mhurhangee/ep-ind-claims huggingface dataset:
A command input device (200;300) for a game pad provided to be arranged on a rear face of said game pad, said device (200;300) comprising at least one actuator (200;302,304), called paddle, comprising: - a part (216,316), called fixing part, provided to be fixed on said rear face, and - a part (218,318), called manipulation part, having a contact surface (222,322) provided to be manipulated by at least one finger of a user apart from the thumb; said paddle (200;302,304) has a geometry such that, when it is fixed on said rear face, said manipulation part (218,318) is positioned between said fixing part (216,316) and a lateral edge (214,212) of said game pad; characterized in that said paddle (200;302,304) is curved between said fixing part (216,316) and said manipulation part (218,318) so that, when it is fixed on said rear face: - said paddle (200;302,304) becomes further away from said rear face on the side of said manipulation part (218, 318); and - said manipulation part forms a non-zero angle with respect to said rear face. - a part (216,316), called fixing part, provided to be fixed on said rear face, and - a part (218,318), called manipulation part, having a contact surface (222,322) provided to be manipulated by at least one finger of a user apart from the thumb; - said paddle (200;302,304) becomes further away from said rear face on the side of said manipulation part (218, 318); and - said manipulation part forms a non-zero angle with respect to said rear face.
Bolt tensioning device for preloading and loosening high-strength preloadable threaded connections, consisting of a high-pressure hydraulic pump and a bolt tensioning cylinder having a working piston which is screwable onto a threaded shank of the bolt to be tensioned, characterized in that a high-pressure hydraulic pump is integrated inside the bolt tensioning cylinder, the high-pressure hydraulic pump is coupled with a hydraulic accumulator, a pneumatically operable drive is disposed on or inside the bolt tensioning cylinder, wherein the pneumatic drive is designed based on a diaphragm cylinder or a piston cylinder, the pneumatically operable drive drives a high-pressure piston and the pneumatic drive is coupled with a compressed air feeding device.
A device for carrying out an integrity test on a sample of single-use components, comprising - a medium chamber having an outwardly delimited inner space for receiving a culture medium; - a sample holder in which the sample can be arranged such that the sample delimits the medium chamber at least partially outwards; and - an alignment device; wherein - the medium chamber has a vent line, which is arranged in a sealable and openable manner on one side of the medium chamber facing away from the sample holder; - the medium chamber can be aligned by means of the alignment device in a filling position, in which - the vent line of the medium chamber is substantially arranged at the highest point of the inner space of the medium chamber, - the medium chamber can be filled with the culture medium by means of a medium supply line of the medium chamber, and - in which filling position the sample holder is arranged vertically below the vent line; and - the medium chamber can, in addition, be aligned by means of the alignment device in a suspension filling position and/or in an application position, in which the sample holder is arranged vertically above the vent line. - a medium chamber having an outwardly delimited inner space for receiving a culture medium; - a sample holder in which the sample can be arranged such that the sample delimits the medium chamber at least partially outwards; and - an alignment device; - the medium chamber has a vent line, which is arranged in a sealable and openable manner on one side of the medium chamber facing away from the sample holder; - the medium chamber can be aligned by means of the alignment device in a filling position, in which - the vent line of the medium chamber is substantially arranged at the highest point of the inner space of the medium chamber, - the medium chamber can be filled with the culture medium by means of a medium supply line of the medium chamber, and - in which filling position the sample holder is arranged vertically below the vent line; and - the medium chamber can, in addition, be aligned by means of the alignment device in a suspension filling position and/or in an application position, in which the sample holder is arranged vertically above the vent line. - the vent line of the medium chamber is substantially arranged at the highest point of the inner space of the medium chamber, - the medium chamber can be filled with the culture medium by means of a medium supply line of the medium chamber, and - in which filling position the sample holder is arranged vertically below the vent line; and - the medium chamber can, in addition, be aligned by means of the alignment device in a suspension filling position and/or in an application position, in which the sample holder is arranged vertically above the vent line.
