mhurhangee/patent-ind-claim-en huggingface dataset:
A method for removing spent nuclear fuel from a fuel pool comprising the steps of: moving a cask below a penetration of the fuel pool using a transporter while a cover of the penetration is closed; raising the cask off of the transporter using a handling mechanism engaging only upper trunnions of the cask so that the cask self-aligns with the penetration using gravity while the cover of the penetration is closed; wherein the handling mechanism is located at a fixed position below the fuel pool; moving the transporter away from the cask after the cask is raised off of the transporter by the handling mechanism; engaging and sealing the cask to the penetration while the cask is off of the transporter and supported by the handling mechanism; while the cask is sealed to the penetration, opening the cover of the penetration and inserting the spent fuel into the cask; after the spent fuel is inserted into the cask, unsealing the cask from the penetration; and moving the transporter back below the cask and lowering the cask onto the transporter using the handling mechanism. moving a cask below a penetration of the fuel pool using a transporter while a cover of the penetration is closed; raising the cask off of the transporter using a handling mechanism engaging only upper trunnions of the cask so that the cask self-aligns with the penetration using gravity while the cover of the penetration is closed; wherein the handling mechanism is located at a fixed position below the fuel pool; moving the transporter away from the cask after the cask is raised off of the transporter by the handling mechanism; engaging and sealing the cask to the penetration while the cask is off of the transporter and supported by the handling mechanism; while the cask is sealed to the penetration, opening the cover of the penetration and inserting the spent fuel into the cask; after the spent fuel is inserted into the cask, unsealing the cask from the penetration; and moving the transporter back below the cask and lowering the cask onto the transporter using the handling mechanism.
An electrical connector comprising: a housing extending between a front and a rear , the housing having a chamber at the rear, the housing having a terminal channel between the front and the rear; a power terminal coupled to the housing, the power terminal including a mating pin at a front of the power terminal and a cable connector at a rear of the power terminal, the mating pin positioned in the terminal channel for mating with a charging connector, the cable connector positioned in the chamber at the rear of the housing; and a temperature sensor assembly positioned in the chamber, the temperature sensor assembly including a sealing pad holding the power terminal, the sealing pad having a front and a rear , the temperature sensor assembly including a thermal shunt held by the sealing pad , the temperature sensor assembly including a temperature sensor coupled to the thermal shunt, the sealing pad being configured to retain a thermal shunt , the thermal shunt extending rearwards of the sealing pad , the sealing pad having a terminal opening receiving the power terminal, the sealing pad being electrically insulative, the sealing pad being thermally coupled to the power terminal and thermally coupled to the thermal shunt, the sealing pad having a first thermal conductivity, the thermal shunt having a second thermal conductivity higher than the first thermal conductivity, wherein the temperature sensor monitors the temperature of the power terminal through a thermal path defined by the sealing pad and the thermal shunt. a housing extending between a front and a rear , the housing having a chamber at the rear, the housing having a terminal channel between the front and the rear; a power terminal coupled to the housing, the power terminal including a mating pin at a front of the power terminal and a cable connector at a rear of the power terminal, the mating pin positioned in the terminal channel for mating with a charging connector, the cable connector positioned in the chamber at the rear of the housing; and a temperature sensor assembly positioned in the chamber, the temperature sensor assembly including a sealing pad holding the power terminal, the sealing pad having a front and a rear , the temperature sensor assembly including a thermal shunt held by the sealing pad , the temperature sensor assembly including a temperature sensor coupled to the thermal shunt, the sealing pad being configured to retain a thermal shunt , the thermal shunt extending rearwards of the sealing pad , the sealing pad having a terminal opening receiving the power terminal, the sealing pad being electrically insulative, the sealing pad being thermally coupled to the power terminal and thermally coupled to the thermal shunt, the sealing pad having a first thermal conductivity, the thermal shunt having a second thermal conductivity higher than the first thermal conductivity, wherein the temperature sensor monitors the temperature of the power terminal through a thermal path defined by the sealing pad and the thermal shunt.
