mhurhangee/patent-ind-claim-en huggingface dataset:
Thermo management module for the handling of at least one fluid in a vehicle, particularly an at least partly electrically driven vehicle, comprising at least one essentially plate-shaped formed first distribution element and at least one second distribution element arranged essentially parallel to the first distribution element , wherein the first distribution element and/or the second distribution element comprise(s) at least region-wisely at least one fluid handling element and wherein the first distribution element and the second distribution element comprise at least region-wisely plastics.
A type I IFN receptor (IFNR) inhibitor for use in a method of treating systemic lupus erythematosus (SLE) in a subject in need thereof, the method comprising administering to the subject a therapeutically effective amount of the type I interferon (IFN) receptor (IFNR) inhibitor, wherein at baseline the subject has a low type I IFN gene signature (IFNGS), wherein the IFNR inhibitor reduces SLE disease activity in the subject, wherein the IFNR inhibitor is anifrolumab, and wherein the IFNGS of the subject at baseline is measurable by a 4-gene quantitative polymerase chain reaction-based test, wherein the test measures IFI27, IFI44, lFI44L and RSAD2 expression in the whole blood of the subject.
A pick-up head for machines for picking up crops in a field, comprising a structure adapted to be connected to the front part of a machine for picking up crops, which can move on the ground along an advancement direction , and extends substantially transversely to said advancement direction , said structure supporting a plurality of pick-up units arranged mutually side by side and each provided with a respective longitudinal passage designed to be crossed axially by the crops to be picked up and delimited longitudinally by a pair of traction elements , which are mutually opposite and are adapted to push the crops along said longitudinal passage , above said pick-up units there being a plurality of pick-up container bodies , each of which forms a respective receptacle , which is open upward, said bodies being separated from each other by longitudinal slots , each arranged above the longitudinal passage of a respective pick-up unit , and designed to be crossed longitudinally by the crops entrained by said traction elements , wherein the pick-up head comprises means for the at least partial closure of at least one of said longitudinal slots , said closure means extending along at least one longitudinal edge of said at least one longitudinal slot and being elastically flexible in order to allow their elastic deformation upon the passage of the crops along the extension of said at least one longitudinal slot characterized in that said closure means comprise at least one brush that extends along at least one portion of said one at least one longitudinal edge, the bristles of said at least one brush extending from said at least one longitudinal edge toward the axis of said at least one longitudinal slot .
An image processing apparatus comprising: a processor configured to detect an image of an object from a surrounding image capturing surroundings of a moveable body and determine an action of the moveable body based on a state of the object ; and an output interface configured to output, to the moveable body , information with an instruction to perform the action of the moveable body determined by the processor ; wherein the processor is configured to determine a first action of the moveable body based on the state of the object detected from the surrounding image, and output information with an instruction to perform the first action to the moveable body via the output interface , wherein the processor is configured to, when a reaction for which an intention of the object is recognizable to the first action is not obtained based on the state of the object detected from the surrounding image after the first action by the moveable body , determine a second action of the moveable body , enabling the moveable body to encourage the object to react, characterized in that the first action and the second action are different actions, determined in accordance with a predetermined order of priority. a processor configured to detect an image of an object from a surrounding image capturing surroundings of a moveable body and determine an action of the moveable body based on a state of the object ; and an output interface configured to output, to the moveable body , information with an instruction to perform the action of the moveable body determined by the processor ; wherein the processor is configured to determine a first action of the moveable body based on the state of the object detected from the surrounding image, and output information with an instruction to perform the first action to the moveable body via the output interface , wherein the processor is configured to, when a reaction for which an intention of the object is recognizable to the first action is not obtained based on the state of the object detected from the surrounding image after the first action by the moveable body , determine a second action of the moveable body , enabling the moveable body to encourage the object to react, characterized in that the first action and the second action are different actions, determined in accordance with a predetermined order of priority.
