mhurhangee/ep-ind-claims huggingface dataset:
A reinforced flexible seal (401a, 401b) for sealing a gap or space, such as a gap or space between an edge of a wall, fence, door, door leaf or wing, port or window and a surface adjacent to the wall, fence, door, door leaf or wing, port or window, said reinforced flexible seal (401a, 401b) having a width and a length and comprising: a flexible outer material (402a, 402b); and a plurality of elongated metal wires (403a, 403b) embedded in the flexible outer material and running substantially in a longitudinal direction of the reinforced flexible seal (401a, 401b) with at least part of said elongated metal wires (403a, 403b) arranged at a distance to each other; wherein for at least one of the embedded elongated metal wires (403a, 403b), at least part of said metal wire holds several bulging or wavelike deformations (404a, 404b) in the longitudinal direction of the wire; wherein all of said plurality of metal wires (403a, 403b) are running substantially in parallel to each other within the flexible outer material (402a, 402b) in a longitudinal direction of the reinforced flexible seal (401a, 401b), with several of said parallel running metal wires (403a, 403b) holding several bulging or wavelike deformations (404a, 404b) in the longitudinal direction of the wire. a flexible outer material (402a, 402b); and a plurality of elongated metal wires (403a, 403b) embedded in the flexible outer material and running substantially in a longitudinal direction of the reinforced flexible seal (401a, 401b) with at least part of said elongated metal wires (403a, 403b) arranged at a distance to each other; wherein for at least one of the embedded elongated metal wires (403a, 403b), at least part of said metal wire holds several bulging or wavelike deformations (404a, 404b) in the longitudinal direction of the wire; wherein all of said plurality of metal wires (403a, 403b) are running substantially in parallel to each other within the flexible outer material (402a, 402b) in a longitudinal direction of the reinforced flexible seal (401a, 401b), with several of said parallel running metal wires (403a, 403b) holding several bulging or wavelike deformations (404a, 404b) in the longitudinal direction of the wire.
A method for tracking the carrier phase of a signal received from a satellite by a carrier by means of a carrier phase tracking loop, said signal being acquired by a navigation system of the carrier which comprises a localization receiver by radio navigation and a self-contained unit, the receiver being adapted for acquiring and tracking the phase of the carrier of the signal from the satellite, the method comprising the following steps: - determining a closed-loop control error of the carrier phase loop, said closed-loop control error being determined between two sampling instants and corresponding to a first phase deviation; - determining an acceleration variation of the carrier between the two sampling instants by means of the self-contained unit; - projecting the acceleration variation on a satellite-receiver view axis for obtaining a second phase deviation; - comparing the first and second deviations in order to detect an error on the measurement of the carrier phase tracked by said carrier phase loop, said comparison consisting of determining inconsistency of the first deviation with the second deviation. - determining a closed-loop control error of the carrier phase loop, said closed-loop control error being determined between two sampling instants and corresponding to a first phase deviation; - determining an acceleration variation of the carrier between the two sampling instants by means of the self-contained unit; - projecting the acceleration variation on a satellite-receiver view axis for obtaining a second phase deviation; - comparing the first and second deviations in order to detect an error on the measurement of the carrier phase tracked by said carrier phase loop, said comparison consisting of determining inconsistency of the first deviation with the second deviation.
A method for increasing the purity of silicon, comprising: combining a first silicon-aluminum complex with a weak acid solution sufficiently to allow the first complex to react at least partially with the weak acid solution, to provide a first mixture; separating the first mixture, to provide a third silicon-aluminum complex and the weak acid solution; combining the third silicon-aluminum complex with a strong acid solution sufficiently to allow the third complex to react at least partially with the strong acid solution, to provide a third mixture; separating the third mixture, to provide a first silicon and the strong acid solution; transferring portions of the strong acid solution to the weak acid solution to maintain the pH of the weak acid solution, the volume of the weak acid solution, the specific gravity of the weak acid solution, or a combination thereof; combining the first silicon with a first rinse solution, to provide a fourth mixture; separating the fourth mixture, to provide a wet purified silicon and the first rinse solution; and drying the wet purified silicon, sufficient to provide a dry purified silicon. combining a first silicon-aluminum complex with a weak acid solution sufficiently to allow the first complex to react at least partially with the weak acid solution, to provide a first mixture; separating the first mixture, to provide a third silicon-aluminum complex and the weak acid solution; combining the third silicon-aluminum complex with a strong acid solution sufficiently to allow the third complex to react at least partially with the strong acid solution, to provide a third mixture; separating the third mixture, to provide a first silicon and the strong acid solution; transferring portions of the strong acid solution to the weak acid solution to maintain the pH of the weak acid solution, the volume of the weak acid solution, the specific gravity of the weak acid solution, or a combination thereof; combining the first silicon with a first rinse solution, to provide a fourth mixture; separating the fourth mixture, to provide a wet purified silicon and the first rinse solution; and drying the wet purified silicon, sufficient to provide a dry purified silicon.
