mhurhangee/patent-ind-claim-en huggingface dataset:
A specimen treatment system comprising: an automatic analyzer that analyzes a specimen; a pretreatment device that performs a pretreatment on the specimen; and a conveyance passage that conveys a specimen container that houses the specimen between the automatic analyzer and the pretreatment device, in the automatic analyzer, or in the pretreatment device, wherein the specimen treatment system further includes a single sensor that is disposed to be orthogonal to a longitudinal direction of the specimen container and that detects whether the specimen container is uncapped, characterized in that the sensor includes a detection coil that emits a high frequency magnetic field and a detection circuit that detects a state change of the high frequency magnetic field and detects whether the specimen container is capped with a seal plug based on the state change detected by the detection circuit, the detection coil emits the high frequency magnetic field in a range of different heights of the specimen container , the sensor further includes a shield that covers at least a portion of an outer peripheral surface of the detection coil , and the range in which the high frequency magnetic field is emitted is adjustable by changing a relative position between the detection coil and the shield . an automatic analyzer that analyzes a specimen; a pretreatment device that performs a pretreatment on the specimen; and a conveyance passage that conveys a specimen container that houses the specimen between the automatic analyzer and the pretreatment device, in the automatic analyzer, or in the pretreatment device, wherein the specimen treatment system further includes a single sensor that is disposed to be orthogonal to a longitudinal direction of the specimen container and that detects whether the specimen container is uncapped, characterized in that the sensor includes a detection coil that emits a high frequency magnetic field and a detection circuit that detects a state change of the high frequency magnetic field and detects whether the specimen container is capped with a seal plug based on the state change detected by the detection circuit, the detection coil emits the high frequency magnetic field in a range of different heights of the specimen container , the sensor further includes a shield that covers at least a portion of an outer peripheral surface of the detection coil , and the range in which the high frequency magnetic field is emitted is adjustable by changing a relative position between the detection coil and the shield .
An access authentication method, comprising: determining , by a cellular network access device, a key for a non-cellular network access device, wherein the key is used to perform security authentication between user equipment, UE, and the non-cellular network access device, and a manner of determining a key by the cellular network access device is the same as a manner of determining a key by the UE; and sending , by the cellular network access device, the determined key to the non-cellular network access device; wherein the key is derived from a key of the cellular network access device, and a derivation rule used to derive the key is the same as a derivation rule that is used to derive a key by the UE. determining , by a cellular network access device, a key for a non-cellular network access device, wherein the key is used to perform security authentication between user equipment, UE, and the non-cellular network access device, and a manner of determining a key by the cellular network access device is the same as a manner of determining a key by the UE; and sending , by the cellular network access device, the determined key to the non-cellular network access device; wherein the key is derived from a key of the cellular network access device, and a derivation rule used to derive the key is the same as a derivation rule that is used to derive a key by the UE.
A method for producing a quartz glass body, comprising the following method steps: i) A) providing and introducing at least one bulk material via a solids feed into a furnace comprising a crucible, wherein silicon dioxide granulate from pyrogenically produced silicon dioxide powder is used as the bulk material, wherein the silicon dioxide granulate has a BET surface area in a range of from 20 to 50 m 2 /g; B) providing a gas; ii) forming a glass melt from the bulk material in the crucible; iii) forming a quartz glass body from at least part of the glass melt, wherein at least some of the gas is supplied to the crucible through at least one gas inlet and discharged through at least one gas outlet, wherein the at least one gas inlet is arranged below the at least one solids feed, wherein the gas outlet is arranged at the same height as or above the outlet of the solids feed; wherein the gas is supplied through a gas inlet in the gas space of the crucible; where the glass melt is located in the lower region of the crucible, wherein the crucible is heated by means of electrical heating elements, in particular by means of a resistive or an inductive heater. i) A) providing and introducing at least one bulk material via a solids feed into a furnace comprising a crucible, wherein silicon dioxide granulate from pyrogenically produced silicon dioxide powder is used as the bulk material, wherein the silicon dioxide granulate has a BET surface area in a range of from 20 to 50 m 2 /g; B) providing a gas; A) providing and introducing at least one bulk material via a solids feed into a furnace comprising a crucible, wherein silicon dioxide granulate from pyrogenically produced silicon dioxide powder is used as the bulk material, wherein the silicon dioxide granulate has a BET surface area in a range of from 20 to 50 m 2 /g; B) providing a gas; ii) forming a glass melt from the bulk material in the crucible; iii) forming a quartz glass body from at least part of the glass melt, wherein at least some of the gas is supplied to the crucible through at least one gas inlet and discharged through at least one gas outlet, wherein the at least one gas inlet is arranged below the at least one solids feed, wherein the gas outlet is arranged at the same height as or above the outlet of the solids feed; wherein the gas is supplied through a gas inlet in the gas space of the crucible; where the glass melt is located in the lower region of the crucible, wherein the crucible is heated by means of electrical heating elements, in particular by means of a resistive or an inductive heater.
