mhurhangee/ep-ind-claims huggingface dataset:
Production method for a chiseling tool, having the following steps: providing a tool tip, which is produced from a sintered hard metal and has a bottom side, providing a shaft, which is produced from a steel and has afront side, applying an intermediate layer to one side of either the bottom side of the tool tip or the front side of the shaft, wherein the intermediate layer has a base layer and, at least on the surface facing away from the one side, a cover layer (28, 29), wherein the base layer consists of the material group of nickel, nickel-based alloy, cobalt-based alloy and molybdenum and the base layer has a melting point above 1300°C, and wherein the cover layer consists of the material group of nickel, nickel-based alloy, cobalt-based alloy and molybdenum, and additives from the material group of copper, silver, gold, palladium, boron, silicon and phosphorus are added to the cover layer in order to lower the melting temperature of the cover layer (28, 29) to below 1250°C, or the cover layer consists of copper, silver, gold or palladium, pressing the tool tip against the shaft by means of a press, inductively heating a joining zone between the bottom side and the front side to a temperature which is above the melting temperature of the cover layer and below the melting temperature of the steel by means of an induction coil. providing a tool tip, which is produced from a sintered hard metal and has a bottom side, providing a shaft, which is produced from a steel and has afront side, applying an intermediate layer to one side of either the bottom side of the tool tip or the front side of the shaft, wherein the intermediate layer has a base layer and, at least on the surface facing away from the one side, a cover layer (28, 29), wherein the base layer consists of the material group of nickel, nickel-based alloy, cobalt-based alloy and molybdenum and the base layer has a melting point above 1300°C, and wherein the cover layer consists of the material group of nickel, nickel-based alloy, cobalt-based alloy and molybdenum, and additives from the material group of copper, silver, gold, palladium, boron, silicon and phosphorus are added to the cover layer in order to lower the melting temperature of the cover layer (28, 29) to below 1250°C, or the cover layer consists of copper, silver, gold or palladium, pressing the tool tip against the shaft by means of a press, inductively heating a joining zone between the bottom side and the front side to a temperature which is above the melting temperature of the cover layer and below the melting temperature of the steel by means of an induction coil.
A composite article for a turbine engine comprising: a substrate, said substrate comprising a silicon containing material selected from the group consisting of glass, glass/ceramic, monolithic ceramic and ceramic matrix composite and an additive; characterized in that said additive comprises boron nitride nanotubes. a substrate, said substrate comprising a silicon containing material selected from the group consisting of glass, glass/ceramic, monolithic ceramic and ceramic matrix composite and an additive; characterized in that said additive comprises boron nitride nanotubes.
A glass-wiping robot comprising a glass-wiping robot housing, a power cord extending outward through the housing, a protruding mechanism provided on the housing and protruding from the external surface of the housing, characterized in that, a power cord positioning sheath is provided on the housing, and the power cord passes through a central through-hole of the power cord positioning sheath and is fixed, wherein the power cord positioning sheath protrudes from the external surface of the housing in a same direction as the protruding mechanism and away from a surface upon which the glass-wiping robot is configured to move.
Method for operating a flowmeter for measuring the flow of a flowing medium through a pipe, wherein the flowmeter has a measuring unit for determining individual measured values of the flow and an error unit for determining the measurement uncertainty of the individual measured values, wherein the determination of the individual measured values is carried out using a measuring frequency, wherein a present measurement uncertainty is determined for each individual measured value by the error unit, wherein the measurement uncertainties from static and dynamic error sources are linked to one another by error propagation for determining the present measurement uncertainty, and wherein the flowmeter has at least one additional sensor unit for detecting at least one present operating parameter characterized in that the sensor unit forwards the measured values of the present operating parameter at least to the error unit, that the variation of at least one operating parameter and the zero point stability of the flowmeter are used as dynamic error source in determining the present measurement uncertainty, and that the measurement uncertainty of calibration and/or the measurement uncertainty of reproducibility and/or the measurement uncertainty of long-term reproducibility and/or the measurement uncertainty of linearity of the flowmeter is/are used as static error source in determining the present measurement uncertainty. wherein a present measurement uncertainty is determined for each individual measured value by the error unit, wherein the measurement uncertainties from static and dynamic error sources are linked to one another by error propagation for determining the present measurement uncertainty, and wherein the flowmeter has at least one additional sensor unit for detecting at least one present operating parameter characterized in that the sensor unit forwards the measured values of the present operating parameter at least to the error unit, that the variation of at least one operating parameter and the zero point stability of the flowmeter are used as dynamic error source in determining the present measurement uncertainty, and that the measurement uncertainty of calibration and/or the measurement uncertainty of reproducibility and/or the measurement uncertainty of long-term reproducibility and/or the measurement uncertainty of linearity of the flowmeter is/are used as static error source in determining the present measurement uncertainty.