A server computer system comprising: a chassis having a first chassis end, a second chassis end, and a chassis length from the first chassis end to the second chassis end (L5); a carrier having a first carrier end , a second carrier end , and a carrier length (L4) from the first carrier end to the second carrier end , the carrier being configured to house one or more computer components, and allow the one or more computer components to be removed from the first carrier end ; and a pivot member being configured to connect the carrier to the chassis , and allow the carrier to rotate between a first position with the first carrier end within the chassis, and a second position with the first carrier end extending out of the chassis, characterized in that the carrier is configured to arrange the one or more computer components adjacent to each other horizontally in vertical orientation. a chassis having a first chassis end, a second chassis end, and a chassis length from the first chassis end to the second chassis end (L5); a carrier having a first carrier end , a second carrier end , and a carrier length (L4) from the first carrier end to the second carrier end , the carrier being configured to house one or more computer components, and allow the one or more computer components to be removed from the first carrier end ; and a pivot member being configured to connect the carrier to the chassis , and allow the carrier to rotate between a first position with the first carrier end within the chassis, and a second position with the first carrier end extending out of the chassis, characterized in that the carrier is configured to arrange the one or more computer components adjacent to each other horizontally in vertical orientation.
A thermoelectric material characterised by comprising carbon nanotube fibres impregnated with lignin
A chocolate comprising 25 to 65 mass% of fats and oils, the fats and oils containing 10 to 40 mass% of tricaprin.
A distributed information storage system comprising a plurality of data storage devices , data transmission devices , data receiving devices and a broker configered to transfer data between the information transmission devices and the information storage devices , said broker and said devices being coupled via a communication network, wherein the system is configured to conduct data communication with the data transmission devices and the data receiving devices , each data storage device of the data storage devices comprising: a data acquiring unit configured to acquire data transmitted from the broker together with an identifier corresponding to a data receiving device associated with the data storage device from among data transmitted from the data transmission devices , based on a first correspondence table associating identifiers indicating the data receiving devices and identifiers indicating types of data acquired by the data receiving devices and a second correspondence table indicating a correspondence between the data storage devices and the data receiving devices determined to be associated with the data storage devices , the first correspondence table and the second correspondence table being shared among the data storage devices ; and a storage medium configured to store the acquired data. a data acquiring unit configured to acquire data transmitted from the broker together with an identifier corresponding to a data receiving device associated with the data storage device from among data transmitted from the data transmission devices , based on a first correspondence table associating identifiers indicating the data receiving devices and identifiers indicating types of data acquired by the data receiving devices and a second correspondence table indicating a correspondence between the data storage devices and the data receiving devices determined to be associated with the data storage devices , the first correspondence table and the second correspondence table being shared among the data storage devices ; and a storage medium configured to store the acquired data.
A system for supplying fuel to a combustor , comprising: a. a combustion chamber ; b. a fuel nozzle that provides fluid communication into the combustion chamber; c. a plurality of passages circumferentially arranged around the combustion chamber, wherein the plurality of passages provide fluid communication into the combustion chamber; d. a liquid fuel plenum that provides fluid communication to the plurality of passages; characterised in that it further comprises e. a baffle circumferentially surrounding at least a portion of the liquid fuel plenum inside the plurality of passages, wherein the baffle forms a plurality of lobes around the liquid fuel plenum; and f. a plurality of gaseous fuel ports circumferentially surrounding the baffle inside the plurality of passages. a. a combustion chamber ; b. a fuel nozzle that provides fluid communication into the combustion chamber; c. a plurality of passages circumferentially arranged around the combustion chamber, wherein the plurality of passages provide fluid communication into the combustion chamber; d. a liquid fuel plenum that provides fluid communication to the plurality of passages; characterised in that it further comprises e. a baffle circumferentially surrounding at least a portion of the liquid fuel plenum inside the plurality of passages, wherein the baffle forms a plurality of lobes around the liquid fuel plenum; and f. a plurality of gaseous fuel ports circumferentially surrounding the baffle inside the plurality of passages.