A radial artery catheter introducer sheath for introducing interventional catheters into the vasculature comprising: a main tubular shaft comprising a distal tip , a proximal end , a structural layer , an inner layer , and an outer layer ; wherein the structural layer comprises one or more metallic helically wound multi-filar wires with a wall thickness of 0.038 mm to 0.25 mm (0.0015 inches to 0.010 inches), and the structural layer is heat processed to retain a curved distal end, the distal end being curved to conform to a portion of a patient's anatomy; wherein the outer layer comprises an outer polymer jacket that at least partially covers the structural layer and the outer polymer jacket is coupled to the structural layer, the outer polymer jacket having a thickness of 0.025 mm to 0.25 mm (0.001 inches to 0.010 inches); wherein the inner layer comprises an inner polymer jacket that at least partially covers the structural layer and the inner polymer jacket is coupled to the structural layer; wherein the inner polymer jacket has a thickness of 0.025 mm to 0.25 mm (0.001 inches to 0.010 inches); and wherein the distal tip comprises an outer polymer and the distal tip has a length of 1.27 mm to 7.62 mm (0.05 inches and 0.30 inches). a main tubular shaft comprising a distal tip , a proximal end , a structural layer , an inner layer , and an outer layer ; wherein the structural layer comprises one or more metallic helically wound multi-filar wires with a wall thickness of 0.038 mm to 0.25 mm (0.0015 inches to 0.010 inches), and the structural layer is heat processed to retain a curved distal end, the distal end being curved to conform to a portion of a patient's anatomy; wherein the outer layer comprises an outer polymer jacket that at least partially covers the structural layer and the outer polymer jacket is coupled to the structural layer, the outer polymer jacket having a thickness of 0.025 mm to 0.25 mm (0.001 inches to 0.010 inches); wherein the inner layer comprises an inner polymer jacket that at least partially covers the structural layer and the inner polymer jacket is coupled to the structural layer; wherein the inner polymer jacket has a thickness of 0.025 mm to 0.25 mm (0.001 inches to 0.010 inches); and wherein the distal tip comprises an outer polymer and the distal tip has a length of 1.27 mm to 7.62 mm (0.05 inches and 0.30 inches).
A lubricant composition comprising: a) an oil of lubricating viscosity; and b) a secondary amine having a first α-carbon and a second α-carbon bonded to the amine nitrogen, wherein said first α-carbon comprises two aromatic substituents and said second α-carbon comprises one aromatic substituent and one hydrocarbyl substituent wherein said hydrocarbyl substituent is selected from C 1 to C 24 alkyl, or wherein said first α-carbon comprises two aromatic substituents and said second α-carbon comprises two hydrocarbyl substituents and no aromatic substituent, wherein said hydrocarbyl substituent is selected from C 1 to C 24 alkyl, or wherein said first α-carbon comprises one aromatic substituent and one hydrocarbyl substituent, and said second α-carbon comprises one aromatic substituent and no hydrocarbyl substituent, wherein said hydrocarbyl substituent is selected from C 1 to C 24 alkyl, or wherein said first α-carbon comprises one aromatic substituent and one hydrocarbyl substituent and said second α-carbon comprises one aromatic substituent and one hydrocarbyl substituent, wherein said hydrocarbyl substituent is selected from C 1 to C 24 alkyl, and wherein at least one of said aromatic substituents is substituted with a substituent selected from C 1 -C 10 alkyl, C 2 -C 10 alkenyl, amino, hydroxyl, hydroxy substituted C 1 -C 10 alkyl, C 1 -C 10 alkoxy, and combinations thereof. a) an oil of lubricating viscosity; and b) a secondary amine having a first α-carbon and a second α-carbon bonded to the amine nitrogen, wherein said first α-carbon comprises two aromatic substituents and said second α-carbon comprises one aromatic substituent and one hydrocarbyl substituent wherein said hydrocarbyl substituent is selected from C 1 to C 24 alkyl, or wherein said first α-carbon comprises two aromatic substituents and said second α-carbon comprises two hydrocarbyl substituents and no aromatic substituent, wherein said hydrocarbyl substituent is selected from C 1 to C 24 alkyl, or wherein said first α-carbon comprises one aromatic substituent and one hydrocarbyl substituent, and said second α-carbon comprises one aromatic substituent and no hydrocarbyl substituent, wherein said hydrocarbyl substituent is selected from C 1 to C 24 alkyl, or wherein said first α-carbon comprises one aromatic substituent and one hydrocarbyl substituent and said second α-carbon comprises one aromatic substituent and one hydrocarbyl substituent, wherein said hydrocarbyl substituent is selected from C 1 to C 24 alkyl, and wherein at least one of said aromatic substituents is substituted with a substituent selected from C 1 -C 10 alkyl, C 2 -C 10 alkenyl, amino, hydroxyl, hydroxy substituted C 1 -C 10 alkyl, C 1 -C 10 alkoxy, and combinations thereof.
