mhurhangee/patent-ind-claim-en huggingface dataset:
A cartridge processing system (101; 201; 301), comprising: a base (105; 205; 305) configured to support cartridges (104; 204; 304), the base having a rack (103; 203; 303) with support holes (111; 211; 311) for supporting respective ones of the cartridges ; a tray (131; 231; 331) which comprises a tray bottom (145; 245) configured to be removably placed on tops of the cartridges (104; 204; 304), the tray (131; 231; 331) has a platform (137; 237; 337) with platform holes (139; 239; 339) substantially coaxially aligned with respective ones of the support holes (111; 211; 311), and the tray (131; 231; 331) has a funnel (141; 241; 341) extending from the platform (137; 237; 337), the funnel (141; 241; 341) surrounds the platform holes (139; 239; 339), such that the platform holes (139; 239; 339) are conduits for product to be placed in the cartridges (104; 204; 304); and a tamper (151; 251; 351) configured to engage the tray (131; 231; 331), the tamper (151; 251; 351) having extensions (153; 253) that are configured to extend through respective ones of the platform holes (139; 239; 339) and into respective ones of the cartridges (104; 204; 304). a base (105; 205; 305) configured to support cartridges (104; 204; 304), the base having a rack (103; 203; 303) with support holes (111; 211; 311) for supporting respective ones of the cartridges ; a tray (131; 231; 331) which comprises a tray bottom (145; 245) configured to be removably placed on tops of the cartridges (104; 204; 304), the tray (131; 231; 331) has a platform (137; 237; 337) with platform holes (139; 239; 339) substantially coaxially aligned with respective ones of the support holes (111; 211; 311), and the tray (131; 231; 331) has a funnel (141; 241; 341) extending from the platform (137; 237; 337), the funnel (141; 241; 341) surrounds the platform holes (139; 239; 339), such that the platform holes (139; 239; 339) are conduits for product to be placed in the cartridges (104; 204; 304); and a tamper (151; 251; 351) configured to engage the tray (131; 231; 331), the tamper (151; 251; 351) having extensions (153; 253) that are configured to extend through respective ones of the platform holes (139; 239; 339) and into respective ones of the cartridges (104; 204; 304).
A method comprising: displaying a picture as part of a picture password interface; receiving user input selecting at least one of multiple different regions of the displayed picture, each of the multiple regions corresponding to a different one of multiple cells of a cipher key corresponding to the displayed picture, each of the multiple cells corresponding to a string comprising an amount of characters, wherein a first cell of the cipher key includes a string comprising a first amount of characters, wherein a second cell of the cipher key includes a string comprising a second amount of characters that is different from the first amount of characters, and wherein at least one cell of the cipher key has no characters; generating a user key by combining the strings of the cells corresponding to the selected at least one region; generating a password for a web service by combining the user key with a web service key for the web service; and communicating the generated password to the web service. displaying a picture as part of a picture password interface; receiving user input selecting at least one of multiple different regions of the displayed picture, each of the multiple regions corresponding to a different one of multiple cells of a cipher key corresponding to the displayed picture, each of the multiple cells corresponding to a string comprising an amount of characters, wherein a first cell of the cipher key includes a string comprising a first amount of characters, wherein a second cell of the cipher key includes a string comprising a second amount of characters that is different from the first amount of characters, and wherein at least one cell of the cipher key has no characters; generating a user key by combining the strings of the cells corresponding to the selected at least one region; generating a password for a web service by combining the user key with a web service key for the web service; and communicating the generated password to the web service.
A method for dehydrogenating an alkane, the method comprising: a step of feeding into dehydrogenation reactors a feed gas stream containing an alkane hydrocarbon to be dehydrogenated, hydrogen, and steam and performing dehydrogenation, wherein the dehydrogenation step is repeated in five or more sets, the dehydrogenation reactors have two parallel-connected reaction material heaters configured to heat the feed gas stream which is fed into each of the dehydrogenation reactors, and the steam is fed separately to the individual reactors for five or more sets of dehydrogenation steps; and a step of cooling and compressing a production gas stream from the previous step, quenching the compressed product gas stream by passage through a cooling box, separating and purifying the product gas stream having passed through the cooling box, and recovering a product.
