mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communications at a user equipment, UE, comprising: determining that a first uplink control information message with a first priority, a second uplink control information message with a second priority, and an uplink shared channel message overlap, wherein the first priority is higher than the second priority; selecting a first set of resources on a physical uplink shared channel for the first uplink control information message based at least in part on the first priority; selecting a second set of resources on the physical uplink shared channel for the second uplink control information message based at least in part on the second priority, wherein the second set of resources is non-overlapping with the first set of resources; and transmitting the first uplink control information message on the first set of resources and the second uplink control information message on the second set of resources on the physical uplink shared channel. determining that a first uplink control information message with a first priority, a second uplink control information message with a second priority, and an uplink shared channel message overlap, wherein the first priority is higher than the second priority; selecting a first set of resources on a physical uplink shared channel for the first uplink control information message based at least in part on the first priority; selecting a second set of resources on the physical uplink shared channel for the second uplink control information message based at least in part on the second priority, wherein the second set of resources is non-overlapping with the first set of resources; and transmitting the first uplink control information message on the first set of resources and the second uplink control information message on the second set of resources on the physical uplink shared channel.
A fluid ejection device comprising: a fluid ejection die embedded in a moldable material ; a number of fluid recirculation pumps within the fluid ejection die to recirculate fluid within a number of firing chambers of the fluid ejection die ; and a number of heat exchangers thermally coupled to a fluid channel side of the fluid ejection die , wherein the heat exchangers comprise a loop heat exchanger . a fluid ejection die embedded in a moldable material ; a number of fluid recirculation pumps within the fluid ejection die to recirculate fluid within a number of firing chambers of the fluid ejection die ; and a number of heat exchangers thermally coupled to a fluid channel side of the fluid ejection die , wherein the heat exchangers comprise a loop heat exchanger .
A COMPENSATION NUT formed by an assembly of a nut and a bolt and used to attach, using a second bolt, an application to a surface or panel while maintaining a variable distance between said surface and the supporting element or chassis in which the nut is attached, preventing this distance from collapsing when said second bolt is tightened, the compensation nut including a slightly flexible plastic annular body held tightly in a cylindrical axial internal hollow of said bolt , CHARACTERIZED IN THAT an internal wall of said bolt of the compensation nut has hooks oriented towards the position of the nut , said hooks being covered by said plastic annular body .
A compound having the formula: wherein B 1 is a nucleobase; R 1 is -OH, a monophosphate moiety, polyphosphate moiety, or nucleic acid moiety, ; R 2 is hydrogen; R 7 is unsubstituted or substituted aryl, or substituted or unsubstituted heteroaryl; and R 8 is unsubstituted C 1 -C 6 alkyl. B 1 is a nucleobase; R 1 is -OH, a monophosphate moiety, polyphosphate moiety, or nucleic acid moiety, ; R 2 is hydrogen; R 7 is unsubstituted or substituted aryl, or substituted or unsubstituted heteroaryl; and R 8 is unsubstituted C 1 -C 6 alkyl.
A customizable, self-molding, fiber-reinforced composite insulation system (10; 50; 100; 200; 250; 402; 404; 950a; 950b) that is structured to be applied to a component (30; 110; 210; 260; 310; 410; 800; 900), comprising: at least one structural reinforcement layer (60; 80; 420), the at least one structural reinforcement layer being structured to provide structural support, insulation or protection to the component (30; 110; 210; 260; 310; 410; 800; 900); a self-molding fabric fiber cover structured to encase the at least one structural reinforcement layer (60; 80; 420) and provide compression around the at least one structural reinforcement layer (60; 80; 420) and at least partially around the component without application of external forces; and a liquid polymer matrix solution structured to be applied to the at least one structural reinforcement layer (60; 80; 420) and the self-molding fiber cover positioned at least partially on the component (30; 110; 210; 260; 310; 410; 800; 900), wherein the at least one structural reinforcement layer (60; 80) and the self-molding fiber cover are structured such that the liquid polymer matrix solution flows within and infuses both the at least one structural reinforcement layer (60; 80) and the self-molding fiber cover from the outside of the self-molding fiber cover to the inside of the at least one structural reinforcement layer (60; 80), wherein the liquid polymer matrix solution is structured to be cured to thereby form a continuous matrix from the outside of the self-molding fiber cover to the inside of the at least one structural reinforcement layer (60; 80). at least one structural reinforcement layer (60; 80; 420), the at least one structural reinforcement layer being structured to provide structural support, insulation or protection to the component (30; 110; 210; 260; 310; 410; 800; 900); a self-molding fabric fiber cover structured to encase the at least one structural reinforcement layer (60; 80; 420) and provide compression around the at least one structural reinforcement layer (60; 80; 420) and at least partially around the component without application of external forces; and a liquid polymer matrix solution structured to be applied to the at least one structural reinforcement layer (60; 80; 420) and the self-molding fiber cover positioned at least partially on the component (30; 110; 210; 260; 310; 410; 800; 900), wherein the at least one structural reinforcement layer (60; 80) and the self-molding fiber cover are structured such that the liquid polymer matrix solution flows within and infuses both the at least one structural reinforcement layer (60; 80) and the self-molding fiber cover from the outside of the self-molding fiber cover to the inside of the at least one structural reinforcement layer (60; 80), wherein the liquid polymer matrix solution is structured to be cured to thereby form a continuous matrix from the outside of the self-molding fiber cover to the inside of the at least one structural reinforcement layer (60; 80).
