mhurhangee/patent-ind-claim-en huggingface dataset:
A method of purifying acetone, comprising: directing a feed stream comprising greater than or equal to 97 wt% of acetone and 100 to 1,000 ppm of methanol to a separation column, both based on a total weight of the feed stream; separating the feed stream in the separation column that is operating at a pressure greater than or equal to 1 bar into an overhead stream and a purified acetone stream comprising less than or equal to 50 ppm of methanol based on a total weight of the purified acetone stream; and directing at least 80 wt% of the overhead stream into the separation column as a reconstituted stream and purging 1 to 20 wt% of the overhead stream as a purge stream. directing a feed stream comprising greater than or equal to 97 wt% of acetone and 100 to 1,000 ppm of methanol to a separation column, both based on a total weight of the feed stream; separating the feed stream in the separation column that is operating at a pressure greater than or equal to 1 bar into an overhead stream and a purified acetone stream comprising less than or equal to 50 ppm of methanol based on a total weight of the purified acetone stream; and directing at least 80 wt% of the overhead stream into the separation column as a reconstituted stream and purging 1 to 20 wt% of the overhead stream as a purge stream.
Gas turbine comprising a housing , an outer sealing ring which can be detachably fastened to the housing , and a clamping element for radially clamping the outer sealing ring and the housing against one another, characterized by an anti-rotation mechanism which has at least one housing groove and a radial flange of the outer sealing ring , which flange can be form-fittingly secured against rotation in the housing groove with clearance (s a ) in the axial direction.
A pharmaceutical composition for use in treating pediatric growth hormone deficiency, which comprises a hGH fusion protein and a pharmaceutically acceptable carrier, wherein the hGH fusion protein is a fusion protein of a human growth hormone (hGH) and a hybrid Fc, wherein the hGH fusion protein comprises an amino acid sequence of SEQ ID NO: 1, and wherein the hGH fusion protein is administered once a week at a dose of 0.4 to 1.5mg per body weight kg of a patient. wherein the hGH fusion protein is a fusion protein of a human growth hormone (hGH) and a hybrid Fc, wherein the hGH fusion protein comprises an amino acid sequence of SEQ ID NO: 1, and wherein the hGH fusion protein is administered once a week at a dose of 0.4 to 1.5mg per body weight kg of a patient.
A system comprising: multiple relay base stations; a base station configured to backhaul user-plane and control-plane communications of a wireless communications network via one or more of the multiple relay base stations; and an Integrated Backhaul Access and Mobility Function, IB-AMF, server connected to the multiple relay base stations and configured to: receive monitoring data from the base station, a first relay base station, or both for a wireless backhaul link between the base station and the first relay base station; based at least in part on the received monitoring data, determine to handover the wireless backhaul link from the first relay base station to a second relay base station; allocate resources for the wireless backhaul link between the base station and the second relay base station; and transmit handover trigger messages to the base station, the first relay base station, and the second relay base station, the transmission being effective to cause the handover of the wireless backhaul link from the first relay base station to the second relay base station. multiple relay base stations; a base station configured to backhaul user-plane and control-plane communications of a wireless communications network via one or more of the multiple relay base stations; and an Integrated Backhaul Access and Mobility Function, IB-AMF, server connected to the multiple relay base stations and configured to: receive monitoring data from the base station, a first relay base station, or both for a wireless backhaul link between the base station and the first relay base station; based at least in part on the received monitoring data, determine to handover the wireless backhaul link from the first relay base station to a second relay base station; allocate resources for the wireless backhaul link between the base station and the second relay base station; and transmit handover trigger messages to the base station, the first relay base station, and the second relay base station, the transmission being effective to cause the handover of the wireless backhaul link from the first relay base station to the second relay base station. receive monitoring data from the base station, a first relay base station, or both for a wireless backhaul link between the base station and the first relay base station; based at least in part on the received monitoring data, determine to handover the wireless backhaul link from the first relay base station to a second relay base station; allocate resources for the wireless backhaul link between the base station and the second relay base station; and transmit handover trigger messages to the base station, the first relay base station, and the second relay base station, the transmission being effective to cause the handover of the wireless backhaul link from the first relay base station to the second relay base station.