A computer-implemented method comprising: receiving well log data comprising a plurality of well logs; identifying one or more sections of one or more well logs of the plurality of well logs that have substantially complete data; further comprising extracting one or more incomplete sections of the one or more incomplete well logs of the plurality of well logs, prior to training a reconstruction neural network, such that the reconstruction neural network is not trained using the one or more incomplete sections; training the reconstruction neural network to reconstruct incomplete well logs based on the one or more sections of the one or more well logs that have substantially complete data; detecting one or more outlier sections of the one or more well logs that have substantially complete data; wherein detecting the one or more outlier sections comprises: training an outlier detection neural network using the one or more sections that have substantially complete data; generating one or more estimated well logs based on original well log data using the outlier detection neural network; and identifying the one or more outlier sections at least partially by comparing the one or more estimated well logs with the original well log data; and extracting the one or more outlier sections prior to training the reconstruction neural network, such that the reconstruction neural network is not trained using the one or more outlier sections; and reconstructing one or more incomplete well logs of the plurality of well logs using the reconstruction neural network. receiving well log data comprising a plurality of well logs; identifying one or more sections of one or more well logs of the plurality of well logs that have substantially complete data; further comprising extracting one or more incomplete sections of the one or more incomplete well logs of the plurality of well logs, prior to training a reconstruction neural network, such that the reconstruction neural network is not trained using the one or more incomplete sections; training the reconstruction neural network to reconstruct incomplete well logs based on the one or more sections of the one or more well logs that have substantially complete data; detecting one or more outlier sections of the one or more well logs that have substantially complete data; training an outlier detection neural network using the one or more sections that have substantially complete data; generating one or more estimated well logs based on original well log data using the outlier detection neural network; and identifying the one or more outlier sections at least partially by comparing the one or more estimated well logs with the original well log data; and extracting the one or more outlier sections prior to training the reconstruction neural network, such that the reconstruction neural network is not trained using the one or more outlier sections; and reconstructing one or more incomplete well logs of the plurality of well logs using the reconstruction neural network.
A method for manufacturing a mechanical clinched joint component, the method sequentially comprising: heating two or more steel sheets to an Ac3 temperature or above, the steel sheets having a tensile strength of 1180 MPa or more; and performing mechanical clinch joining so that a carbon equivalent Ceq of the steel sheets, and a bottom-dead-center holding time t and a joining start temperature T during mechanical clinch joining satisfy relationships of equation below and of equation below: Ceq × 0.00209 × t + 0.000731 × T − 0.0365 ≥ 0.200 Ceq ≥ − 0.00071 × T + 0.993 where Ceq represents the carbon equivalent (mass%) of the steel sheets calculated by equation below, t represents the bottom-dead-center holding time (second), and T represents the joining start temperature (°C), wherein, if a value of Ceq differs in the two or more steel sheets, a lowest value of Ceq is used, Ceq = C + 1 / 6 × Mn + 1 / 24 × Si + 1 / 40 × Ni + 1 / 5 × Cr + 1 / 4 × Mo + 1 / 14 × V where each of element names represents a content in mass% in the steel sheets, and represents zero if that element is not contained, and wherein the mechanical clinched joint component includes at least one joint portion, Ac3 transformation point (°C) = 910 - 203 × [C]0.5 - 15.2 × [Ni] + 44.7 × [Si] + 104 × [V] + 31.5 × [Mo] + 13.1 × [W] - 30 × [Mn] - 11 × [Cr] - 20 × [Cu] + 700 × [P] + 400 × [Al] + 400 [Ti], and hot press forming is also performed in the step of performing mechanical clinch joining. heating two or more steel sheets to an Ac3 temperature or above, the steel sheets having a tensile strength of 1180 MPa or more; and performing mechanical clinch joining so that a carbon equivalent Ceq of the steel sheets, and a bottom-dead-center holding time t and a joining start temperature T during mechanical clinch joining satisfy relationships of equation below and of equation below: Ceq × 0.00209 × t + 0.000731 × T − 0.0365 ≥ 0.200 Ceq ≥ − 0.00071 × T + 0.993 where Ceq represents the carbon equivalent (mass%) of the steel sheets calculated by equation below, t represents the bottom-dead-center holding time (second), and T represents the joining start temperature (°C), wherein, if a value of Ceq differs in the two or more steel sheets, a lowest value of Ceq is used, Ceq = C + 1 / 6 × Mn + 1 / 24 × Si + 1 / 40 × Ni + 1 / 5 × Cr + 1 / 4 × Mo + 1 / 14 × V where each of element names represents a content in mass% in the steel sheets, and represents zero if that element is not contained, and wherein the mechanical clinched joint component includes at least one joint portion, Ac3 transformation point (°C) = 910 - 203 × [C]0.5 - 15.2 × [Ni] + 44.7 × [Si] + 104 × [V] + 31.5 × [Mo] + 13.1 × [W] - 30 × [Mn] - 11 × [Cr] - 20 × [Cu] + 700 × [P] + 400 × [Al] + 400 [Ti], and hot press forming is also performed in the step of performing mechanical clinch joining.
