mhurhangee/patent-ind-claim-en huggingface dataset:
A piping for use in an oil or gas environment, wherein the piping is provided with an RFID tag for identifying said piping , wherein said piping comprises a first end section (10-2) for being coupled to a second piping and a second end section (10-2), wherein said piping further comprises a mid-section (10-1) in between said end sections (10-2), the piping having an outer surface (S), wherein the RFID tag is provided in an elongated recess that is formed in the piping and wherein said recess is provided in the outer surface (S) and extends in a tangential direction or axial direction (DT), wherein said recess elongates a direction parallel to the surface (S) where the recess is made, the piping is characterized in that the recess has been formed in a threaded section in at least one of said end sections (10-2).
A plant or cell comprising a heterologous expression cassette, the expression cassette comprising a promoter operably linked to a polynucleotide encoding a mutated PYR/PYL receptor polypeptide, wherein the mutated PYR/PYL receptor polypeptide is agonized by mandipropamid when the mandipropamid is contacted to the mutated PYR/PYL receptor polypeptide, wherein the amino acid of the mutated PYR/PYL receptor polypeptide corresponding to position K59 of SEQ ID NO:1 is arginine, and the mutated PYR/PYL receptor polypeptide further comprises at least one additional mutation at an amino acid corresponding to positions 89, 108, 122, and/or 159 in PYR1 (SEQ ID NO:1) wherein the mutation is selected from A89W, F108L, F108S, F108C, F108Q, F108I, F108T, F108N, F108V, F108A, F108E, F108G, S122G, F159L, F159I, F159C, F159T, F159V, F159A, F159M, or combinations thereof.
An apparatus for additive manufacturing comprising: at least two material dispensing heads configured to deposit a material by extrusion to form at least one layer of a 3D object; an actuation mechanism constructed to independently move the at least two material dispensing heads relative to a support configured to support the at least one layer of the 3D object being constructed, wherein at least one material dispensing head is configured to move with respect to another dispensing head in a plane parallel to a support plane and also in a direction perpendicular to the support plane of the at least one 3D object; a computer configured to generate and control at least one dispensing head travel trajectory and a material dispensing function of each of the at least two material dispensing heads ; and wherein at least a part of the material dispensing function of the at least two material dispensing heads is performed simultaneously. at least two material dispensing heads configured to deposit a material by extrusion to form at least one layer of a 3D object; an actuation mechanism constructed to independently move the at least two material dispensing heads relative to a support configured to support the at least one layer of the 3D object being constructed, wherein at least one material dispensing head is configured to move with respect to another dispensing head in a plane parallel to a support plane and also in a direction perpendicular to the support plane of the at least one 3D object; a computer configured to generate and control at least one dispensing head travel trajectory and a material dispensing function of each of the at least two material dispensing heads ; and wherein at least a part of the material dispensing function of the at least two material dispensing heads is performed simultaneously.
A sensor for ultrasonically measuring a portion of a structure having a temperature significantly above room-temperature, said sensor comprising: a high-temperature portion for contact with said structure , said high-temperature portion comprising at least: at least one transducer for converting a first signal to an ultrasonic transmit signal, and for converting an ultrasonic reflected signal to a second signal; a low-temperature portion comprising at least: at least one digital sensor interface, DSI , to which said transducer is electrically connected, said DSI being configured to transmit said first electrical signal and receive said second electrical signal, and to generate an A-scan signal based on said first and second electrical signals; a wireless interface for transmitting a digital signal based directly or indirectly on at least said A-scan signal; and a battery for powering said DSI and said wireless interface ; characterized in that the sensor further comprises an elongated member for connecting the low and high-temperature portions of the sensor , said elongated member being sufficiently rigid and long to hold said low-temperature portion a sufficient distance away from said high-temperature portion such that said low-temperature portion is subjected to significantly less heat from said structure compared to said high-temperature portion . a high-temperature portion for contact with said structure , said high-temperature portion comprising at least: at least one transducer for converting a first signal to an ultrasonic transmit signal, and for converting an ultrasonic reflected signal to a second signal; a low-temperature portion comprising at least: at least one digital sensor interface, DSI , to which said transducer is electrically connected, said DSI being configured to transmit said first electrical signal and receive said second electrical signal, and to generate an A-scan signal based on said first and second electrical signals; a wireless interface for transmitting a digital signal based directly or indirectly on at least said A-scan signal; and a battery for powering said DSI and said wireless interface ;
A system for conveying objects along a transport direction , comprising a base which forms a plurality of mechanical interfaces arranged substantially next to each other transversely to the transport direction , and a plurality of transport units each forming one single track, wherein each of the transport units includes a mechanical interface corresponding to at least one of the mechanical interfaces of the base and being adapted such that the transport units can be mechanically connected to the base and all of the transport units can be completely detached from the base separately from each other characterized in that the transport units are provided in at least two different widths, i.e. a narrower type and a wider type, and that at least one of the mechanical interfaces of the base is configured and adapted to be alternately connected to a corresponding mechanical interface of the narrower type or a corresponding mechanical interface of the wider type such that the system can be modified with regard to the number and/or width of the tracks.