An apparatus of a passive optical network (PON) comprising: an optical line terminal, OLT, component configured to couple to an optical network unit, ONU, and send downstream wavelength identification to the ONU to indicate a wavelength that corresponds to the ONU , wherein the downstream wavelength identification is transmitted using a Media Access Control, MAC layer frame for an embedded channel; wherein the MAC layer frame is a 10 gigabit PON, XGPON, downstream Physical layer, PHY, frame for an embedded operations, administration, and management, OAM, channel that comprises a PON identifier, ID, field, and wherein the PON ID field includes a wavelength ID that indicates the downstream wavelength for the ONU. an optical line terminal, OLT, component configured to couple to an optical network unit, ONU, and send downstream wavelength identification to the ONU to indicate a wavelength that corresponds to the ONU , wherein the downstream wavelength identification is transmitted using a Media Access Control, MAC layer frame for an embedded channel; wherein the MAC layer frame is a 10 gigabit PON, XGPON, downstream Physical layer, PHY, frame for an embedded operations, administration, and management, OAM, channel that comprises a PON identifier, ID, field, and wherein the PON ID field includes a wavelength ID that indicates the downstream wavelength for the ONU.
A method to remove and recover some or all of the natural gas liquids (NGLs): ethane, propane, butane, pentane, or heavier hydrocarbons, from a natural gas feedstream to provide a methane-rich natural gas supply wherein the NGLs are separated from the natural gas feedstream by means of a NGLs separation unit comprising: (i) an adsorption unit comprising an adsorption bed comprising an adsorbent media which adsorbs NGLs to form a loaded adsorbent media and (ii) a regeneration unit comprising a means to regenerate loaded adsorbent media by causing the release of adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media wherein the method comprises the steps of: (a) passing the natural gas feedstream through the adsorption unit generating the adsorbent loaded with NGLs and a methane-rich natural gas supply , (b) transporting the adsorbent loaded with NGLs from the adsorption unit to the regeneration unit , (c) regenerating the adsorbent loaded with NGLs by releasing the adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media, (d) transporting the regenerated adsorbent media back to the adsorption unit for reuse, (e) recovering the released NGLs, and (f) providing the methane-rich natural gas supply to a natural gas pipeline for transportation and/or for use as fuel for a combustion process, wherein the adsorption media is a cross-linked macroporous polymeric adsorbent, a partially pyrolized macroporous polymer having a carbon to hydrogen ratio of 1.5:1 to 20:1, or mixtures thereof. (i) an adsorption unit comprising an adsorption bed comprising an adsorbent media which adsorbs NGLs to form a loaded adsorbent media and (ii) a regeneration unit comprising a means to regenerate loaded adsorbent media by causing the release of adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media (a) passing the natural gas feedstream through the adsorption unit generating the adsorbent loaded with NGLs and a methane-rich natural gas supply , (b) transporting the adsorbent loaded with NGLs from the adsorption unit to the regeneration unit , (c) regenerating the adsorbent loaded with NGLs by releasing the adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media, (d) transporting the regenerated adsorbent media back to the adsorption unit for reuse, (e) recovering the released NGLs, and (f) providing the methane-rich natural gas supply to a natural gas pipeline for transportation and/or for use as fuel for a combustion process,
A method of designing a patient-specific surgical device for performing knee surgery on the patient including the steps of: (i) obtaining patient-specific anatomical data of a limb both in flexion and extension; (ii) pre-processing and/or converting the patient-specific anatomical data to form a patient-specific model of the limb both in flexion and extension; (iii) determining a first alignment axis from one or a plurality of first anatomical indicators on a patient-specific model of the limb in extension; (iv) determining a second alignment axis from one or a plurality of second anatomical indicators on the patient-specific model of the limb in flexion; and (v) designing the patient-specific surgical device based at least partly on the determined first and/or second alignment axes so that the patient-specific surgical device is adapted to at least partly align a femur and/or a tibia of said limb with the first and/or second alignment axes. (i) obtaining patient-specific anatomical data of a limb both in flexion and extension; (ii) pre-processing and/or converting the patient-specific anatomical data to form a patient-specific model of the limb both in flexion and extension; (iii) determining a first alignment axis from one or a plurality of first anatomical indicators on a patient-specific model of the limb in extension; (iv) determining a second alignment axis from one or a plurality of second anatomical indicators on the patient-specific model of the limb in flexion; and (v) designing the patient-specific surgical device based at least partly on the determined first and/or second alignment axes so that the patient-specific surgical device is adapted to at least partly align a femur and/or a tibia of said limb with the first and/or second alignment axes.