A method of user equipment, in the following also referred to as UE, for improving random access, the method comprising: performing a first attempt of a random access procedure to communicate with a cell via a first UE beam; characterized by further comprising performing measurement of signal broadcasted by a Transmission/Reception Point, in the following also referred to as TRP, of the cell to determine whether to update UE beam(s) when the first attempt fails; and performing a second attempt of the random access procedure to communicate with the cell via the first UE beam or a second UE beam based on the measurement when the first attempt fails, wherein the direction of the first UE beam and the direction of the second UE beam are different. performing a first attempt of a random access procedure to communicate with a cell via a first UE beam; characterized by further comprising performing measurement of signal broadcasted by a Transmission/Reception Point, in the following also referred to as TRP, of the cell to determine whether to update UE beam(s) when the first attempt fails; and performing a second attempt of the random access procedure to communicate with the cell via the first UE beam or a second UE beam based on the measurement when the first attempt fails, wherein the direction of the first UE beam and the direction of the second UE beam are different.
Electrical cabinet of an aircraft comprising at least one motherboard comprising on a first face sockets into which are plugged PCB boards ensuring one or more electrical functions, said electrical cabinet being linked to the electrical circuit of the aircraft organized as various electrical harnesses by way of an electrical connection system, the electrical connection system comprising at the level of the second face of the motherboard at least one additional layer, the additional layer or layers comprising electrical tracks which make it possible to reorganize the electrical circuits emanating from the sockets intended for the PCB boards so as to render them compliant with the sockets intended for the electrical harnesses of the aircraft, characterized in that the free face of the last additional layer comprises sockets each ensuring electrical connection with an electrical harness of the aircraft
A system for detecting total ammonia in a bodily fluid ex vivo, the system comprising an analyzer device configured to be in fluid communication with a sample of the bodily fluid, the analyzer device being suitable for quantifying the amount of ammonium (NH 4 +) in said bodily fluid sample, said analyzer device comprising: a gas sensing chamber; an extraction membrane located between: (i) an area suitable for being in fluid communication with the bodily fluid and (ii) the gas sensing chamber, wherein the extraction membrane is configured to: (a) extract and convert chemically or electrochemically at least a portion of ammonium (NH 4 +) contained within the bodily fluid into gaseous ammonia (NH 3), (b) eliminate interferences, and (c) dispel the converted gaseous ammonia (NH 3) into the gas sensing chamber; and an ammonia (NH 3) sensor located within the gas sensing chamber, the ammonia sensor comprising a processor with a non-transitory memory storing instructions that, when executed, causes the processor to quantify an amount of ammonia (NH 3) present in the gas sensing chamber in relation to the total ammonia in the bodily fluid, wherein the total ammonia is a sum of the ammonia (NH 3) and ammonium (NH 4 +), wherein the analyzer device detects, based on the quantified amount of ammonia present in the gas sensing chamber, at least one of: altered organ function, altered tissue function, and altered metabolic status. a gas sensing chamber; an extraction membrane located between: (i) an area suitable for being in fluid communication with the bodily fluid and (ii) the gas sensing chamber, wherein the extraction membrane is configured to: (a) extract and convert chemically or electrochemically at least a portion of ammonium (NH 4 +) contained within the bodily fluid into gaseous ammonia (NH 3), (b) eliminate interferences, and (c) dispel the converted gaseous ammonia (NH 3) into the gas sensing chamber; and an ammonia (NH 3) sensor located within the gas sensing chamber, the ammonia sensor comprising a processor with a non-transitory memory storing instructions that, when executed, causes the processor to quantify an amount of ammonia (NH 3) present in the gas sensing chamber in relation to the total ammonia in the bodily fluid, wherein the total ammonia is a sum of the ammonia (NH 3) and ammonium (NH 4 +),
A wind farm including a plurality of floating platforms, each of which is anchored to at least one anchor point (7, 7') and includes: at least one wind turbine; and a shift device for shifting the wind turbine; said wind farm being characterized in that the shift device is an active shift device configured to shift the wind turbine as a function of a set of parameters, including wind direction and speed, in order to minimize the aerodynamic wake effects. at least one wind turbine; and a shift device for shifting the wind turbine; said wind farm being characterized in that the shift device is an active shift device configured to shift the wind turbine as a function of a set of parameters, including wind direction and speed, in order to minimize the aerodynamic wake effects.