. A method for producing porous composite material, the method comprising a) providing porous composite material comprising biodegradable and bioabsorbable organic polymer and bioactive particles dispersed therein, wherein overall porosity of the composite material is 60-80%, average pore size is 200-500 μm content of the bioactive particles in the composite material is 50-80% by weight, and wherein the bioabsorbable organic polymer is poly-L-lactide co-ε-caprolactone copolymer comprising 70 molar-% L-lactide and 30 molar-% caprolactone, the bioactive particles are selected from β-TCP particles and bioactive glass particles, and wherein at least 50% of pores of the composite material are connected to each other by channels, wherein width of the channels is at least 5 μm, characterized in that the method further comprises (b) immersing the porous composite material into a fluid and/or heating at 25-40 °C (c) squeezing the porous composite material by subjecting to an external force, and (d) releasing the external force. a) providing porous composite material comprising biodegradable and bioabsorbable organic polymer and bioactive particles dispersed therein, wherein overall porosity of the composite material is 60-80%, average pore size is 200-500 μm content of the bioactive particles in the composite material is 50-80% by weight, and wherein the bioabsorbable organic polymer is poly-L-lactide co-ε-caprolactone copolymer comprising 70 molar-% L-lactide and 30 molar-% caprolactone, the bioactive particles are selected from β-TCP particles and bioactive glass particles, and wherein at least 50% of pores of the composite material are connected to each other by channels, wherein width of the channels is at least 5 μm, characterized in that the method further comprises (b) immersing the porous composite material into a fluid and/or heating at 25-40 °C (c) squeezing the porous composite material by subjecting to an external force, and (d) releasing the external force.
A base acetamide glycerin ether molecule which is characterized by an amphiphilic structure represented by formula (I), that is, with a base-1-acetic acid as polar head and a 2, 3-dialkoxyl-1-propylamine as non-polar tail, the two parts being linked by an amide bond to form the amphiphilic structure possessing both hydrophilicity and lipophilicity: wherein the base contained therein, that is, the base group in Formula (I), is a common natural purine or pyrimidine base, that is, adenine, guanine, hypoxanthine, cytosine, thymine and uracil; wherein the long chain aliphatic contained therein, that is, the R group in formula (I), is a saturated or unsaturated aliphatic carbon chain having between 8 and 25 carbons in length.
A method for preparing a product comprising: 1) combining starting materials comprising A) a boron containing Lewis acid; B) a hydroxyl terminated polydiorganosiloxane of formula where subscript n is 2 to 2,000, and each R 1 is independently selected from the group consisting of monovalent hydrocarbon groups and monovalent halogenated hydrocarbon groups; and C) a cyclic polyorganohydrogensiloxane of formula (RHSiO 2/2 ) v , where subscript v is 3 to 12; and each R is an independently selected monovalent hydrocarbon group; thereby preparing the product comprising a polyfunctional organohydrogensiloxane and a by-product comprising H 2 ; and 2) combining a) the polyfunctional organohydrogensiloxane, b) a hydrosilylation reaction catalyst, and c) a reactive species having an average, per molecule at least one aliphatically unsaturated group capable of undergoing an addition reaction with a silicon bonded hydrogen atom of starting material a) and further comprising one or more curable groups per molecule. 