mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication at a user equipment (115-b), UE, comprising: receiving a scheduling configuration for a first uplink communication to be transmitted on a first uplink carrier, a second uplink communication to be transmitted on a second uplink carrier after the first uplink communication, and a third uplink communication to be transmitted on a third uplink carrier after the second uplink communication, wherein a timing relationship between the first uplink communication and the third uplink communication is in accordance with a consecutive uplink switching rule, wherein the consecutive uplink switching rule limits a number of consecutive uplink switches that occur within a slot of the first uplink carrier, the second uplink carrier, or the third uplink carrier based at least in part on a numerology associated with a respective uplink carrier and/or wherein the consecutive uplink switching rule provides a minimum gap between the first uplink communication and the third uplink communication; and transmitting at least one of the first uplink communication, the second uplink communication, or the third uplink communication, or a combination thereof based at least in part on the scheduling configuration. receiving a scheduling configuration for a first uplink communication to be transmitted on a first uplink carrier, a second uplink communication to be transmitted on a second uplink carrier after the first uplink communication, and a third uplink communication to be transmitted on a third uplink carrier after the second uplink communication, wherein a timing relationship between the first uplink communication and the third uplink communication is in accordance with a consecutive uplink switching rule, wherein the consecutive uplink switching rule limits a number of consecutive uplink switches that occur within a slot of the first uplink carrier, the second uplink carrier, or the third uplink carrier based at least in part on a numerology associated with a respective uplink carrier and/or wherein the consecutive uplink switching rule provides a minimum gap between the first uplink communication and the third uplink communication; and transmitting at least one of the first uplink communication, the second uplink communication, or the third uplink communication, or a combination thereof based at least in part on the scheduling configuration.
A dental restorative composition comprising: a polymerizable monomer; a polymerization initiator; an inorganic filler having an average particle diameter of 0.1 to 1 μm; and an organic-inorganic composite filler, wherein the organic-inorganic composite filler comprises an organic-inorganic composite filler having an average particle diameter of 1 μm or more and less than 10 μm, and an organic-inorganic composite filler having an average particle diameter of 10 to 50 μm, an absolute value of a difference between a refractive index (Cd) of the inorganic filler and a refractive index (Ad) of a polymer of the polymerizable monomer is 0.01 or less, an absolute value of a difference between the refractive index (Ad) and one of a refractive index (Dd) of the organic-inorganic composite filler and a refractive index (Ed) of the organic-inorganic composite filler is 0.01 or less, and an absolute value of a difference between the refractive index (Ad) and the other of the refractive index (Dd) and the refractive index (Ed) is 0.03 or more. a polymerizable monomer; a polymerization initiator; an inorganic filler having an average particle diameter of 0.1 to 1 μm; and an organic-inorganic composite filler, wherein the organic-inorganic composite filler comprises an organic-inorganic composite filler having an average particle diameter of 1 μm or more and less than 10 μm, and an organic-inorganic composite filler having an average particle diameter of 10 to 50 μm, an organic-inorganic composite filler having an average particle diameter of 1 μm or more and less than 10 μm, and an organic-inorganic composite filler having an average particle diameter of 10 to 50 μm, an absolute value of a difference between a refractive index (Cd) of the inorganic filler and a refractive index (Ad) of a polymer of the polymerizable monomer is 0.01 or less, an absolute value of a difference between the refractive index (Ad) and one of a refractive index (Dd) of the organic-inorganic composite filler and a refractive index (Ed) of the organic-inorganic composite filler is 0.01 or less, and an absolute value of a difference between the refractive index (Ad) and the other of the refractive index (Dd) and the refractive index (Ed) is 0.03 or more.