A rail comprising, as steel composition, in terms of mass%: C: 0.75% to 1.20%; Si: 0.10% to 2.00%; Mn: 0.10% to 2.00%; Cr: 0% to 2.00%; Mo: 0% to 0.50%; Co: 0% to 1.00%; B: 0% to 0.0050%; Cu: 0% to 1.00%; Ni: 0% to 1.00%; V: 0% to 0.50%; Nb: 0% to 0.050%; Ti: 0% to 0.0500%; Mg: 0% to 0.0200%; Ca: 0% to 0.0200%; REM: 0% to 0.0500%; Zr: 0% to 0.0200%; N: 0% to 0.0200%; Al: 0% to 1.00%; P: 0.0250% or less; S: 0.0250% or less; and Fe and impurities as a remainder, wherein 90% or more of a metallographic structure in a range between an outer surface of a rail bottom portion as an origin and a depth of 5 mm is a pearlite structure, an HC which is a surface hardness of a foot-bottom central portion is in a range of Hv 360 to 500, an HE which is a surface hardness of a foot-edge portion is in a range of Hv 260 to 315, and the HC, the HE, and an HM which is a surface hardness of a middle portion positioned between the foot-bottom central portion and the foot-edge portion satisfy the following Expression 1, and wherein the HC, the HE, and the HM are obtained by Vickers hardness measurement with load of 98 N, HC ≥ HM ≥ HE C: 0.75% to 1.20%; Si: 0.10% to 2.00%; Mn: 0.10% to 2.00%; Cr: 0% to 2.00%; Mo: 0% to 0.50%; Co: 0% to 1.00%; B: 0% to 0.0050%; Cu: 0% to 1.00%; Ni: 0% to 1.00%; V: 0% to 0.50%; Nb: 0% to 0.050%; Ti: 0% to 0.0500%; Mg: 0% to 0.0200%; Ca: 0% to 0.0200%; REM: 0% to 0.0500%; Zr: 0% to 0.0200%; N: 0% to 0.0200%; Al: 0% to 1.00%; P: 0.0250% or less; S: 0.0250% or less; and Fe and impurities as a remainder, wherein 90% or more of a metallographic structure in a range between an outer surface of a rail bottom portion as an origin and a depth of 5 mm is a pearlite structure, an HC which is a surface hardness of a foot-bottom central portion is in a range of Hv 360 to 500, an HE which is a surface hardness of a foot-edge portion is in a range of Hv 260 to 315, and the HC, the HE, and an HM which is a surface hardness of a middle portion positioned between the foot-bottom central portion and the foot-edge portion satisfy the following Expression 1, and wherein the HC, the HE, and the HM are obtained by Vickers hardness measurement with load of 98 N, HC ≥ HM ≥ HE
A cell preparation for use in the treatment of osteoarthritis, comprising: a mixture including a micronized fat cell and an adipose stem cell, the micronized fat cell and the adipose stem cell being obtained by steps of: separating an adipose tissue taken from a subject into a cellular fraction and a liquid fraction to obtain the cellular fraction; removing impurities from the cellular fraction to obtain a concentrate of a fat cell and an adipose stem cell; and micronizing the fat cell in the concentrate of the fat cell and the adipose stem cell, wherein there are 100,000 or more adipose stem cells per 1 mL of the cell preparation. separating an adipose tissue taken from a subject into a cellular fraction and a liquid fraction to obtain the cellular fraction; removing impurities from the cellular fraction to obtain a concentrate of a fat cell and an adipose stem cell; and micronizing the fat cell in the concentrate of the fat cell and the adipose stem cell, wherein there are 100,000 or more adipose stem cells per 1 mL of the cell preparation.