A fluid control device comprising: a first conduit having a first end and a second end , a first fluid configured to move within the first conduit between the first end and the second end , the first conduit including an interior surface defining a cavity of the first conduit ; a second conduit having a third end and a fourth end , a second fluid configured to move within the second conduit between the third end and the fourth end , wherein at least a portion of the second conduit extends within the cavity of the first conduit , characterized by a structure operably coupled with an exterior surface of the second conduit and extending a distance away from the exterior surface of the second conduit and into the cavity of the first conduit , the structure extending into the first conduit and configured to interfere with the first fluid as the first fluid moves within the first conduit to change one or more characteristics of the first fluid moving within the first conduit , wherein the first fluid is separate from the second fluid as the first fluid and the second fluid move within the fluid control device . a first conduit having a first end and a second end , a first fluid configured to move within the first conduit between the first end and the second end , the first conduit including an interior surface defining a cavity of the first conduit ; a second conduit having a third end and a fourth end , a second fluid configured to move within the second conduit between the third end and the fourth end , wherein at least a portion of the second conduit extends within the cavity of the first conduit , characterized by a structure operably coupled with an exterior surface of the second conduit and extending a distance away from the exterior surface of the second conduit and into the cavity of the first conduit , the structure extending into the first conduit and configured to interfere with the first fluid as the first fluid moves within the first conduit to change one or more characteristics of the first fluid moving within the first conduit , wherein the first fluid is separate from the second fluid as the first fluid and the second fluid move within the fluid control device .
Network apparatus for orchestration and service management comprising: means for transmitting an instruction to a first network apparatus for monitoring service migration, the instruction instructing the first network apparatus to: duplicate at least one uplink data packet received from a communication apparatus; transmit during migration of service for said communication apparatus between a first service point to a second service point: said at least one uplink data packet to said first service point; and said at least one uplink data packet to said second service point. duplicate at least one uplink data packet received from a communication apparatus; transmit during migration of service for said communication apparatus between a first service point to a second service point: said at least one uplink data packet to said first service point; and said at least one uplink data packet to said second service point. said at least one uplink data packet to said first service point; and said at least one uplink data packet to said second service point.
A kit for use in restoring muscle function of the lumbar spine, the kit comprising: an electrode lead (200, 200', 200", 200"') configured to be implanted in or adjacent to a tissue associated with control of the lumbar spine, the electrode lead having a proximal end and a distal end with one or more electrodes disposed thereon; an implantable pulse generator (300, 300', 300") configured to be coupled to the proximal end of the electrode lead, the implantable pulse generator having a programmable controller configured to provide electrical stimulation via the one or more electrodes disposed on the electrode lead; a tunneler comprising an elongated shaft, a threaded distal portion , a proximal end having a handle , and a stopper positioned between the elongated shaft and the handle; a sheath having a lumen extending therethrough configured to receive a portion of the tunneler and the proximal end of the electrode lead, the sheath sized and shaped to fit over the elongated shaft of the tunneler between the stopper and the threaded distal portion of the tunneler, the sheath further configured to be disposed temporarily in a subcutaneous passage; and a tunneler tip having a mating portion configured to be coupled to the threaded distal portion of the tunneler, the tunneler tip configured to create the subcutaneous passage to accept the sheath, characterized in that the tunneler tip is selected from group comprising a bullet-shaped tunneler tip and a facet-shaped tunneler tip . an electrode lead (200, 200', 200", 200"') configured to be implanted in or adjacent to a tissue associated with control of the lumbar spine, the electrode lead having a proximal end and a distal end with one or more electrodes disposed thereon; an implantable pulse generator (300, 300', 300") configured to be coupled to the proximal end of the electrode lead, the implantable pulse generator having a programmable controller configured to provide electrical stimulation via the one or more electrodes disposed on the electrode lead; a tunneler comprising an elongated shaft, a threaded distal portion , a proximal end having a handle , and a stopper positioned between the elongated shaft and the handle; a sheath having a lumen extending therethrough configured to receive a portion of the tunneler and the proximal end of the electrode lead, the sheath sized and shaped to fit over the elongated shaft of the tunneler between the stopper and the threaded distal portion of the tunneler, the sheath further configured to be disposed temporarily in a subcutaneous passage; and a tunneler tip having a mating portion configured to be coupled to the threaded distal portion of the tunneler, the tunneler tip configured to create the subcutaneous passage to accept the sheath, characterized in that the tunneler tip is selected from group comprising a bullet-shaped tunneler tip and a facet-shaped tunneler tip .