An epilator comprising at least one plucking cylinder for contacting the skin of a user and for removing hair from the skin of the user, a drive unit (3, 4) for driving the at least one plucking cylinder, a control unit (8, 17) for controlling movement of the at least one plucking cylinder, and at least one detector (6, 7, 9, 15, 16) for detecting approximation of the at least one plucking cylinder to the skin and/or contact of the at least one plucking cylinder with the skin, wherein the detector (6, 7, 9, 15, 16) is coupled to the control unit (8, 17) for transmitting a signal to the control unit (8, 17) and wherein the control unit (8, 17) is designed and arranged such that it controls actuation of the drive unit (3, 4) and/or of the at least one plucking cylinder depending on the signal received from the detector (6, 7, 9, 15, 16), characterized in that the control unit (8, 17) comprises at least one regulator for tuning the speed of the drive unit (3, 4) and in that the detector comprises a sensor measuring the resistance to actuation of the at least one plucking cylinder and/or the current consumption of the drive unit (3, 4), wherein the control unit (8, 17) is designed and arranged such that the at least one regulator increases the speed of the drive unit (3, 4) upon detection of an increased resistance and/or current consumption by the sensor and that the at least one regulator decreases the speed of the drive unit (3, 4) upon detection of a decreased resistance and/or current consumption by the sensor.
A method for producing a phenylalanine derivative having a quinazolinedione ring of the following formula, comprising the steps of reacting an acylphenylalanine derivative of formula: or a salt of such a derivative with an acid, wherein R1 represents an optionally substituted phenyl group or an optionally substituted pyridyl group, and R2 represents an optionally substituted alkyl group with a carbonyl group-introducing reagent selected from: chloroformates; 1,1'-carbonyldiimidazole and 1,1'-carbonyldi(1,2,4-triazole); N,N-disuccinimidyl carbonate; and phosgene and triphosgene; and an anthranilic acid derivative of formula: or a salt of such a derivative and an acid, wherein R3 represents a dialkylamino group, a monoalkylamino group, an amino group, a hydrogen atom, a halogen atom, an alkyl group, perfluoroalkyl group, an alkoxy group, a nitro group, an alkyl group substituted with a dialkylamino group, an alkyl group substituted with a monoalkylamino group, an alkyl group substituted with an amino group, an alkyl group substituted with an alkenyl group, an alkyl group substituted with an alkynyl group, a carboxyl group, an alkoxycarbonyl group, an alkylthio group or an arylthio group; R4 represents a hydrogen atom, an alkyl group or an optionally substituted benzyl group; and R5 represents an alkyl group or an alkylcarbonyl group; to form an asymmetric urea intermediate of formula wherein R1 to R5 arec as defined above; making the asymmetric urea intermediate into a quinazolinedione compound of formula in the presence of a base: wherein R1 to R4 are as defined above; and when R4 represents a hydrogen atom in the obtained quinazolinedione compound of the formula, N-alkylating a quinazolinedione ring amide of the quinazolinedione compound with an N-alkylation agent to form the phenylalanine derivative having a quinazolinedione skeleton of formula: wherein R1 to R3 are as defined above, and R4 represents an alkyl group or an optionnally substituted benzyl group.
A method for manufacturing breakable capsules that are useful for incorporating into a tobacco product, the method comprising: forming a plurality of droplets comprising a core composition and a coating composition, the coating composition comprising a material that gelates in contact with a multivalent ion; introducing the plurality of droplets in a first aqueous solution having a first concentration of a first multivalent ion such that the coating composition of the plurality of droplets gelates to form a plurality of raw capsules, said first concentration being less than 10 weight % and maintaining the droplets in the first solution for less than 1 hour; and introducing the plurality of raw capsules in a second aqueous solution having a second concentration of a second multivalent ion, wherein the second concentration is higher than the first concentration, such that the coating composition of the plurality of raw capsules hardens to form a plurality of breakable capsules, said second concentration being more than 5 weight % and maintaining the raw capsules in the second solution for more than 1 hour. forming a plurality of droplets comprising a core composition and a coating composition, the coating composition comprising a material that gelates in contact with a multivalent ion; introducing the plurality of droplets in a first aqueous solution having a first concentration of a first multivalent ion such that the coating composition of the plurality of droplets gelates to form a plurality of raw capsules, said first concentration being less than 10 weight % and maintaining the droplets in the first solution for less than 1 hour; and introducing the plurality of raw capsules in a second aqueous solution having a second concentration of a second multivalent ion, wherein the second concentration is higher than the first concentration, such that the coating composition of the plurality of raw capsules hardens to form a plurality of breakable capsules, said second concentration being more than 5 weight % and maintaining the raw capsules in the second solution for more than 1 hour.