An oncolytic virus, characterized in that the genome of the oncolytic virus contains the following exogenous elements: a first expression cassette containing a first promoter and a first interfering RNA expression sequence; a target sequence; and a second expression cassette, wherein the first interfering RNA expression sequence is used to express a first interfering RNA binding to the target sequence; the first interfering RNA expression sequence is driven by the first promoter so as to express the first interfering RNA in first cells; the target sequence is located at a 5' or 3' non-coding region of an essential gene required for replication of the oncolytic virus; the second expression cassette contains a second promoter and an inhibitory component expression sequence, wherein the inhibitory component expression sequence is used to express inhibitory components, the inhibitory components are used to express an interfering RNA for interfering with gene expression of an enzyme selected from any one of Dicer, Drosha, and Argonaute; and the inhibitory component expression sequence is driven by the second promoter so as to express the inhibitory components in second cells, rather than in the first cells; the first and the second cells are different cell types, the second cells are tumor cells of a mammal and the first cells are non-tumor cells of the mammal, wherein the first promoter is a constitutive promoter, and the second promoter is a human tumor-specific promoter. a first expression cassette containing a first promoter and a first interfering RNA expression sequence; a target sequence; and a second expression cassette, wherein the first interfering RNA expression sequence is used to express a first interfering RNA binding to the target sequence; the first interfering RNA expression sequence is driven by the first promoter so as to express the first interfering RNA in first cells; the target sequence is located at a 5' or 3' non-coding region of an essential gene required for replication of the oncolytic virus; the second expression cassette contains a second promoter and an inhibitory component expression sequence, wherein the inhibitory component expression sequence is used to express inhibitory components, the inhibitory components are used to express an interfering RNA for interfering with gene expression of an enzyme selected from any one of Dicer, Drosha, and Argonaute; and the inhibitory component expression sequence is driven by the second promoter so as to express the inhibitory components in second cells, rather than in the first cells; the first and the second cells are different cell types, the second cells are tumor cells of a mammal and the first cells are non-tumor cells of the mammal, wherein the first promoter is a constitutive promoter, and the second promoter is a human tumor-specific promoter.
A method for detecting the presence of an antibiotic in a sample, the method comprising the steps of: (a) contacting the sample with a microbial growth inhibition test, said test comprising at least a test organism, an indicator and an aminoglycoside antibiotic, (b) growing the test organism, and (c) detecting the amount of growth of the test organism, wherein lack of growth reflects the presence of an antibiotic in the sample, wherein the test medium of the microbial growth inhibition test comprises the aminoglycoside antibiotic before the sample is added to the test medium. (a) contacting the sample with a microbial growth inhibition test, said test comprising at least a test organism, an indicator and an aminoglycoside antibiotic, (b) growing the test organism, and (c) detecting the amount of growth of the test organism, wherein lack of growth reflects the presence of an antibiotic in the sample,
Bumper arrangement which is coupled to a motor vehicle via crash boxes, having at least one cross beam which comprises a connection section for the crash boxes and an intermediate longitudinal section, wherein the cross beam has, in cross-section, a profiled front wall and a profiled rear wall, characterized in that, in the intermediate longitudinal section, a processing length of the front wall is less than 20 %, in particular less than 15 % and preferably less than 10 % smaller, in relation to a processing length of the rear wall.
A handheld cutting tool comprising: a housing (20, 40) defining a first outer face, a second outer face oppositely directed from the first face, a work region for receiving a workpiece to be cut and an axle slot, wherein only one of the first and second outer faces (22, 42) is formed to provide an access to the slot; at least one roller (60, 62) rotatably supported in the housing (20, 40) and accessible in the work region; a cutting wheel and axle assembly removably retained within the housing (20, 40), the cutting wheel and axle assembly including an axle pin, the axle pin being disposed in the slot and positionable between a first end of the slot and a second end of the slot, opposite the first end, wherein the axle pin defines an enlarged head end. a housing (20, 40) defining a first outer face, a second outer face oppositely directed from the first face, a work region for receiving a workpiece to be cut and an axle slot, wherein only one of the first and second outer faces (22, 42) is formed to provide an access to the slot; at least one roller (60, 62) rotatably supported in the housing (20, 40) and accessible in the work region; a cutting wheel and axle assembly removably retained within the housing (20, 40), the cutting wheel and axle assembly including an axle pin, the axle pin being disposed in the slot and positionable between a first end of the slot and a second end of the slot, opposite the first end, wherein the axle pin defines an enlarged head end.
Endoscopic system comprising an endoscope and a test system, the test system comprising a radiation sensor and the endoscope comprising a light guide means, wherein the test system comprises a cap configured to cover a radiation exit region of the endoscope which is to be tested, and wherein the cap comprises a holding means and a lid portion characterised in that the lid portion in turn comprises a semi-transparent material or is made of a semi-transparent material, said cap being thereby configured to ensure that in use the radiation sensor is not saturated by radiation exiting the radiation exit region of the endoscope. the test system comprises a cap configured to cover a radiation exit region of the endoscope which is to be tested, and wherein the cap comprises a holding means and a lid portion characterised in that the lid portion in turn comprises a semi-transparent material or is made of a semi-transparent material, said cap being thereby configured to ensure that in use the radiation sensor is not saturated by radiation exiting the radiation exit region of the endoscope.