An assembly for routing an injection fluid to a mold cavity in an injection molding apparatus comprised of an injection molding machine , a heated manifold that receives the injection fluid , and a valve pin drivable along an upstream and downstream path of travel (UD) through a fluid delivery channel leading to a cavity of a mold , comprising: a distal nozzle tip comprising a distal projection having an outer circumferential surface and a central bore that communicates with the fluid delivery channel and having an inner surface adapted to receive a distal end of the valve pin , a mold having a cavity entrance aperture forming a gate through which the injection fluid is routed into the cavity , the cavity entrance aperture having a downstream inner circumferential surface , characterised by the distal nozzle tip being mounted such that the distal projection is disposed in a stationary position within the cavity entrance aperture wherein the outer circumferential surface of the distal nozzle tip is disposed adjacent the downstream inner circumferential surface forming a gap (Z) having a width sufficient to enable air or gas to flow upstream (AU1) through the gap (Z) upon downstream movement (D) of the distal end of the valve pin through the central bore of the distal projection . a distal nozzle tip comprising a distal projection having an outer circumferential surface and a central bore that communicates with the fluid delivery channel and having an inner surface adapted to receive a distal end of the valve pin , a mold having a cavity entrance aperture forming a gate through which the injection fluid is routed into the cavity , the cavity entrance aperture having a downstream inner circumferential surface , characterised by the distal nozzle tip being mounted such that the distal projection is disposed in a stationary position within the cavity entrance aperture wherein the outer circumferential surface of the distal nozzle tip is disposed adjacent the downstream inner circumferential surface forming a gap (Z) having a width sufficient to enable air or gas to flow upstream (AU1) through the gap (Z) upon downstream movement (D) of the distal end of the valve pin through the central bore of the distal projection .
Watch case adapted to be integrated into a wrist watch device, the watch case comprising a main body having an inner volume (2.1) for housing internal components of said wrist watch device, a bottom (2.3) and attachment means (2.2) having points of attachment (2.2.6) for attaching at least one watch strap of said wrist watch device, wherein at least one portion (2.1.2) of said inner volume (2.1) of the watch case extends laterally beyond the points of attachment (2.2.6) for said at least one watch strap , characterised in that said points of attachment (2.2.6) for said at least one watch strap , are situated at a height of about 30% to 60% of the total height of the main body of the watch case above the plane of the bottom (2.3) of the watch case.
A method for extracting nucleic acids from a sample comprising: a) obtaining a sample comprising nucleic acids; b) contacting the sample with a sufficient amount of silica nanomembranes, wherein said silica nanomembranes comprise a heat shrunken polymer core coated with a silicon dioxide layer having a thickness between 20 nm to 150 nm; wherein said silica nanomembranes are made by: (i) depositing the layer of silicon dioxide onto a polymer film or core; and (ii) heating the composition of (i) at a sufficient temperature and time to allow the polymer film or core to shrink, wherein the shrinking of the polymer film or core creates silica microstructures and/or nanostructures on a surface of the layer of silica on the silica nanomembrane; and wherein the silica microstructures and/or nanostructures on the surface of the layer of silica comprise silica microscale wrinkles overlaid with silica nanoscale flakes; c) allowing the nucleic acids in the sample to adsorb onto the silica nanomembranes; d) washing the silica nanomembranes to remove any non-nucleic acid components; and e) desorbing the nucleic acids from the silica nanomembranes to obtain the isolated and purified nucleic acids from the sample. a) obtaining a sample comprising nucleic acids; b) contacting the sample with a sufficient amount of silica nanomembranes, wherein said silica nanomembranes comprise a heat shrunken polymer core coated with a silicon dioxide layer having a thickness between 20 nm to 150 nm; wherein said silica nanomembranes are made by: (i) depositing the layer of silicon dioxide onto a polymer film or core; and (ii) heating the composition of (i) at a sufficient temperature and time to allow the polymer film or core to shrink, wherein the shrinking of the polymer film or core creates silica microstructures and/or nanostructures on a surface of the layer of silica on the silica nanomembrane; and wherein the silica microstructures and/or nanostructures on the surface of the layer of silica comprise silica microscale wrinkles overlaid with silica nanoscale flakes; c) allowing the nucleic acids in the sample to adsorb onto the silica nanomembranes; d) washing the silica nanomembranes to remove any non-nucleic acid components; and e) desorbing the nucleic acids from the silica nanomembranes to obtain the isolated and purified nucleic acids from the sample.