A fabrication system for fabricating a part on a tool , the system comprising: a series of stations divided into at least two groups of stations, wherein each group of stations performs fabrication operations on a particular zone of the tool . a series of stations divided into at least two groups of stations, wherein each group of stations performs fabrication operations on a particular zone of the tool .
A lithium secondary battery comprising: a positive electrode, a negative electrode, a separator disposed between the positive electrode and the negative electrode, and an electrolyte solution, wherein a patterned gel polymer electrolyte layer is included on one surface or both surfaces of at least one structure of the positive electrode, the negative electrode, or the separator, wherein the patterned gel polymer electrolyte layer comprises uncoated portions and a plurality of line-type coating portions which are spaced apart from each other and arranged in parallel, wherein the line-type coating portions are formed in an oblique direction, and wherein an internal angle of a vertex at an intersection of the line-type coating portion formed in the oblique direction and an edge portion of the structure is in a range of 5° to 60°. a positive electrode, a negative electrode, a separator disposed between the positive electrode and the negative electrode, and an electrolyte solution, wherein a patterned gel polymer electrolyte layer is included on one surface or both surfaces of at least one structure of the positive electrode, the negative electrode, or the separator, wherein the patterned gel polymer electrolyte layer comprises uncoated portions and a plurality of line-type coating portions which are spaced apart from each other and arranged in parallel, wherein the line-type coating portions are formed in an oblique direction, and wherein an internal angle of a vertex at an intersection of the line-type coating portion formed in the oblique direction and an edge portion of the structure is in a range of 5° to 60°.
A transducer assembly comprising: a first and second face, wherein a first piezoelectric element is positioned on the first face and a second piezoelectric element is positioned on the second face, and wherein the first and second piezoelectric element are each configured to operate in a D31 mode with respect to a longitudinal axis of a waveguide coupled to a transducer base plate; a conductive adhesive to electrically couple the first and second piezoelectric elements to the waveguide ; an electrode configured to electrically couple the first and second piezoelectric elements to an ultrasonic signal generator ; and a thermal conductor configured to conduct heat away from the first and second piezoelectric elements, wherein the thermal conductor is a heat sink that comprises a metal housing including two heat sink halves , a first heat sink half positioned on a first surface of the waveguide , and a second heat sink half positioned on a second surface of the waveguide , each of the heat sink halves comprises a rib and a plurality of fins , and each rib of the first and second heat sink halves is connected to the first and second piezoelectric elements, respectively, by a conductive bonding material . a first and second face, wherein a first piezoelectric element is positioned on the first face and a second piezoelectric element is positioned on the second face, and wherein the first and second piezoelectric element are each configured to operate in a D31 mode with respect to a longitudinal axis of a waveguide coupled to a transducer base plate; a conductive adhesive to electrically couple the first and second piezoelectric elements to the waveguide ; an electrode configured to electrically couple the first and second piezoelectric elements to an ultrasonic signal generator ; and a thermal conductor configured to conduct heat away from the first and second piezoelectric elements, wherein the thermal conductor is a heat sink that comprises a metal housing including two heat sink halves , a first heat sink half positioned on a first surface of the waveguide , and a second heat sink half positioned on a second surface of the waveguide , each of the heat sink halves comprises a rib and a plurality of fins , and each rib of the first and second heat sink halves is connected to the first and second piezoelectric elements, respectively, by a conductive bonding material .