1) combining starting materials comprising A) a boron containing Lewis acid; B) a hydroxyl terminated polydiorganosiloxane of formula where subscript n is 2 to 2,000, and each R 1 is independently selected from the group consisting of monovalent hydrocarbon groups and monovalent halogenated hydrocarbon groups; and C) a cyclic polyorganohydrogensiloxane of formula (RHSiO 2/2 ) v , where subscript v is 3 to 12; and each R is an independently selected monovalent hydrocarbon group; thereby preparing the product comprising a polyfunctional organohydrogensiloxane and a by-product comprising H 2 ; and A) a boron containing Lewis acid; B) a hydroxyl terminated polydiorganosiloxane of formula where subscript n is 2 to 2,000, and each R 1 is independently selected from the group consisting of monovalent hydrocarbon groups and monovalent halogenated hydrocarbon groups; and C) a cyclic polyorganohydrogensiloxane of formula (RHSiO 2/2 ) v , where subscript v is 3 to 12; and each R is an independently selected monovalent hydrocarbon group; thereby preparing the product comprising a polyfunctional organohydrogensiloxane and a by-product comprising H 2 ; and 2) combining a) the polyfunctional organohydrogensiloxane, b) a hydrosilylation reaction catalyst, and c) a reactive species having an average, per molecule at least one aliphatically unsaturated group capable of undergoing an addition reaction with a silicon bonded hydrogen atom of starting material a) and further comprising one or more curable groups per molecule. a) the polyfunctional organohydrogensiloxane, b) a hydrosilylation reaction catalyst, and c) a reactive species having an average, per molecule at least one aliphatically unsaturated group capable of undergoing an addition reaction with a silicon bonded hydrogen atom of starting material a) and further comprising one or more curable groups per molecule.
A method for producing a collagen meniscus implant, the method comprising: obtaining a freshly excised non-human meniscus, rinsing the non-human meniscus in an aqueous solution, drying the rinsed non-human meniscus, shaping the dried non-human meniscus at a temperature from -196 °C to 4 °C to approximate in dimension an average-sized human meniscus, extracting the shaped non-human meniscus to remove non-collagenous material by incubating the shaped non-human meniscus in each of an ionic detergent, a non-ionic detergent, MgCl 2 or guanidine HCl, NaOH/Na 2 SO 4 , HCl/Na 2 SO 4 , NaCl, isopropanol or ethanol, and H 2 O, and sterilizing the extracted non-human meniscus, thereby forming the collagen meniscus implant, wherein the collagen meniscus implant contains at least 90% by weight of type I collagen, less than 0.5% by weight of glycosaminoglycan, and less than 600 ppm DNA; and the method is free of any enzymatic digesting steps and any oxidizing steps. obtaining a freshly excised non-human meniscus, rinsing the non-human meniscus in an aqueous solution, drying the rinsed non-human meniscus, shaping the dried non-human meniscus at a temperature from -196 °C to 4 °C to approximate in dimension an average-sized human meniscus, extracting the shaped non-human meniscus to remove non-collagenous material by incubating the shaped non-human meniscus in each of an ionic detergent, a non-ionic detergent, MgCl 2 or guanidine HCl, NaOH/Na 2 SO 4 , HCl/Na 2 SO 4 , NaCl, isopropanol or ethanol, and H 2 O, and sterilizing the extracted non-human meniscus, thereby forming the collagen meniscus implant, wherein the collagen meniscus implant contains at least 90% by weight of type I collagen, less than 0.5% by weight of glycosaminoglycan, and less than 600 ppm DNA; and the method is free of any enzymatic digesting steps and any oxidizing steps.
