs of the user; and outputting the determined user cadence ( C ) by a cadence circuit 100. determining a spectral signal based on a frequency transform of the inertial signal ( S i ) generated by the inertial sensor responsive to at least one of head movement of a user and limb movement of the user, said inertial sensor secured to at least one body part of the user; determining a peak frequency ( f p ) of the spectral signal, said peak frequency ( f p ) corresponding to a frequency component of the inertial signal ( S i ) having a largest amplitude; comparing the peak frequency ( f p ) to one or more frequency thresholds; characterized by : determining at least one frequency threshold of the one or more frequency thresholds based on a previous user cadence ( C p ) of the user; determining the user cadence ( C ) based on the peak frequency ( f p ) and the one or more frequency threshold comparisons, said user cadence ( C ) representing at least one of a movement of a head of the user and a movement of one or more limbs of the user; and outputting the determined user cadence ( C ) by a cadence circuit 100. determining at least one frequency threshold of the one or more frequency thresholds based on a previous user cadence ( C p ) of the user; determining the user cadence ( C ) based on the peak frequency ( f p ) and the one or more frequency threshold comparisons, said user cadence ( C ) representing at least one of a movement of a head of the user and a movement of one or more limbs of the user; and outputting the determined user cadence ( C ) by a cadence circuit 100.
A laundry treating apparatus comprising: a drum configured to rotate about a rotation axis (O) extending in a front-rear direction; and a lifter (6 1a, 61b, 62a, 62b, 63a, and 63b) disposed on an inner circumferential surface of the drum (5 1) and configured to revolve about the rotation axis (O) when the drum rotates, wherein the lifter (61a, 61b, 62a, 62b, 63a, and 63b) comprises: a lifter upper plate portion spaced apart from the inner circumferential surface of the drum ; and a lifter sidewall portion made of metal and having a lower end adjoining the inner circumferential surface of the drum (5 1) and an upper end connected to the lifter upper plate portion; and characterised in that the lifter sidewall portion has a washing protrusion plastically processed to protrude from an outer surface thereof, and the washing protrusion is formed as a closed curve along an outer circumference of the lifter. a drum configured to rotate about a rotation axis (O) extending in a front-rear direction; and a lifter (6 1a, 61b, 62a, 62b, 63a, and 63b) disposed on an inner circumferential surface of the drum (5 1) and configured to revolve about the rotation axis (O) when the drum rotates, wherein the lifter (61a, 61b, 62a, 62b, 63a, and 63b) comprises: a lifter upper plate portion spaced apart from the inner circumferential surface of the drum ; and a lifter sidewall portion made of metal and having a lower end adjoining the inner circumferential surface of the drum (5 1) and an upper end connected to the lifter upper plate portion; and characterised in that the lifter sidewall portion has a washing protrusion plastically processed to protrude from an outer surface thereof, and the washing protrusion is formed as a closed curve along an outer circumference of the lifter. a lifter upper plate portion spaced apart from the inner circumferential surface of the drum ; and a lifter sidewall portion made of metal and having a lower end adjoining the inner circumferential surface of the drum (5 1) and an upper end connected to the lifter upper plate portion; and characterised in that the lifter sidewall portion has a washing protrusion plastically processed to protrude from an outer surface thereof, and the washing protrusion is formed as a closed curve along an outer circumference of the lifter.
A system for calculating biomass of crops , the system comprising: a line scan distance sensor to measure a distance of the crops from the sensor at one or more points along a line by illuminating the crops with light at a measurement angle that defines the line and detecting reflected light, and to generate distance data indicative of the distance of the crops from the sensor at the measurement angle at a scanning rate of line scans; and a mover system to move the line scan distance sensor or the crops substantially perpendicular to the distance of the crops from the sensor; characterised in that the system further comprises: a rotary encoder associated with the mover system to generate movement data indicative of a movement of the distance sensor or the crops substantially perpendicular to the distance of the crops from the sensor at an encoder rate that is higher than the scanning rate of line scans from the line scan distance sensor when the mover moves the line scan distance sensor at a moving speed such that multiple encoder pulses are generated between scan lines; a data collector to associate the distance data from the distance sensor with relative positioning data based on the movement data from the rotary encoder and to store the distance data associated with the relative positioning data on a data store; and a processing server configured to calculate, from the distance data, an absolute measure of biomass. a line scan distance sensor to measure a distance of the crops from the sensor at one or more points along a line by illuminating the crops with light at a measurement angle that defines the line and detecting reflected light, and to generate distance data indicative of the distance of the crops from the sensor at the measurement angle at a scanning rate of line scans; and a mover system to move the line scan distance sensor or the crops substantially perpendicular to the distance of the crops from the sensor; a rotary encoder associated with the mover system to generate movement data indicative of a movement of the distance sensor or the crops substantially perpendicular to the distance of the crops from the sensor at an encoder rate that is higher than the scanning rate of line scans from the line scan distance sensor when the mover moves the line scan distance sensor at a moving speed such that multiple encoder pulses are generated between scan lines; a data collector to associate the distance data from the distance sensor with relative positioning data based on the movement data from the rotary encoder and to store the distance data associated with the relative positioning data on a data store; and a processing server configured to calculate, from the distance data, an absolute measure of biomass.