A control method for a terminal device (110, 210, 310, 410) in a non-terrestrial cellular data communication network (100, 200, 300, 400), the network comprising at least one airborne or spaceborne base station (120, 220, 320, 420) moving along a flight trajectory, for connecting the terminal device to said network, the method comprising the following steps: providing flight trajectory data for said base station in a memory element of said terminal device; providing terminal location data in a memory element of said terminal device; computing, at the terminal device and based on said flight trajectory data and said terminal location data, predicted values for said base station's position and velocity; using, at the terminal device, said predicted values, and position and velocity of the terminal device to calculate when the user terminal needs to wake-up and also the Doppler shift and the propagation delay at any point in time in the future. providing flight trajectory data for said base station in a memory element of said terminal device; providing terminal location data in a memory element of said terminal device; computing, at the terminal device and based on said flight trajectory data and said terminal location data, predicted values for said base station's position and velocity; using, at the terminal device, said predicted values, and position and velocity of the terminal device to calculate when the user terminal needs to wake-up and also the Doppler shift and the propagation delay at any point in time in the future.
An automatic movable machine for chamfering a pipe and a metal sheet, comprising a vertical plate, which is closely adhered to a cutting surface of a pipe or a metal sheet, and a support plate, which is closely adhered to the outside of the pipe or a top of the metal sheet, are fixed, in a perpendicular direction to each other, to a semicircular chamfering angle adjusting plate, which is installed in a head of a chamfering apparatus; a vertical fixing plate is installed at a front of the vertical plate and a horizontal fixing plate is installed at an end of the vertical fixing plate to face the inside of the pipe or a bottom of the metal sheet; a moving body with an inscribing roller installed therein is provided above the horizontal fixing plate and is installed so as to be vertically movable in response to an inscribing roller adjustment screw installed on the horizontal fixing plate being rotated, and thus to be closely adhered to the inside of the pipe or the bottom of the metal sheet characterised in that the automatic movable machine further comprises J Z a fixing bolt is installed on the support plate, guides are installed on both sides of the fixing bolt, and the fixing bolt and the guides are inserted into holes formed on the fixing plate, which protrudes from, and is fixed at, the front of the gear box; once the fixing plate is engaged with the fixing bolt, a fixing nut is inserted and tightened; circumscribing rollers, which protrude forward from both sides of the gear box and are closely adhered to the outside of the pipe or the top of the metal sheet, are rotated by receiving a force decelerated from a force of a motor from the gear box; and the rotation of the motor is selected with a control panel.
A method for producing an optical fiber by elongating a quartz glass preform or a coaxial assembly of quartz glass components, said fiber comprising a core zone with a refractive index n K, an inner cladding zone overcladding the core zone and having a refractive index n Mi, a ring zone surrounding the inner cladding zone and consisting of doped quartz glass having a refractive index n F, as well as an outer cladding zone surrounding the ring zone, where: n F < n Mi < n K, characterized in that the quartz glass of the ring zone is provided in the form of a ring zone tube consisting of quartz glass with a mean fluorine content of at least 6000 wt. ppm, said ring zone tube having a wall defined by an inner tube surface and an outer tube surface, a radial fluorine concentration profile being set over the ring zone tube wall, said profile having an inner fluorine depletion layer with a layer thickness of at least 1 μm and not more than 10 μm, the inner fluorine depletion layer having a fluorine content that decreases towards the inner tube surface and is not more than 3000 wt. ppm in a near-surface region with a thickness of 1 μm.