A method of copying data stored in a byte addressable persistent memory storage device for a virtual machine (104-1) on a host in a virtual machine environment, the virtual machine environment comprising the byte addressable persistent memory storage device, the byte addressable persistent memory storage device having the ability to appear as a memory device (107-2, 109-2) having available memory to the virtual machine and as a file to the host, the method comprising: the host reading data from the persistent memory storage device as file data from a virtual hard disk persistent memory file as a result of translating a block offset or a virtual byte offset to a file offset using a file translation table , wherein reading the data from the persistent memory storage device as file data includes reading the raw contents of the virtual hard disk persistent memory file and translating virtual byte offsets to logical block offsets in the file translation table by respecting a Block Translation Table , BTT, stored on the byte addressable persistent memory storage device, the BTT providing a mapping for translating block offsets to virtual byte offsets; the host writing the data from the persistent memory storage device as file data to a virtual hard disk block capable file; and the virtual machine reading the written data as data stored as block addressable data to implement a block based virtual storage on the virtual machine using the byte addressable persistent memory storage as the physical hardware to implement the block based virtual storage on the virtual machine. the host reading data from the persistent memory storage device as file data from a virtual hard disk persistent memory file as a result of translating a block offset or a virtual byte offset to a file offset using a file translation table , wherein reading the data from the persistent memory storage device as file data includes reading the raw contents of the virtual hard disk persistent memory file and translating virtual byte offsets to logical block offsets in the file translation table by respecting a Block Translation Table , BTT, stored on the byte addressable persistent memory storage device, the BTT providing a mapping for translating block offsets to virtual byte offsets; the host writing the data from the persistent memory storage device as file data to a virtual hard disk block capable file; and the virtual machine reading the written data as data stored as block addressable data to implement a block based virtual storage on the virtual machine using the byte addressable persistent memory storage as the physical hardware to implement the block based virtual storage on the virtual machine.
A mechanical actuator for vehicles, comprising: - a ball nut comprising: a hardened inner part defining a ball track; a malleable outer part comprising a riveting area with a riveting edge that comprises a continuous riveting; and - a bearing riveted with the riveting edge to the riveting area of the outer part of the ball nut . - a ball nut comprising: a hardened inner part defining a ball track; a malleable outer part comprising a riveting area with a riveting edge that comprises a continuous riveting; and a hardened inner part defining a ball track; a malleable outer part comprising a riveting area with a riveting edge that comprises a continuous riveting; and - a bearing riveted with the riveting edge to the riveting area of the outer part of the ball nut .
A novel method for extraction of Oxyresveratrol from Artocarpus hirsutus, said method comprising steps of: a) Cutting, drying the wood of A. hirsutus and pulverising to coarse powder; b) Extracting powdered material from step a with 9 volumes hot ethanol completely c) Filtering to separate the ethanol extract from step b; d) Concentrating the extract from step c under vacuum at 50-55 °C to thick paste; e) Drying the extract from step d completely in vacuum tray dryer at 65-70 °C to get powder; f) Dissolving the powder from step e in 2 volumes ethanol; g) Addition of the ethanolic extract from step f slowly into 10 volumes of water under continuous stirring; h) Separating the insolubles obtained from step g to get clear layer by filtration; i) Washing the clear layer from step h with 1 volume chloroform and discard the chloroform layer j) Extracting the clear layer from step i with 1 volume ethyl acetate k) Concentrating the ethyl acetate layer from step j under vacuum at 50-55 °C to thick paste; l) Drying the concentrated extract from step k to get powder in vacuum tray dryer at 65-70 °C; m) Dissolving the powder from step 1 in 4 volumes water and heating upto 80-90 °C for 8 h under stirring; n) Cool the water layer from step m to 10-15 °C for 8 h and allowed for crystallization; o) Filtering the crystals obtained from step n; p) Drying the crystals from step o in a vacuum at 70-75 °C; q) Characterizing the crystals from step p as Oxyresveratrol from its 1 H and 13 C NMR spectra as well as from its LCMS spectrum as represented in STR#1 a) Cutting, drying the wood of A. hirsutus and pulverising to coarse powder; b) Extracting powdered material from step a with 9 volumes hot ethanol completely c) Filtering to separate the ethanol extract from step b; d) Concentrating the extract from step c under vacuum at 50-55 °C to thick paste; e) Drying the extract from step d completely in vacuum tray dryer at 65-70 °C to get powder; f) Dissolving the powder from step e in 2 volumes ethanol; g) Addition of the ethanolic extract from step f slowly into 10 volumes of water under continuous stirring; h) Separating the insolubles obtained from step g to get clear layer by filtration; i) Washing the clear layer from step h with 1 volume chloroform and discard the chloroform layer j) Extracting the clear layer from step i with 1 volume ethyl acetate k) Concentrating the ethyl acetate layer from step j under vacuum at 50-55 °C to thick paste; l) Drying the concentrated extract from step k to get powder in vacuum tray dryer at 65-70 °C; m) Dissolving the powder from step 1 in 4 volumes water and heating upto 80-90 °C for 8 h under stirring; n) Cool the water layer from step m to 10-15 °C for 8 h and allowed for crystallization; o) Filtering the crystals obtained from step n; p) Drying the crystals from step o in a vacuum at 70-75 °C; q) Characterizing the crystals from step p as Oxyresveratrol from its 1 H and 13 C NMR spectra as well as from its LCMS spectrum as represented in STR#1
A thermal conductive member, comprising: a first surface layer comprising an insulating material A; a second surface layer comprising an insulating material A; and an intermediate layer comprising an insulating material B, and disposed between the first surface layer and the second surface layer , wherein the insulating material A comprises a first boron nitride sintered body having an orientation degree of hexagonal boron nitride primary particles of 0.6 to 1.4, and a first heat curable resin composition impregnating in the first boron nitride sintered body, and wherein the insulating material B comprises a second boron nitride sintered body having an orientation degree of hexagonal boron nitride primary particles of 0.01 to 0.05, and a second heat curable resin composition impregnating in the second boron nitride sintered body, provided that the orientation degree means IOP (the Index of Orientation Preference), and calculated by the following equation: IOP = I 100 / I 002 par . / I 100 / I 002 perp . , wherein, (I100 / I002) par . is an intensity ratio of the planes measured along a direction parallel to a thickness direction of the boron nitride sintered body, and (I100 / I002) perp is an intensity ratio of the planes measured along a direction perpendicular to the thickness direction of the boron nitride sintered body, I100 indicates an intensity of a X-ray diffraction from the plane, and I002 indicates an intensity of a X-ray diffraction from the plane. a first surface layer comprising an insulating material A; a second surface layer comprising an insulating material A; and an intermediate layer comprising an insulating material B, and disposed between the first surface layer and the second surface layer , wherein the insulating material A comprises a first boron nitride sintered body having an orientation degree of hexagonal boron nitride primary particles of 0.6 to 1.4, and a first heat curable resin composition impregnating in the first boron nitride sintered body, and wherein the insulating material B comprises a second boron nitride sintered body having an orientation degree of hexagonal boron nitride primary particles of 0.01 to 0.05, and a second heat curable resin composition impregnating in the second boron nitride sintered body,
An annular seal for use in a well pressure control device , the annular seal comprising: an annular seal member including an inner seal surface and an outer surface ; an annular reservoir adjacent and outwardly surrounding the annular seal member outer surface ; and a lubricant disposed within the annular reservoir , wherein the annular reservoir is configured to supply the lubricant to the annular seal member inner seal surface , and wherein the lubricant is supplied to the inner seal surface in response to deformation of the seal member . an annular seal member including an inner seal surface and an outer surface ; an annular reservoir adjacent and outwardly surrounding the annular seal member outer surface ; and a lubricant disposed within the annular reservoir , wherein the annular reservoir is configured to supply the lubricant to the annular seal member inner seal surface , and wherein the lubricant is supplied to the inner seal surface in response to deformation of the seal member .