A method for assembling a nacelle assembly , said method comprising: providing an outer structure that extends at least between a highlight defined by a forward end of the outer structure and a point defined by a maximum diameter of the nacelle assembly ; coupling a structural foam to an inner surface of an outer aft section of the outer structure , the structural foam being oriented and positioned to facilitate absorbing any aftward forces induced to an outer surface of the outer structure ; coupling the outer structure to an inner barrel and a fan case ; providing a stiffener coupled to the inner surface of the outer aft section , the stiffener being oriented either circumferentially and/or longitudinally to facilitate structurally supporting the outer aft section ; providing a first bulkhead coupled to and extending between the outer aft section and the inner barrel ; providing a second bulkhead coupled to and extending between the outer aft section and an inner aft section of the outer structure ; and providing a third bulkhead coupled to and extending between the outer aft section and the fan case , wherein the first, second and third bulkheads are configured to facilitate absorbing any aftward forces induced to the outer surface of the outer structure . providing an outer structure that extends at least between a highlight defined by a forward end of the outer structure and a point defined by a maximum diameter of the nacelle assembly ; coupling a structural foam to an inner surface of an outer aft section of the outer structure , the structural foam being oriented and positioned to facilitate absorbing any aftward forces induced to an outer surface of the outer structure ; coupling the outer structure to an inner barrel and a fan case ; providing a stiffener coupled to the inner surface of the outer aft section , the stiffener being oriented either circumferentially and/or longitudinally to facilitate structurally supporting the outer aft section ; providing a first bulkhead coupled to and extending between the outer aft section and the inner barrel ; providing a second bulkhead coupled to and extending between the outer aft section and an inner aft section of the outer structure ; and providing a third bulkhead coupled to and extending between the outer aft section and the fan case , wherein the first, second and third bulkheads are configured to facilitate absorbing any aftward forces induced to the outer surface of the outer structure .
A medical device for disrupting material in a body vessel, the medical device comprising: a body comprising a first end and extending to a second end, the body comprising an inner surface and an outer surface opposite the inner surface and defining a longitudinal axis (A) therethrough, the body comprising a first tubular portion comprising the first end, a plurality of arms , and a second tubular portion comprising the second end and being axially displaced from the first tubular portion, the plurality of arms being disposed between and connected to the first tubular portion and the second tubular portion, each of the plurality of arms being formed longitudinally and comprising: an outer face continuous with the outer surface, an inner face continuous with the inner surface, a first blade , and a second blade opposite the first blade; each of the first blade and the second blade being disposed between the outer face and the inner face, the first blade being sharper than the second blade; and each of the plurality of arms being arranged such that each first blade is in a same relative orientation in a circumferential direction. an outer face continuous with the outer surface, an inner face continuous with the inner surface, a first blade , and a second blade opposite the first blade; each of the first blade and the second blade being disposed between the outer face and the inner face, the first blade being sharper than the second blade; and each of the plurality of arms being arranged such that each first blade is in a same relative orientation in a circumferential direction.