Jet regulator comprising a jet regulator housing which has a rectangular cross-section and can be inserted into the water outflow of a sanitary outflow fitting, wherein the jet regulator housing is rounded in the corner regions of its rectangular shape, and wherein the jet regulator housing bears at least one seal at its housing outer periphery in order to provide a seal between the inner periphery of the water outflow and the outer periphery of the jet regulator housing, characterised in that the at least one seal protrudes with at least one of its corner regions in a rectangular shape beyond the associated rounded corner region of the jet regulator housing, so that the outer contour of the seal forming this rectangular shape follows the imaginary extensions of the longitudinal and transverse sides (9, 10) of the rectangular jet regulator housing, which sides adjoin one another in the corner region.
A sterile liquid formulation that has an absolute viscosity of 10 cP or less comprising: (a) an anti-sclerostin immunoglobulin at a concentration of at least 70 mg/mL; (b) a calcium salt at a concentration ranging from 5 mM to 20 mM and (c) a total concentration of acetate ranging from 10 mM to 90 mM, wherein the immunoglobulin comprises amino acid sequences of SEQ ID NO: 86 and SEQ ID NO: 84.
A method for supplying a gas turbine plant, comprising the steps of: supplying a gas to gas nozzles of a combustion chamber of the gas turbine; supplying a liquid fuel to premix nozzles of the gas turbine through a premix supply line; and switching between the step of supplying a gas and the step of supplying a liquid fuel; wherein said switching, when switching from gas fuel to liquid fuel, comprises the step of supplying a water flow rate (Q A) to the premix nozzles through the premix supply line for a cooling time (I C) in absence of the liquid fuel, before supplying the liquid fuel; characterized in that said switching further comprises the steps of: after the expiring of said cooling time (I C) adding a liquid fuel flow (Q C) to the water flow rate (Q A); and removing at least a portion of the water flow rate (Q A), while the liquid fuel flow (Q A) continues to be supplied. supplying a gas to gas nozzles of a combustion chamber of the gas turbine; supplying a liquid fuel to premix nozzles of the gas turbine through a premix supply line; and switching between the step of supplying a gas and the step of supplying a liquid fuel; wherein said switching, when switching from gas fuel to liquid fuel, comprises the step of supplying a water flow rate (Q A) to the premix nozzles through the premix supply line for a cooling time (I C) in absence of the liquid fuel, before supplying the liquid fuel; characterized in that said switching further comprises the steps of: after the expiring of said cooling time (I C) adding a liquid fuel flow (Q C) to the water flow rate (Q A); and removing at least a portion of the water flow rate (Q A), while the liquid fuel flow (Q A) continues to be supplied. after the expiring of said cooling time (I C) adding a liquid fuel flow (Q C) to the water flow rate (Q A); and removing at least a portion of the water flow rate (Q A), while the liquid fuel flow (Q A) continues to be supplied.