A deposition arrangement (100; 600) for depositing a material on a flexible substrate (110; 640), comprising: a vacuum chamber ; a roller device (200; 300; 400; 500; 604) provided within the vacuum chamber ; and an electrical heating device (61; 220; 320; 420; 520) within the roller device (200; 300; 400; 500; 604), wherein the electrical heating device (61; 220; 320; 420; 520) comprises a first end and a second end , wherein the electrical heating device (61; 220; 320; 420; 520) is held at the first end and at the second end , wherein the roller device (200; 300; 400; 500; 604) is passively driven, and wherein the roller device (200; 300; 400; 500; 604) is configured to be driven by a motion of the flexible substrate (110; 640) only, wherein the roller device is rotatable with respect to the electrical heating device. a vacuum chamber ; a roller device (200; 300; 400; 500; 604) provided within the vacuum chamber ; and an electrical heating device (61; 220; 320; 420; 520) within the roller device (200; 300; 400; 500; 604), wherein the electrical heating device (61; 220; 320; 420; 520) comprises a first end and a second end , wherein the electrical heating device (61; 220; 320; 420; 520) is held at the first end and at the second end , wherein the roller device (200; 300; 400; 500; 604) is passively driven, and wherein the roller device (200; 300; 400; 500; 604) is configured to be driven by a motion of the flexible substrate (110; 640) only, wherein the roller device is rotatable with respect to the electrical heating device.
Headrest having a head contact part , on which at least one support rod for mounting on the backrest of a vehicle seat is held in such a way as to be immovable or movable relative to the head contact part , and having a bearing sleeve in which the support rod is mounted, wherein the bearing sleeve has a latching element for latching it to a structure of the vehicle seat , said latching element being movable between a latching position, in which the latching element projects beyond an outer surface of the bearing sleeve , and a mounting position, in which it projects beyond an outer surface of the bearing sleeve to a lesser extent than in the latching position, characterized in that the support rod comprises a cutout , into which the latching element can move in the mounting position.
A composition comprising: a first precursor and a second precursor of an intein-modified protease: wherein the first precursor comprises an N-extein of a target protease fused to a solubility enhanced N-intein of a trans-splicing intein, and comprises an amino acid sequence with at least 90% identity to SEQ ID NO: 1; and the second precursor comprises a solubility enhanced C-intein of the trans-splicing intein fused to a C-extein of the target protease, and comprises an amino acid sequence with at least 90% identity to SEQ ID NO: 2; and the first precursor is separated from the second precursor prior to trans-splicing; wherein the intein-modified protease has enhanced solubility and reduced activity compared to the a target protease and the activity of the target protease is restored upon trans-splicing of the intein-modified protease and fusion of the N-extein and the C-extein. wherein the first precursor comprises an N-extein of a target protease fused to a solubility enhanced N-intein of a trans-splicing intein, and comprises an amino acid sequence with at least 90% identity to SEQ ID NO: 1; and the second precursor comprises a solubility enhanced C-intein of the trans-splicing intein fused to a C-extein of the target protease, and comprises an amino acid sequence with at least 90% identity to SEQ ID NO: 2; and the first precursor is separated from the second precursor prior to trans-splicing; wherein the intein-modified protease has enhanced solubility and reduced activity compared to the a target protease and the activity of the target protease is restored upon trans-splicing of the intein-modified protease and fusion of the N-extein and the C-extein.
A method performed by a user equipment, UE, for securing network steering information, comprises: transmitting a registration request to a Visited Public Land Mobile Network, VPLMN; upon successful authentication by an authentication server function, AUSF, generating a home network root key; receiving, from a first network node, a protected message comprising Network Steering Information, which is protected using a configuration key, Kconf, and a first Message Authentication Code, MAC-1; determining the configuration key, Kconf, from the home network root key; verifying, by the UE, the MAC-1; based on the Kconf and the MAC-1, verifying that the VPLMN did not alter Network Steering Information; and transmitting an acknowledgement message to a Home Public Land Mobile Network, HPLMN, the acknowledgement message protected with a second Message Authentication Code, MAC-2. transmitting a registration request to a Visited Public Land Mobile Network, VPLMN; upon successful authentication by an authentication server function, AUSF, generating a home network root key; receiving, from a first network node, a protected message comprising Network Steering Information, which is protected using a configuration key, Kconf, and a first Message Authentication Code, MAC-1; determining the configuration key, Kconf, from the home network root key; verifying, by the UE, the MAC-1; based on the Kconf and the MAC-1, verifying that the VPLMN did not alter Network Steering Information; and transmitting an acknowledgement message to a Home Public Land Mobile Network, HPLMN, the acknowledgement message protected with a second Message Authentication Code, MAC-2.