A nanostructure comprising a ribonucleic acid (RNA) scaffold comprising a hexameric tetrahedral core, wherein the tetrahedral core comprises four hexameric RNA nanorings linked together.
A microfluidic sensor to detect a characteristic of a fluid, the microfluidic sensor comprising: a substrate ; a microfluidic channel , supported by the substrate , to direct the fluid; an optical spectrometer integrated with the microfluidic channel as part of a chip, the optical spectrometer comprising: a waveguide being supported by the substrate , the waveguide comprising an input coupler and output couplers ; a light source , supported by the substrate , to direct light to an input coupler of a waveguide ; optical sensors supported by the substrate , each of the optical sensors being optically coupled to the output couplers ; and the microfluidic sensor being characterized by : a reference microfluidic channel , supported by the substrate , for receiving a reference fluid, a reference waveguide supported by the substrate , the reference waveguide comprising a reference input coupler and reference output couplers , an input to the reference microfluidic channel comprising a pillar filter arranged to filter the reference fluid, and reference optical sensors , supported by the substrate , the reference optical sensors being coupled to the reference output couplers . a substrate ; a microfluidic channel , supported by the substrate , to direct the fluid; an optical spectrometer integrated with the microfluidic channel as part of a chip, the optical spectrometer comprising: a waveguide being supported by the substrate , the waveguide comprising an input coupler and output couplers ; a light source , supported by the substrate , to direct light to an input coupler of a waveguide ; a waveguide being supported by the substrate , the waveguide comprising an input coupler and output couplers ; a light source , supported by the substrate , to direct light to an input coupler of a waveguide ; optical sensors supported by the substrate , each of the optical sensors being optically coupled to the output couplers ; and the microfluidic sensor being characterized by : a reference microfluidic channel , supported by the substrate , for receiving a reference fluid, a reference waveguide supported by the substrate , the reference waveguide comprising a reference input coupler and reference output couplers , an input to the reference microfluidic channel comprising a pillar filter arranged to filter the reference fluid, and reference optical sensors , supported by the substrate , the reference optical sensors being coupled to the reference output couplers . a reference microfluidic channel , supported by the substrate , for receiving a reference fluid, a reference waveguide supported by the substrate , the reference waveguide comprising a reference input coupler and reference output couplers , an input to the reference microfluidic channel comprising a pillar filter arranged to filter the reference fluid, and reference optical sensors , supported by the substrate , the reference optical sensors being coupled to the reference output couplers .
A method, comprising: assigning , based on a plurality of criteria, a plurality of log messages to a first message block, wherein the association between a message and a message block is determined based on the plurality of criteria; removing redundant message elements from the plurality of log messages; generating , based on contents of the messages assigned to the first message block, a message block vector in a vector space; determining a position of the message block vector in the vector space is within a defined volume in the vector space, the defined volume associated with a remedial action; in response to determining that the message block vector is within the defined volume, automatically performing the remedial action. assigning , based on a plurality of criteria, a plurality of log messages to a first message block, wherein the association between a message and a message block is determined based on the plurality of criteria; removing redundant message elements from the plurality of log messages; generating , based on contents of the messages assigned to the first message block, a message block vector in a vector space; determining a position of the message block vector in the vector space is within a defined volume in the vector space, the defined volume associated with a remedial action; in response to determining that the message block vector is within the defined volume, automatically performing the remedial action.