A thrust-reverser assembly for a jet engine, wherein the thrust-reverser assembly defines a forward-thrust configuration and a reverse-thrust configuration, the assembly comprising: a bullnose fairing that defines a portion of a reverser duct; and an active flow-control device located to energize a boundary layer fluid flow within a boundary layer adjacent to the bullnose fairing to resist separation of the boundary layer from the bullnose fairing when the thrust-reverser assembly is in the reverse-thrust configuration, wherein the active flow-control device is configured to inject a flow-control fluid stream into the boundary layer - through an injection orifice that is located at a cordwise location along the length of the bullnose fairing or - through a plurality of injection orifices that are located in a spaced apart manner around a radius of curvature of the bullnose fairing. a bullnose fairing that defines a portion of a reverser duct; and an active flow-control device located to energize a boundary layer fluid flow within a boundary layer adjacent to the bullnose fairing to resist separation of the boundary layer from the bullnose fairing when the thrust-reverser assembly is in the reverse-thrust configuration, wherein the active flow-control device is configured to inject a flow-control fluid stream into the boundary layer - through an injection orifice that is located at a cordwise location along the length of the bullnose fairing or - through a plurality of injection orifices that are located in a spaced apart manner around a radius of curvature of the bullnose fairing. - through an injection orifice that is located at a cordwise location along the length of the bullnose fairing or - through a plurality of injection orifices that are located in a spaced apart manner around a radius of curvature of the bullnose fairing.
A group for allowing free orientation of a sphere with respect to outside force fields using the physical phenomenon of permanent inhibition of coalescence and to be used in experiments in microgravity in space environment; said group comprising a support structure, a sphere, two locking elements acting from opposite sides on the sphere and useful to keep the sphere in a right position during a non-operational phase of the group, at least four drop supports located symmetrically around the sphere and able to form drops and to keep them at a desired temperature, and an isolation sealed structure useful to isolate the above devices from the surrounding and to prevent dust deposition on the sphere surface and the four realized drops; said group being characterized by comprising a cooling/filtering device useful to inject cool/filtered gas inside the isolation structure in order to keep the sphere at a temperature lower than that of the drops; said cooling/filtering device comprising two inlet pipes facing into said isolation sealed structure by two respective inlet windows placed opposite one another the sphere in order to prevent misalignment of the sphere, and two outlet pipes each of them faces into the isolation sealed structure by a respective outlet window placed perpendicular to each of the inlet windows; said locking elements and said drop supports comprising motor/encoder assembly (12, 17) able to move a respective piston (13, 18) in direction of the sphere.
A method for generating a time lapse difference image, comprising: sorting a first seismic data set acquired using a first seismic survey into one or more common mid-point gathers based on one or more CMPs; sorting a second seismic data set acquired using a second seismic survey into one or more CMP gathers based on the CMPs; estimating a trace in each CMP gather of the first seismic survey at each CMP offset coordinate of the second seismic survey; estimating a trace in each CMP gather of the second seismic survey at each CMP offset coordinate of the first seismic survey; and calculating trace differences between the first seismic survey data set and the second seismic survey data set at each trace coordinate of the first seismic survey data set and the second seismic survey data set; wherein calculating the trace differences comprises calculating trace differences between the first seismic survey CMP gathers and the second seismic survey CMP gathers at each CMP offset coordinate of the first seismic survey and the second seismic survey. sorting a first seismic data set acquired using a first seismic survey into one or more common mid-point gathers based on one or more CMPs; sorting a second seismic data set acquired using a second seismic survey into one or more CMP gathers based on the CMPs; estimating a trace in each CMP gather of the first seismic survey at each CMP offset coordinate of the second seismic survey; estimating a trace in each CMP gather of the second seismic survey at each CMP offset coordinate of the first seismic survey; and calculating trace differences between the first seismic survey data set and the second seismic survey data set at each trace coordinate of the first seismic survey data set and the second seismic survey data set; wherein calculating the trace differences comprises calculating trace differences between the first seismic survey CMP gathers and the second seismic survey CMP gathers at each CMP offset coordinate of the first seismic survey and the second seismic survey.