A method for preparing a compound of the formula (I), wherein R is H or C 1 -C 6 -alkyl, by reacting at least one compound of the formula (II) in which R has the same definition as in the formula (I) and in which R 1 is H, C 1 -C 12 -alkyl or C 3 -C 12 -cycloalkyl, with a compound of the formula (III) in which R 2 is H or C(O)R 3 , wherein R 3 is H or C 1 -C 12 -alkyl, in the presence of at least one enzyme suitable for transesterification, wherein a lipase (EC 3.1.1.-) is used as enzyme. in which R has the same definition as in the formula (I) and in which R 1 is H, C 1 -C 12 -alkyl or C 3 -C 12 -cycloalkyl, in which R 2 is H or C(O)R 3 , wherein R 3 is H or C 1 -C 12 -alkyl,
A data processing method, comprising: determining , by a terminal device, a relation of size between an amount of data to be sent of a first split bearer of the terminal device and a preset threshold of the first split bearer, characterised by : the amount of the data to be sent comprises total amount of data volume in a packet data convergence protocol PDCP layer of the first split bearer and data volume in a first radio link control RLC layer and a second RLC layer, that are configured by a network side for transmitting data by default, of the first split bearer; and determining , by the terminal device among two or more cell groups corresponding to the first split bearer, a target cell group used to process the data to be sent, according to the relation of size. determining , by a terminal device, a relation of size between an amount of data to be sent of a first split bearer of the terminal device and a preset threshold of the first split bearer, characterised by : the amount of the data to be sent comprises total amount of data volume in a packet data convergence protocol PDCP layer of the first split bearer and data volume in a first radio link control RLC layer and a second RLC layer, that are configured by a network side for transmitting data by default, of the first split bearer; and determining , by the terminal device among two or more cell groups corresponding to the first split bearer, a target cell group used to process the data to be sent, according to the relation of size.
A conveyor part, suitable for a belt or chain conveyor, having a conveyor track portion , characterised in that the conveyor track portion comprises at least one rotary moulded conveyor track structure, wherein in the conveyor track portion kissing points are applied such that a surface of the track portion is connected to an opposing surface of the track portion .
A method for controlling a mechanical gear-shifting operation in a drive system comprising at least a first multi-speed transmission with a first input shaft and a first mechanical gear-shifting means , wherein torques coming from the first input shaft are transmitted to an output shaft of the drive system , and wherein the torques are generated by a combustion engine (VKM) and at by least a first electric motor (EM-I), wherein the first electric motor (EM-I) is operatively connected to the combustion engine (VKM) at least temporarily (T12, T13) during the gear-shifting process when the first mechanical gear-shifting means is shifted for the purpose of selecting a gear of the first multi-gear transmission and is operated in a generator mode (steps 12, 13), as a result of which the combustion engine (VKM) is loaded and the first mechanical gear-shifting means is unloaded; characterized in that the first electric motor (EM-I) is controlled during a first time period (T12) of the gear-shifting operation, prior to the engagement of the current gear, for transition to the generator operation such that an increasing load torque is generated (step 12), and in that the first electric motor (EM-I) is controlled during a second time period (T16) of the gear-shifting operation, after the engagement of the new gear, to terminate the generator operation such that a decreasing load torque is generated (step 16).
A terminal device comprising: a reception unit configured to receive a scheduling of a physical uplink shared channel, PUSCH, and receive a higher layer parameter indicating that 256 QAM is allowed; and a transmission unit configured to transmit the PUSCH, wherein, in a case that the higher layer parameter is configured, and the scheduling of the PUSCH is included in DCI on a physical downlink control channel, PDCCH, the DCI including a first modulation and coding scheme, MCS, index, then a modulation order Q m for the PUSCH is given based on a first index Q' m in a first table, the first index Q' m corresponding to the first MCS index based on the first table, in a case that the higher layer parameter is not configured, and the scheduling of the PUSCH is included in the DCI on the PDCCH, then the modulation order Q m for the PUSCH is given based on a second index Q' m in a second table, the second index Q' m corresponding to the first MCS index based on the second table, and in a case that the scheduling of the PUSCH is included in an uplink grant being included in a random access response, the uplink grant including a second MCS index, then the modulation order Q m for the PUSCH is given based on a third index Q' m in the second table, the third index Q' m corresponding to the second MCS index based on the second table. a reception unit configured to receive a scheduling of a physical uplink shared channel, PUSCH, and receive a higher layer parameter indicating that 256 QAM is allowed; and receive a scheduling of a physical uplink shared channel, PUSCH, and receive a higher layer parameter indicating that 256 QAM is allowed; and a transmission unit configured to transmit the PUSCH, wherein, in a case that the higher layer parameter is configured, and the scheduling of the PUSCH is included in DCI on a physical downlink control channel, PDCCH, the DCI including a first modulation and coding scheme, MCS, index, then a modulation order Q m for the PUSCH is given based on a first index Q' m in a first table, the first index Q' m corresponding to the first MCS index based on the first table, in a case that the higher layer parameter is not configured, and the scheduling of the PUSCH is included in the DCI on the PDCCH, then the modulation order Q m for the PUSCH is given based on a second index Q' m in a second table, the second index Q' m corresponding to the first MCS index based on the second table, and in a case that the scheduling of the PUSCH is included in an uplink grant being included in a random access response, the uplink grant including a second MCS index, then the modulation order Q m for the PUSCH is given based on a third index Q' m in the second table, the third index Q' m corresponding to the second MCS index based on the second table.