A communication control device comprising: a performance acquisition unit configured to acquire a first parameter indicating communication performance on a signaling path for interference control signaling of a base station of a small cell that at least partially overlaps with a macro cell in a wireless communication system; a selection unit configured to acquire a second parameter indicating a supported interface type of the small cell, wherein the interface type indicates whether the base station of the small cell has a physical or logical interface for interference control with the communication control device, and to select as an interference control scheme for controlling interference between the macro cell and the small cell one of at least a first interference control scheme and a second interference control scheme, based on the first parameter and the second parameter, wherein in the first and second control schemes a signaling of control data is performed and the control data for the first and second control schemes comprises a first allowed interference amount and a second allowed interference, respectively; and an interference control unit configured to transmit an interference control signal to the base station of the small cell in accordance with the interference control scheme selected by the selection unit. a performance acquisition unit configured to acquire a first parameter indicating communication performance on a signaling path for interference control signaling of a base station of a small cell that at least partially overlaps with a macro cell in a wireless communication system; a selection unit configured to acquire a second parameter indicating a supported interface type of the small cell, wherein the interface type indicates whether the base station of the small cell has a physical or logical interface for interference control with the communication control device, and to select as an interference control scheme for controlling interference between the macro cell and the small cell one of at least a first interference control scheme and a second interference control scheme, based on the first parameter and the second parameter, wherein in the first and second control schemes a signaling of control data is performed and the control data for the first and second control schemes comprises a first allowed interference amount and a second allowed interference, respectively; and an interference control unit configured to transmit an interference control signal to the base station of the small cell in accordance with the interference control scheme selected by the selection unit.
A weld metal, consisting of C: 0.05 to 0.15 mass%; Si: 0.10 to 0.50 mass%; Mn: 0.60 to 1.30 mass%; Cr: 1.80 to 3.00 mass%; Mo: 0.80 to 1.20 mass%; V: 0.25 to 0.50 mass%; Nb: 0.010 to 0.050 mass%; N: 0.025 mass% or less (not including 0 mass%); O: 0.020 to 0.060 mass%; and optionally at least one of the groups (a) to (c): (a) one or both of Cu: 1.00 mass% or less and Ni: 1.00 mass% or less; (b) B: 0.0050 mass% or less; and (c) one or more of W: 0.50 mass% or less, Al: 0.030 mass% or less, and Ti: 0.020 mass% or less with the remainder consisting of Fe and inevitable impurities, wherein an A value satisfies 200 or more, the A value being obtained by a composition of the weld metal according to a formula A value = V / 51 + Nb / 93 / V × Cr / 5 + Mo / 2 × 10 4 and wherein a Z value is 0.05 or more, the Z value being obtained according to a formula Z value = N × insol. V, where N is number density (particles/μm) of carbide particles per unit grain boundary, the carbide particles existing in a prior austenite grain boundary of a stress-relief annealed weld metal, and [insol. V] is concentration of compound-type V determined by an extraction residue of the stress-relief annealed weld metal. C: 0.05 to 0.15 mass%; Si: 0.10 to 0.50 mass%; Mn: 0.60 to 1.30 mass%; Cr: 1.80 to 3.00 mass%; Mo: 0.80 to 1.20 mass%; V: 0.25 to 0.50 mass%; Nb: 0.010 to 0.050 mass%; N: 0.025 mass% or less (not including 0 mass%); O: 0.020 to 0.060 mass%; and optionally at least one of the groups (a) to (c): (a) one or both of Cu: 1.00 mass% or less and Ni: 1.00 mass% or less; (b) B: 0.0050 mass% or less; and (c) one or more of W: 0.50 mass% or less, Al: 0.030 mass% or less, and Ti: 0.020 mass% or less (a) one or both of Cu: 1.00 mass% or less and Ni: 1.00 mass% or less; (b) B: 0.0050 mass% or less; and (c) one or more of W: 0.50 mass% or less, Al: 0.030 mass% or less, and Ti: 0.020 mass% or less with the remainder consisting of Fe and inevitable impurities, wherein an A value satisfies 200 or more, the A value being obtained by a composition of the weld metal according to a formula A value = V / 51 + Nb / 93 / V × Cr / 5 + Mo / 2 × 10 4 and wherein a Z value is 0.05 or more, the Z value being obtained according to a formula Z value = N × insol. V, where N is number density (particles/μm) of carbide particles per unit grain boundary, the carbide particles existing in a prior austenite grain boundary of a stress-relief annealed weld metal, and [insol. V] is concentration of compound-type V determined by an extraction residue of the stress-relief annealed weld metal.