A disposable drug delivery device for selecting and dispensing a number of user variable doses of a medicament, comprising a housing , a cartridge holder for retaining a cartridge containing the medicament, a piston rod displaceable relative to the cartridge holder , a driver coupled to the piston rod , a display member for indicating a set dose and being coupled to the housing and to the driver , and a button coupled to the display member and to the driver , characterized in that the drug delivery device comprises the following features: - the housing comprises an outer body and an inner body with the outer body being a one-piece component with the cartridge holder , and - a first rotationally acting clutch is formed by the button and the display member which is in its coupled state during dose setting and in its decoupled state during dose dispensing, and a second rotationally acting clutch formed by the driver and the housing which is in its decoupled state during dose setting and in its coupled state during dose dispensing. - the housing comprises an outer body and an inner body with the outer body being a one-piece component with the cartridge holder , and - a first rotationally acting clutch is formed by the button and the display member which is in its coupled state during dose setting and in its decoupled state during dose dispensing, and a second rotationally acting clutch formed by the driver and the housing which is in its decoupled state during dose setting and in its coupled state during dose dispensing.
Floor element for forming a floor covering consisting of such floor elements , which, at least at a first pair of two opposite sides (7-8), comprises coupling parts (9-10), which substantially are performed as a male coupling part and a female coupling part , which are provided with vertically active locking portions (11-12), which, when the coupling parts (9-10) of two of such floor elements cooperate with each other, effect a locking in vertical direction (V1), perpendicular to the plane of the floor elements , and also are provided with horizontally active locking portions (13-14), which, when the coupling parts (9-10) of two of such floor elements cooperate with each other, effect a locking in horizontal direction (H1), perpendicular to the respective sides (7-8) and in the plane of the floor elements , wherein said coupling parts (9-10) are of the type allowing that two of such floor elements can be connected to each other at said sides (7-8) by pushing one of these floor elements with the associated male coupling part , by means of a downward movement , home into the female coupling part of the other floor element , wherein the male coupling part as well as the female coupling part , are entirely made of a filled synthetic material composite; wherein said floor element comprises at least a substrate , wherein this substrate substantially consists of said filled synthetic material composite; wherein said substrate forms both sides (7-8), of said first pair of opposite sides (7-8); characterized in that said filled synthetic material composite comprises an inorganic filling material, such as glass fibers; and in that the floor element comprises a wooden top layer, such as a veneer, or a laminate layer of the DPL (Direct Pressure Laminate) or HPL (High Pressure Laminate) type and in that the floor element has a second pair of opposite sides (41-42), which also are provided with mutually cooperating coupling parts (9-10), which substantially are made as a male and a female coupling part , which are provided with vertically active locking portions (11-12) and horizontally active locking portions (13-14), said coupling parts (9-10) at the second pair of opposite sides (41-42) being of the type allowing interconnecting two of such floor elements at the second pair of sides (41-42) by providing one of these floor elements with the associated male coupling part , by means of a turning movement, in the female coupling part of the other floor element .
Two-wheeler tyre whose tread is composed of a sulfur-crosslinked rubber mixture containing at least the following constituents: - 10 to 100 phr of natural polyisoprene from dandelion and - 30 to 70 phr of silica. - 10 to 100 phr of natural polyisoprene from dandelion and - 30 to 70 phr of silica.