A method for detecting ammonia comprising supplying a sample gas to a sensor chamber storing a nanomechanical sensor that detects a stress or a displacement using poly(methyl vinyl ether-alt-maleic anhydride) as a material of a receptor layer, the sample gas having a possibility to contain ammonia, and detecting presence or absence of ammonia or a content of ammonia in the sample gas based on an output signal from the nanomechanical sensor by reading the output signal using a measurement terminal connected to the sensor chamber , wherein the sample gas is a humidified sample gas with controlled relative humidity, the humidified sample gas being obtained by adding water vapor to the sample gas. supplying a sample gas to a sensor chamber storing a nanomechanical sensor that detects a stress or a displacement using poly(methyl vinyl ether-alt-maleic anhydride) as a material of a receptor layer, the sample gas having a possibility to contain ammonia, and detecting presence or absence of ammonia or a content of ammonia in the sample gas based on an output signal from the nanomechanical sensor by reading the output signal using a measurement terminal connected to the sensor chamber , wherein the sample gas is a humidified sample gas with controlled relative humidity, the humidified sample gas being obtained by adding water vapor to the sample gas.
A Highly Polymorphic and Modular Extragenic (H.P.M.E.) marker, said H.P.M.E. being a microbial genome nucleotide sequence having a length of less than or equal to 2000bp, and said HPME comprising two genetic elements, at least one of which is a predicted Open Reading Frame coding for a protein, a hypothetical protein, or a pseudogene, wherein said two genetic elements are divided by a noncoding nucleotide sequence corresponding to a promoter region, wherein said H.P.M.E. marker allows the identification and quantification of microorganisms and wherein said two genetic elements are respectively: - the gene mleA coding for the Malolactic enzyme and the gene mleR coding for the mleA transcriptional regulator, belonging to the LysR-type transcriptional regulator family, namely H.P.M.E. mleA-mleR marker, for the identification and quantification of microorganisms within the Lactobacillales order; - the gene tkt coding for the Transketolase enzyme and the gene hrcA coding for the HrcA transcriptional regulator, namely H.P.M.E. tkt-hrcA marker, for the identification and quantification of microorganisms within the Bifidobacterium genus; - the gene grpE coding for the Heat Shock Protein GrpE and the gene hrcA coding for the HrcA transcriptional regulator, namely H.P.M.E. hrcA-grpE marker, for the identification and quantification of microorganisms within the Bacillus genus. - the gene mleA coding for the Malolactic enzyme and the gene mleR coding for the mleA transcriptional regulator, belonging to the LysR-type transcriptional regulator family, namely H.P.M.E. mleA-mleR marker, for the identification and quantification of microorganisms within the Lactobacillales order; - the gene tkt coding for the Transketolase enzyme and the gene hrcA coding for the HrcA transcriptional regulator, namely H.P.M.E. tkt-hrcA marker, for the identification and quantification of microorganisms within the Bifidobacterium genus; - the gene grpE coding for the Heat Shock Protein GrpE and the gene hrcA coding for the HrcA transcriptional regulator, namely H.P.M.E. hrcA-grpE marker, for the identification and quantification of microorganisms within the Bacillus genus.
A method for transmitting a set of conforming data frames in a specialized data network , the method comprising: generating , at a data source , at least one specialized header frame indicating imminent data transfer of the set of conforming data frames , wherein the specialized header frame includes a single bit indicator (SBI) ; providing the at least one specialized header frame to a data destination , by way of the specialized data network ; generating , at the data source , the set of conforming data frames , wherein each of the set of conforming data frames includes the single bit indicator to indicate it as one of the set of conforming data frames ; providing at least a subset (S1, S2, S3, S4, S5) of the conforming data frames to the data destination , by way of the specialized data network ; identifying the subset (S1, S2, S3, S4, S5) of conforming data frames , by the data destination , by way of the single bit indicator of each of the subset of conforming data frames , and storing the subset of the conforming data frames identified; and performing processing operations on the stored subset of conforming data frames . generating , at a data source , at least one specialized header frame indicating imminent data transfer of the set of conforming data frames , wherein the specialized header frame includes a single bit indicator (SBI) ; providing the at least one specialized header frame to a data destination , by way of the specialized data network ; generating , at the data source , the set of conforming data frames , wherein each of the set of conforming data frames includes the single bit indicator to indicate it as one of the set of conforming data frames ; providing at least a subset (S1, S2, S3, S4, S5) of the conforming data frames to the data destination , by way of the specialized data network ; identifying the subset (S1, S2, S3, S4, S5) of conforming data frames , by the data destination , by way of the single bit indicator of each of the subset of conforming data frames , and storing the subset of the conforming data frames identified; and performing processing operations on the stored subset of conforming data frames .