An isolated eukaryotic host cell for recombinant production of a product of interest, wherein the genome of the eukaryotic cell is altered so that the effect of protein FAM60A is impaired in said cell because functional expression of gene FAM60A is reduced or eliminated by gene knock-out, gene mutation, gene deletion, gene silencing or a combination of any the foregoing, wherein gene mutation is selected from one or more frameshift mutations in the coding sequence, one or more introduced stop codons in the coding sequence, and/or one or more altered splicing sites, wherein gene silencing is achieved by antisense molecules generated within the cell by expression from an antisense construct that comprises the antisense strand as the transcribed strand, or is achieved by molecules that mediate RNA interference, wherein an RNA interference inducing compound is expressed by a vector that is stably transfected into the cell, wherein the FAM60A protein shares at least 75% identity to one or more of the amino acid sequences shown in SEQ ID NO: 1 to 8, and wherein said cell comprises integrated into its genome at least one heterologous polynucleotide encoding the product of interest comprised in an expression cassette, wherein the product of interest is a polypeptide selected from a therapeutic polypeptide and a diagnostic polypeptide. wherein gene mutation is selected from one or more frameshift mutations in the coding sequence, one or more introduced stop codons in the coding sequence, and/or one or more altered splicing sites, wherein gene silencing is achieved by antisense molecules generated within the cell by expression from an antisense construct that comprises the antisense strand as the transcribed strand, or is achieved by molecules that mediate RNA interference, wherein an RNA interference inducing compound is expressed by a vector that is stably transfected into the cell,
A disc clearing machine for making seed tracts for the forest seeding of coniferous species, with • an equipment carrier having an equipment carrier longitudinal axis, • a support axle with wheels (4, 5) on the two ends, which is connected to the front end of the equipment carrier and directed crosswise to the equipment carrier longitudinal axis, • first rotary bearing elements on the equipment carrier on both sides of the equipment carrier longitudinal axis, each comprising rotary bearing axles (27, 28) directed forwards at acute angles with respect to the equipment carrier longitudinal axis, • two shell-like domed discs (23, 24), each one comprising a central second rotary bearing element which is bearing mounted on a first rotary bearing element, wherein the two discs (23, 24) are arranged at different sides of the equipment carrier longitudinal axis and face each other with their bulbous sides, • a coupling means on the support axle and/or on the equipment carrier for coupling to a traction source, characterized in that • the rotary bearing axles (27, 28) are inclined to the horizontal at an acute angle, so that both discs (23, 24) at the lowest point of their circumference are closer to each other than at the highest point of their circumference, • wherein the machine is supported on the ground at the rear side only by the discs (23, 24), • and the discs (23, 24) are arranged such that two U-shaped grooves (48, 49) are formed with a middle track of vegetated soil there between, and • a means for bearing at least one weight on the equipment carrier. • an equipment carrier having an equipment carrier longitudinal axis, • a support axle with wheels (4, 5) on the two ends, which is connected to the front end of the equipment carrier and directed crosswise to the equipment carrier longitudinal axis, • first rotary bearing elements on the equipment carrier on both sides of the equipment carrier longitudinal axis, each comprising rotary bearing axles (27, 28) directed forwards at acute angles with respect to the equipment carrier longitudinal axis, • two shell-like domed discs (23, 24), each one comprising a central second rotary bearing element which is bearing mounted on a first rotary bearing element, wherein the two discs (23, 24) are arranged at different sides of the equipment carrier longitudinal axis and face each other with their bulbous sides, • a coupling means on the support axle and/or on the equipment carrier for coupling to a traction source, • the rotary bearing axles (27, 28) are inclined to the horizontal at an acute angle, so that both discs (23, 24) at the lowest point of their circumference are closer to each other than at the highest point of their circumference, • wherein the machine is supported on the ground at the rear side only by the discs (23, 24), • and the discs (23, 24) are arranged such that two U-shaped grooves (48, 49) are formed with a middle track of vegetated soil there between, and • a means for bearing at least one weight on the equipment carrier.