A hydraulic pump assembly for a vehicle, comprising an electrical motor , a hydraulic pump driven by the electrical motor , and a centrifugal regulator in connection with a pressure overflow valve connected to the oil outlet of the hydraulic pump , characterized in that the pump assembly further comprises at least two input check valves and at least two output check valves arranged such that a first pressure outlet port is formed when the motor is rotating in a first direction, and a second pressure outlet port is formed when the motor is rotating in an opposite direction, wherein the first pressure outlet port departs from a position on a first hydraulic line being pressurized by the hydraulic pump when the motor rotates in the first direction, the position being located between one input check valve and one output check valve , and wherein the second pressure outlet port departs from a position on a second hydraulic line being pressurized by the hydraulic pump when the motor rotates in the second direction located between another input check valve and another output check valve .
A combustion chamber section for a combustion chamber for a rocket engine , wherein the combustion chamber section comprising: - a combustion chamber body which encloses a combustion chamber volume and in which coolant channels are arranged, wherein the combustion chamber body is cylindrical or has a polygonal or elliptical cross-section, and wherein the combustion chamber body is adapted to be connected to an injection head, characterised by - at least one baffle , which is formed integrally with the combustion chamber body , arranged on an inner side of the combustion chamber body and projects from the combustion chamber body into the interior of the combustion chamber, wherein the at least one baffle comprises at least one coolant channel (133 - 135) which is fluidically connected to at least one of the coolant channels in the combustion chamber body . - a combustion chamber body which encloses a combustion chamber volume and in which coolant channels are arranged, wherein the combustion chamber body is cylindrical or has a polygonal or elliptical cross-section, and wherein the combustion chamber body is adapted to be connected to an injection head, characterised by - at least one baffle , which is formed integrally with the combustion chamber body , arranged on an inner side of the combustion chamber body and projects from the combustion chamber body into the interior of the combustion chamber,
A method of sending traffic data and control information in a wireless communication system, comprising: performing beamforming for traffic data based on a precoding matrix; performing beamforming for control information based on the precoding matrix; sending the beamformed traffic data on a first physical channel; sending the beamformed control information on a second physical channel; and sending non-beamformed control information in a first section of a resource block, and wherein the sending the beamformed control information comprises sending the beamformed control information in a second section of the resource block. performing beamforming for traffic data based on a precoding matrix; performing beamforming for control information based on the precoding matrix; sending the beamformed traffic data on a first physical channel; sending the beamformed control information on a second physical channel; and sending non-beamformed control information in a first section of a resource block, and wherein the sending the beamformed control information comprises sending the beamformed control information in a second section of the resource block.
A method for cutting material to be cut, which is preferably realized as a rod-shaped element, comprising a receiving device for fixedly receiving the material to be cut in such a manner that a part to be separated from the material to be cut protrudes over an element edge of the receiving device realized as a counter knife edge , and comprising a knife unit having a knife , which is movable with respect to the receiving device and which moves a knife edge past the counter knife edge in a cutting movement for executing a separating cut, characterized in that the welding material is subjected to ultrasound for executing oscillations during the cutting movement .