A mobile terminal, comprising: a plurality of interfaces (801, 802); a flow information holding unit for holding flow control information as notified from an information server which is located within a network connected to a first interface of the plurality of interfaces (801, 802), the flow control information including a list of trusted network IDs and a list of trusted flow IDs, each trusted network ID identifying a network trusted by a service provider, each trusted flow ID identifying a flow that is to be transmitted over a trusted network only; and a confirming unit adapted for confirming for a flow that is currently transmitted or received via a network connected to the first interface of the plurality of interfaces (801, 802), based on the flow control information, whether it is possible or not to transmit or receive the flow via a network connected to a second interface of the plurality of interfaces (801, 802) different from the first interface. a plurality of interfaces (801, 802); a flow information holding unit for holding flow control information as notified from an information server which is located within a network connected to a first interface of the plurality of interfaces (801, 802), the flow control information including a list of trusted network IDs and a list of trusted flow IDs, each trusted network ID identifying a network trusted by a service provider, each trusted flow ID identifying a flow that is to be transmitted over a trusted network only; and a confirming unit adapted for confirming for a flow that is currently transmitted or received via a network connected to the first interface of the plurality of interfaces (801, 802), based on the flow control information, whether it is possible or not to transmit or receive the flow via a network connected to a second interface of the plurality of interfaces (801, 802) different from the first interface.
Evisceration apparatus for eviscerating a poultry carcass suspended by the legs, wherein the apparatus comprises an evisceration tool which is movable up and down, and into and out of a body cavity of the poultry, and wherein the evisceration tool comprises two bracket halves (2', 2") that connect to each other with a hinge at a lower extremity of the tool, wherein said two bracket halves (2', 2") are embodied with cooperating clamping faces (8', 8") adjacent to said hinge for clamping a part of the viscera of the poultry when the two bracket halves (2', 2") are moved towards each other from an open position into a closed position, and wherein said two bracket halves (2', 2") are provided with curvatures that arrange that the two bracket halves (2', 2") delimit a window in one of the open and closed positions of the two bracket halves (2', 2"), characterized in that the curvatures are arranged such that the window is present immediately adjacent to the clamping faces (8', 8") when the two bracket halves (2', 2") are in the closed position, whereas said window immediately adjacent to the clamping faces (8', 8") is substantially closed or absent when the two brackets (2', 2") are in the open position.
A method for determining the flow rates of a multi-component mixture in a pipe containing at least a liquid phase comprising an emulsion of oil and water, the emulsion being either of the water continuous type or the oil continuous type, the method comprising the following steps: a. the flow rates of the individual components of the multi-component mixture are measured in a flow meter of a differential pressure type, b. the Reynolds number of the multi-component mixture is determined, characterized by: the Reynolds number is determined at a location separate from the flow meter but with the same flow rate of the multi-component mixture as in the flow meter, c. the emulsion type of the liquid phase of the multi-component mixture is determined, and d. based on the results from steps b and c, a more accurate flow-rate of the individual components of the multi-component mixture and a fluid property of at least one of the components of the multi-component mixture are calculated. a. the flow rates of the individual components of the multi-component mixture are measured in a flow meter of a differential pressure type, b. the Reynolds number of the multi-component mixture is determined, characterized by: the Reynolds number is determined at a location separate from the flow meter but with the same flow rate of the multi-component mixture as in the flow meter, c. the emulsion type of the liquid phase of the multi-component mixture is determined, and d. based on the results from steps b and c, a more accurate flow-rate of the individual components of the multi-component mixture and a fluid property of at least one of the components of the multi-component mixture are calculated.
A method (Figure 17) for ensuring random access coverage while supporting high uplink data rates in a same service area served by a base station, comprising: identifying a shared set of radio resources to be shared by multiple mobile radio terminals for uplink transmissions to the base station including requests for access to service from the base station and transmissions for active connections with the base station, the method characterized by: defining a first repeating time period and a second repeating time period different from the first repeating time period; during the first repeating time period, scheduling uplink transmission grants for one or more active connections that permit use of a greater amount of the radio resources; during the second repeating time period, scheduling uplink transmission grants for one or more active connections that permit use of a smaller amount of the radio resources smaller than the greater amount; and controlling at least some random access requests to the base station to occur only during the second repeating time period. identifying a shared set of radio resources to be shared by multiple mobile radio terminals for uplink transmissions to the base station including requests for access to service from the base station and transmissions for active connections with the base station, the method characterized by: defining a first repeating time period and a second repeating time period different from the first repeating time period; during the first repeating time period, scheduling uplink transmission grants for one or more active connections that permit use of a greater amount of the radio resources; during the second repeating time period, scheduling uplink transmission grants for one or more active connections that permit use of a smaller amount of the radio resources smaller than the greater amount; and controlling at least some random access requests to the base station to occur only during the second repeating time period. defining a first repeating time period and a second repeating time period different from the first repeating time period; during the first repeating time period, scheduling uplink transmission grants for one or more active connections that permit use of a greater amount of the radio resources; during the second repeating time period, scheduling uplink transmission grants for one or more active connections that permit use of a smaller amount of the radio resources smaller than the greater amount; and controlling at least some random access requests to the base station to occur only during the second repeating time period.