A method for repairing a fault of a terminal, comprising: acquiring, by the terminal, an error log of the terminal in response to a fault repairing instruction, and extracting identification information of a corresponding application from the error log, by: creating a log file in response to the fault repairing instruction, and redirecting log information generated by the terminal to the log file; and analyzing the log information in the log file to find out the error log, and acquiring a process name of the corresponding application as said identification information from the error log; when the application is a local application, according to the identification information of the local application and a preset top level domain name corresponding to an after sales server of the local application, determining an IP address of the after sales server corresponding to the local application; sending the error log to the corresponding after sales server according to a preset receiving port and the IP address of the after sales server, and determining, by the after sales server, a solution according to the error log, and feeding back the solution to the terminal; and performing, by the terminal, operation of repairing the fault of the terminal according to the solution. acquiring, by the terminal, an error log of the terminal in response to a fault repairing instruction, and extracting identification information of a corresponding application from the error log, by: creating a log file in response to the fault repairing instruction, and redirecting log information generated by the terminal to the log file; and analyzing the log information in the log file to find out the error log, and acquiring a process name of the corresponding application as said identification information from the error log; creating a log file in response to the fault repairing instruction, and redirecting log information generated by the terminal to the log file; and analyzing the log information in the log file to find out the error log, and acquiring a process name of the corresponding application as said identification information from the error log; when the application is a local application, according to the identification information of the local application and a preset top level domain name corresponding to an after sales server of the local application, determining an IP address of the after sales server corresponding to the local application; sending the error log to the corresponding after sales server according to a preset receiving port and the IP address of the after sales server, and determining, by the after sales server, a solution according to the error log, and feeding back the solution to the terminal; and performing, by the terminal, operation of repairing the fault of the terminal according to the solution.
A vehicle comprising a combustion engine , a WHR-system, and a cooling system, wherein the cooling system comprises a first radiator in which a circulating coolant is cooled, a thermostat directing coolant to the first radiator when the coolant has a higher temperature than a regulating temperature of the thermostat and to a bypass line past the first radiator when the coolant has a lower temperature than the regulating temperature, wherein the cooling system comprises a first line directing coolant at a first temperature (T 1 ) to a condenser of the WHR system, a second line directing coolant at a second temperature (T 2 ) to the condenser , a valve arrangement by which the flow rate of the coolant in at least one of said lines is adjustable and a control unit configured to control the valve arrangement such that the total amount of coolant directed to the condenser from said lines has a temperature and a flow rate which results in a cooling of the working medium in the condenser to a predetermined condensation temperature/pressure at the actual operating condition characterized in that the second line comprises a second radiator in which the coolant is cooled to the second temperature (T 2 ) before it is directed to the condenser , wherein the coolant is cooled in the first radiator and in the second radiator by an air flow
A rotary lock assembly comprising: a first epicyclic gear assembly comprising a first sun gear assembly , a first ring gear assembly , and a first planet gear assembly mechanically engaged to the first sun gear assembly and the first ring gear assembly; and a second epicyclic gear assembly comprising a second sun gear assembly configured to be rotated by the first ring gear assembly, a second ring gear assembly characterised in that the second ring gear assembly is configured to remain fixed relative to motion of the second sun gear assembly, and the second epicyclic gear assembly further comprises a second planet gear assembly mechanically engaged to the second sun gear assembly and the second ring gear assembly. a first epicyclic gear assembly comprising a first sun gear assembly , a first ring gear assembly , and a first planet gear assembly mechanically engaged to the first sun gear assembly and the first ring gear assembly; and a first sun gear assembly , a first ring gear assembly , and a first planet gear assembly mechanically engaged to the first sun gear assembly and the first ring gear assembly; and a second epicyclic gear assembly comprising a second sun gear assembly configured to be rotated by the first ring gear assembly, a second ring gear assembly characterised in that the second ring gear assembly is configured to remain fixed relative to motion of the second sun gear assembly, and the second epicyclic gear assembly further comprises a second planet gear assembly mechanically engaged to the second sun gear assembly and the second ring gear assembly. a second sun gear assembly configured to be rotated by the first ring gear assembly, a second ring gear assembly characterised in that the second ring gear assembly is configured to remain fixed relative to motion of the second sun gear assembly, and the second epicyclic gear assembly further comprises a second planet gear assembly mechanically engaged to the second sun gear assembly and the second ring gear assembly.