A moving work device used in a mounting system comprising: a mounting section configured to mount a component on a mounting target; a supply section having a loading section configured to load a feeder including a holding member for holding the component; a mounting device provided with a mounting control section configured to cause the mounting section to pick up the component from the feeder; and a moving work device configured to move the feeder to collect the feeder from or load the feeder to the supply section ; wherein the moving work device comprises: an accommodation section configured to accommodate the feeder; and a moving control section characterized by being configured to receive an exchange feeder, after acquiring a component depletion notification for notifying in advance of a component depletion of a notification feeder where component depletion is predicted to occur, for exchanging in the accommodation section , and cause the exchange feeder to stand by, to be exchanged, in front of a loading section of the notification feeder in which there was an advance notification of component depletion. a mounting section configured to mount a component on a mounting target; a supply section having a loading section configured to load a feeder including a holding member for holding the component; a mounting device provided with a mounting control section configured to cause the mounting section to pick up the component from the feeder; and a moving work device configured to move the feeder to collect the feeder from or load the feeder to the supply section ; wherein the moving work device comprises: an accommodation section configured to accommodate the feeder; and a moving control section characterized by being configured to receive an exchange feeder, after acquiring a component depletion notification for notifying in advance of a component depletion of a notification feeder where component depletion is predicted to occur, for exchanging in the accommodation section , and cause the exchange feeder to stand by, to be exchanged, in front of a loading section of the notification feeder in which there was an advance notification of component depletion. an accommodation section configured to accommodate the feeder; and a moving control section characterized by being configured to receive an exchange feeder, after acquiring a component depletion notification for notifying in advance of a component depletion of a notification feeder where component depletion is predicted to occur, for exchanging in the accommodation section , and cause the exchange feeder to stand by, to be exchanged, in front of a loading section of the notification feeder in which there was an advance notification of component depletion.
A sensor arrangement for temperature measurement in melts, in particular in cryolite melts, with a melting point of above 600°C, comprising a temperature sensor, which has an immersion end , comprising a container , which is arranged on a carrier and which has an opening on its upper side, and in which the temperature sensor is arranged, wherein the temperature sensor has a tube , which protrudes into the container and in which an optical fibre is arranged, which has, abutting on its jacket surface, a jacket tube, wherein the tube is closed on its end, which is arranged in the container , wherein the closed end of the tube has a distance of between 0.1 and 5 mm from the base of the container , and wherein the optical fibre is movably arranged in the tube .
A modular building apparatus for pharmaceutical cleanroom manufacturing comprising: a controlled air, sealable cleanroom having a ceiling ; a mechanical room ; a unitary frame for a modular building, the frame surrounding the cleanroom and the mechanical room and projecting above the cleanroom ceiling ; joists suspended by the frame above the ceiling of the sealable cleanroom and forming an interstitial volume above the ceiling and below the joists ; a utility service component mounted within the interstitial volume ; and a duct , a pipe , or an electrical conduit running from the mechanical room , through the interstitial volume , and to the utility service component , wherein the apparatus is characterised in that it further walkable floor panels supported by the joists and over the utility service component , at least some of the floor panels being removable in order to provide personnel access to the utility service component . a controlled air, sealable cleanroom having a ceiling ; a mechanical room ; a unitary frame for a modular building, the frame surrounding the cleanroom and the mechanical room and projecting above the cleanroom ceiling ; joists suspended by the frame above the ceiling of the sealable cleanroom and forming an interstitial volume above the ceiling and below the joists ; a utility service component mounted within the interstitial volume ; and a duct , a pipe , or an electrical conduit running from the mechanical room , through the interstitial volume , and to the utility service component , wherein the apparatus is characterised in that it further walkable floor panels supported by the joists and over the utility service component , at least some of the floor panels being removable in order to provide personnel access to the utility service component .
A combination of active ingredients consisting of diosmin, Ruscus aculeatus, Vitis vinifera and Melilotus officinalis, characterized in that the weight ratios of diosmin/Ruscus aculeatus / Vitis vinifera / Melilotus officinalis are 1/0.2-0.8/0.2-0.6/0.04-0.2, preferably 1/0.3-0.6/0.3-0.5/0.06-0.15, more preferably about 1/0.4/0.4/0.1.