Operating method for a continuous casting plant, - wherein, by means of a number of continuous casting moulds , a corresponding number of metal strands are cast, - wherein the metal strands are withdrawn substantially vertically downwards out of the respective continuous casting mould and are fed via a respective curved guide to a straightening zone , - wherein in the straightening zone the metal strands run through a number of withdrawal and straightening units , - wherein the withdrawal and straightening units are arranged in a supporting framework , which has, seen in the transporting direction (x) of the metal strands , for each metal strand a number of receptacles , arranged one behind the other, respectively for a withdrawal and straightening unit , characterized in that , for each metal strand , no withdrawal and straightening unit is arranged either in a number of forward receptacles , the forwardmost of which is adjacent to the respective curved guide , or in a number of rear receptacles , which are furthest away from the respective curved guide , and a withdrawal and straightening unit is only respectively arranged in the remaining receptacles . - wherein, by means of a number of continuous casting moulds , a corresponding number of metal strands are cast, - wherein the metal strands are withdrawn substantially vertically downwards out of the respective continuous casting mould and are fed via a respective curved guide to a straightening zone , - wherein in the straightening zone the metal strands run through a number of withdrawal and straightening units , - wherein the withdrawal and straightening units are arranged in a supporting framework , which has, seen in the transporting direction (x) of the metal strands , for each metal strand a number of receptacles , arranged one behind the other, respectively for a withdrawal and straightening unit ,
A radiator, configured to transfer heat between a fluid in an interior thereof and a surrounding environment, wherein the radiator comprises: - an extruded body, comprising at least four fluid channels therein, of which a fluid flow direction substantially extends in a first direction and wherein the fluid channels are disposed adjacent each other in a second direction, which is perpendicular to the first direction; - two closure elements, sealingly mounted against head ends of the extruded body and of the fluid channels; - fins on sides of the extruded body to form elongate air channels, wherein the fins are configured to increase the interfacial area between the radiator and the environment; and - a casing comprising multiple wall elements which extend in the second direction, wherein the casing is configured to increase the draft of air through the air channels, characterized in that the closure elements form connection channels, which are configured to fluidly connect adjacent fluid channels in series and in that an air flow direction through the air channels extends in the second direction. - an extruded body, comprising at least four fluid channels therein, of which a fluid flow direction substantially extends in a first direction and wherein the fluid channels are disposed adjacent each other in a second direction, which is perpendicular to the first direction; - two closure elements, sealingly mounted against head ends of the extruded body and of the fluid channels; - fins on sides of the extruded body to form elongate air channels, wherein the fins are configured to increase the interfacial area between the radiator and the environment; and - a casing comprising multiple wall elements which extend in the second direction, wherein the casing is configured to increase the draft of air through the air channels,
System unit comprising an electrolysis module and comprising an anchoring unit having - at least one first insulation layer and at least one second insulation layer , - a support layer for mechanically stabilizing the insulation layers , wherein the support layer is arranged between the first insulation layer and the second insulation layer , wherein at least the first insulation layer and the support layer are surrounded by an elastic, electrically insulating, water-tight covering , - at least two screws, wherein the screws are aligned in opposite directions, wherein a first screw is suitable for anchoring to the electrolysis module and a second screw is suitable for anchoring to an anchor object , wherein a first screw shaft of the first screw and/or a second screw shaft of the second screw is at least partially surrounded by an electrically insulating insulation sleeve , wherein the first screw is connected to the electrolysis module and the second screw is connected to the anchor object . - at least one first insulation layer and at least one second insulation layer , - a support layer for mechanically stabilizing the insulation layers , wherein the support layer is arranged between the first insulation layer and the second insulation layer , wherein at least the first insulation layer and the support layer are surrounded by an elastic, electrically insulating, water-tight covering , - at least two screws, wherein the screws are aligned in opposite directions, wherein a first screw is suitable for anchoring to the electrolysis module and a second screw is suitable for anchoring to an anchor object , wherein a first screw shaft of the first screw and/or a second screw shaft of the second screw is at least partially surrounded by an electrically insulating insulation sleeve , wherein the first screw is connected to the electrolysis module and the second screw is connected to the anchor object .
An electric traction module for a vehicle, comprising at least an electric motor , a first and a second output shaft and a transmission configured to connect said at least one electric motor to at least one of said first and second output shafts , said electric traction module further comprising a framework configured to define an internal volume inside of which said electric motor , said transmission and at least part of said first and second output shafts are housed, wherein said module comprises two motors both incident to a common shaft , said mechanical transmission comprises a differential interposed between said output shafts and said two motors , wherein said common shaft is connected to a gear train-holder of said differential by means of a cogged wheel gear, and wherein said module comprises velocity/torque selector means configured to vary the velocity provided by said common shaft to said differential according to at least two velocity/torque ratios, wherein said velocity/torque selector means comprise a selector carried by said common shaft and at least a pair of cogged wheels , carried in a rotatably free manner relative to said common shaft and cooperating with respective at least one cogged wheel carried by said gear train-holder , said selector being configured to make one of said cogged wheels selectively integral with the rotation to said common shaft . said module comprises two motors both incident to a common shaft , said mechanical transmission comprises a differential interposed between said output shafts and said two motors , wherein said common shaft is connected to a gear train-holder of said differential by means of a cogged wheel gear, and wherein said module comprises velocity/torque selector means configured to vary the velocity provided by said common shaft to said differential according to at least two velocity/torque ratios, wherein said velocity/torque selector means comprise a selector carried by said common shaft and at least a pair of cogged wheels , carried in a rotatably free manner relative to said common shaft and cooperating with respective at least one cogged wheel carried by said gear train-holder , said selector being configured to make one of said cogged wheels selectively integral with the rotation to said common shaft .