A controller comprising: a grip framework that contains various input components; a thumb-stick configured on a top portion of the grip framework, the thumb-stick operable to be controlled by a user's thumb; an analog stick configured on a front portion of the grip framework, the analog stick configured to be operated by a user's index finger and configured in a box cage, wherein the user's index finger can control the box cage containing the analog stick backwards relative to the grip framework to control a z axis movement, in a z axis, of a virtual object or a physical object, and wherein the analog stick can be manipulated to control movement in an x and a y axis of the virtual object or the physical object; and a trigger configured on the front portion of the grip framework, wherein the trigger is configured to be operated by a middle finger of the user's hand. a grip framework that contains various input components; a thumb-stick configured on a top portion of the grip framework, the thumb-stick operable to be controlled by a user's thumb; an analog stick configured on a front portion of the grip framework, the analog stick configured to be operated by a user's index finger and configured in a box cage, wherein the user's index finger can control the box cage containing the analog stick backwards relative to the grip framework to control a z axis movement, in a z axis, of a virtual object or a physical object, and wherein the analog stick can be manipulated to control movement in an x and a y axis of the virtual object or the physical object; and a trigger configured on the front portion of the grip framework, wherein the trigger is configured to be operated by a middle finger of the user's hand.
Support for fastening facade elements of in particular suspended, ventilated facades, with a wall fastening section which is configured for the installation of the support on a building wall, and with a facade fastening section which is configured for the installation of supporting or installation profiles, characterised in that the facade fastening section has a first connection section for the horizontal installation of supporting or installation profiles and a second connection section for the vertical installation of supporting or installation profiles which is arranged perpendicularly to the first connection section , wherein the connection sections are arranged on a free end of the support which faces away from the wall fastening section and wherein the connection sections have on the free ends in each case at least one fixed point in the form of a circular bore and a sliding point in the form of an elongated hole for the installation of supporting or installation profiles.
A drinking glass to serve distilled alcoholic drinks, comprising a bottom and a wall , whereby the wall comprises a choke at which the cross-sectional area of the wall is smaller than or as large as the area of the inside face of the bottom , and is smaller than the cross-sectional area of the wall at an upper edge of the wall, the wall having at least one formation for the distilled alcoholic drink on an inside face of the wall, between the choke and the upper edge of the wall, the at least one formation being a recess or a projection on the inside face of the wall of the drinking glass, the drinking glass comprising a volume of the drinking glass between the bottom of the drinking glass and the lower side of the choke , which is dimensioned for a liquid phase of the distilled alcoholic drinks, and the cross-sectional area of the choke being arranged to restrict evaporation of the ethanol of the liquid phase drink beneath the choke into a gas phase above the choke, the drinking glass further comprising a second volume of the drinking glass between the choke and the upper edge , which second volume is arranged to the gas phase of the distilled alcoholic drinks, and said at least one formation being constituted by a recess to keep the drink on the formation, the second volume of the drinking glass being greater than the volume of the drinking glass between the bottom of the drinking glass and the lower side of the choke , and a height of the drinking glass between the upper edge and the choke being greater than a height of the drinking glass between the choke and the bottom .
Formulation comprising at least one organic functional material having a molecular weight of at most 3,000 g/mol, and organic solvents, characterized in that said formulation comprises a mixture of at least two different solvents wherein a first organic solvent exhibits a lower boiling point than a second organic solvent and said first organic solvent exhibits a higher viscosity than said second organic solvent, wherein said first organic solvent has a boiling point in the range from 150°C to 320°C, wherein the boiling point is given at 760 mm Hg, wherein the difference between the boiling point of said first organic solvent and the boiling point of said second organic solvent is in the range of 10°C to 80°C, and wherein said first organic solvent is selected from aldehydes, ketones, ethers, esters, amides, sulfur compounds, nitro compounds, hydrocarbons, halogenated hydrocarbons, aromatic or heteroaromatic hydrocarbons, halogenated aromatic or heteroaromatic hydrocarbons and/or (cyclic)siloxanes.