A method of processing a steel plate comprising: punching a steel plate; and disposing heating electrodes (850,860) in such a way that a trim edge punched in the punching is positioned between electrode surfaces facing each other and then heating a part of the steel plate including the trim edge by applying a current to the heating electrodes, characterized in that in the disposing only one of the heating electrodes facing each other is brought into line contact with the trim edge and an electrode surface of a second heating electrode is brought into contact with a surface side of the part of the steel plate to be heated. punching a steel plate; and disposing heating electrodes (850,860) in such a way that a trim edge punched in the punching is positioned between electrode surfaces facing each other and then heating a part of the steel plate including the trim edge by applying a current to the heating electrodes,
A luminescent material having the formula: [ A a Sn b X x X' x' X" x"] [dopant], wherein the luminescent material is polycrystalline, and includes crystallites having sizes in the sub-micron range; A is included in the luminescent material as a monovalent cation; X, X', and X" are selected from fluorine, chlorine, bromine, and iodine; a is 2; b is 1; a sum of x, x', and x" is a + 2b; and at least X' is iodine, such that x' / (a + 2b) ≥ 1/5. the luminescent material is polycrystalline, and includes crystallites having sizes in the sub-micron range; A is included in the luminescent material as a monovalent cation; X, X', and X" are selected from fluorine, chlorine, bromine, and iodine; a is 2; b is 1; a sum of x, x', and x" is a + 2b; and at least X' is iodine, such that x' / (a + 2b) ≥ 1/5.
A method for incorporating an unnatural amino acid into a protein of interest in a eukaryotic cell, said method comprising the steps of: i) providing a eukaryotic cell expressing an orthogonal tRNA synthetase - tRNA pair, a nucleic acid sequence of interest encoding said protein of interest, and a mutant eRF1, wherein said mutant eRF1 increases unnatural amino acid incorporation in response to one stop codon without substantially increasing read-through of other stop codons, said mutant eRF1 having amino acid sequence having at least 84% sequence identity to the human wild type eRF1 sequence of SEQ ID NO: 4, wherein said mutant eRF1 comprises a mutation or combination of mutations relative to SEQ ID NO: 4 selected from the group consisting of (i) E55 (ii) N129, K130 (iii) T122, S123 (iv) Y125 (v) T58, S60, S64, Y125, N129 (vi) S123, L124, Y125 (vii) M51, K130 (viii) S70, G73 said nucleic acid sequence of interest comprising a codon recognised by the tRNA at the position for incorporation of an unnatural amino acid; ii) incubating the eukaryotic cell in the presence of an unnatural amino acid to be incorporated into a protein encoded by the nucleic acid sequence of interest, wherein said unnatural amino acid is a substrate for the orthogonal tRNA synthetase; and iii) incubating the eukaryotic cell to allow incorporation of said unnatural amino acid into the protein of interest via the orthogonal tRNA synthetase - tRNA pair. i) providing a eukaryotic cell expressing an orthogonal tRNA synthetase - tRNA pair, a nucleic acid sequence of interest encoding said protein of interest, and a mutant eRF1, wherein said mutant eRF1 increases unnatural amino acid incorporation in response to one stop codon without substantially increasing read-through of other stop codons, said mutant eRF1 having amino acid sequence having at least 84% sequence identity to the human wild type eRF1 sequence of SEQ ID NO: 4, wherein said mutant eRF1 comprises a mutation or combination of mutations relative to SEQ ID NO: 4 selected from the group consisting of (i) E55 (ii) N129, K130 (iii) T122, S123 (iv) Y125 (v) T58, S60, S64, Y125, N129 (vi) S123, L124, Y125 (vii) M51, K130 (viii) S70, G73 said nucleic acid sequence of interest comprising a codon recognised by the tRNA at the position for incorporation of an unnatural amino acid; (i) E55 (ii) N129, K130 (iii) T122, S123 (iv) Y125 (v) T58, S60, S64, Y125, N129 (vi) S123, L124, Y125 (vii) M51, K130 (viii) S70, G73 ii) incubating the eukaryotic cell in the presence of an unnatural amino acid to be incorporated into a protein encoded by the nucleic acid sequence of interest, wherein said unnatural amino acid is a substrate for the orthogonal tRNA synthetase; and iii) incubating the eukaryotic cell to allow incorporation of said unnatural amino acid into the protein of interest via the orthogonal tRNA synthetase - tRNA pair.