A method for pulse multiplicity counting with dead time correction in a particle detector having at least two channels, the method comprising: a) detecting, in the particle detector, the presence of emitted particles from a sample of material; b) creating a plurality of detection events corresponding to the emitted particles detected by the particle detector for each channel; c) converting, in processing circuitry associated with the particle detector, the plurality of detection events into a pulse train C i t for each channel, where i corresponds to the index of each channel and t corresponds to the time for a detected pulse of the pulse train; d) generating, for each channel, in the processing circuitry, an estimate of lost pulses on the channel with a respective assumed dead time period for each channel; e) obtaining, from the processing circuitry, for each channel, a relative efficiency of the particle detector with respect to a sum of efficiencies for all channels; f) deriving, from the processing circuitry, for each channel, a dead-time behaviour of the particle detector by iteratively generating, from the relative efficiency and the estimate of lost pulses, an estimated lost pulse train l i t having estimated lost pulses for all channels of the detector; and g) generating, in the processing circuitry, at least a first corrected histogram m 0 new, m 1 new, m 2 new, m 3 new,... based on the respective detected pulse train C i t and the estimated lost pulse train l i t for each channel, the first corrected histogram indicating, for each of a plurality of multiplicities, a respective count. a) detecting, in the particle detector, the presence of emitted particles from a sample of material; b) creating a plurality of detection events corresponding to the emitted particles detected by the particle detector for each channel; c) converting, in processing circuitry associated with the particle detector, the plurality of detection events into a pulse train C i t for each channel, where i corresponds to the index of each channel and t corresponds to the time for a detected pulse of the pulse train; d) generating, for each channel, in the processing circuitry, an estimate of lost pulses on the channel with a respective assumed dead time period for each channel; e) obtaining, from the processing circuitry, for each channel, a relative efficiency of the particle detector with respect to a sum of efficiencies for all channels; f) deriving, from the processing circuitry, for each channel, a dead-time behaviour of the particle detector by iteratively generating, from the relative efficiency and the estimate of lost pulses, an estimated lost pulse train l i t having estimated lost pulses for all channels of the detector; and g) generating, in the processing circuitry, at least a first corrected histogram m 0 new, m 1 new, m 2 new, m 3 new,... based on the respective detected pulse train C i t and the estimated lost pulse train l i t for each channel, the first corrected histogram indicating, for each of a plurality of multiplicities, a respective count.
Injection needle assembly comprising: • at least N injection needles where N is at least four and a multiple of two, • a first liquid port adapted to be connected to an injection device, • N second liquid ports, each connected to one of the N injection needles, • N 2 main liquid pathways each having an entrance connected to the first liquid port and having an exit, wherein it further comprises N 2 secondary liquid pathways comprising: • two extremities each opening on one of the N second liquid ports, and • a mid portion connected to the exit of one of the main liquid pathways; and in that the main liquid pathways and the secondary liquid pathways define N liquid flow paths between the first liquid port and the N second liquid ports and are dimensioned so that a pressure drop between the first liquid port and each of the N second liquid ports is similar. • at least N injection needles where N is at least four and a multiple of two, • a first liquid port adapted to be connected to an injection device, • N second liquid ports, each connected to one of the N injection needles, • N 2 main liquid pathways each having an entrance connected to the first liquid port and having an exit, • two extremities each opening on one of the N second liquid ports, and • a mid portion connected to the exit of one of the main liquid pathways; and in that the main liquid pathways and the secondary liquid pathways define N liquid flow paths between the first liquid port and the N second liquid ports and are dimensioned so that a pressure drop between the first liquid port and each of the N second liquid ports is similar.
A recombinant polynucleotide encoding an attenuated human subgroup A respiratory syncytial virus, wherein the recombinant polynucleotide comprises a nucleotide sequence encoding a RSV L protein, wherein the RSV L protein has an amino acid sequence differing by at most one amino acid residue from an amino acid sequence encoded by nucleotides 8387 to 14884 of SEQ ID NO: 1, wherein the nucleotide sequence encoding the RSV L protein is from 75% to 85% identical to nucleotides 8387 to 14884 of SEQ ID NO: 1, wherein the nucleotide sequence encoding the RSV L protein has been codon-pair deoptimized, wherein the codon-pair bias of the nucleotide sequence encoding the RSV L protein has been reduced by at least 0.2 relative to nucleotides 8387 to 14884 of SEQ ID NO: 1, wherein the attenuated human subgroup A RSV replicates at least 100-fold lower than wild-type RSV in the lower respiratory tract of African green monkeys, and wherein the attenuated human subgroup A RSV induces neutralizing antibodies in the African green monkeys. wherein the recombinant polynucleotide comprises a nucleotide sequence encoding a RSV L protein, wherein the RSV L protein has an amino acid sequence differing by at most one amino acid residue from an amino acid sequence encoded by nucleotides 8387 to 14884 of SEQ ID NO: 1, wherein the nucleotide sequence encoding the RSV L protein is from 75% to 85% identical to nucleotides 8387 to 14884 of SEQ ID NO: 1, wherein the nucleotide sequence encoding the RSV L protein has been codon-pair deoptimized, wherein the codon-pair bias of the nucleotide sequence encoding the RSV L protein has been reduced by at least 0.2 relative to nucleotides 8387 to 14884 of SEQ ID NO: 1, wherein the attenuated human subgroup A RSV replicates at least 100-fold lower than wild-type RSV in the lower respiratory tract of African green monkeys, and wherein the attenuated human subgroup A RSV induces neutralizing antibodies in the African green monkeys.
A steering gear for a steer-by-wire steering system of a motor vehicle, having a coupling rod which is supported in a steering gear housing, wherein the coupling rod can be moved along the longitudinal axis, wherein the coupling rod is movably mounted in the steering gear housing along a longitudinal axis by means of a pressure piece, characterized in that the pressure piece has two bearing elements (20, 21) which are arranged on opposite sides diametrically to the coupling rod in the circumferential direction of the longitudinal axis, wherein at least one of the bearing elements (20, 21) has a sliding element (27, 38) on the contact surface (26, 36) between the bearing element (20, 21) and the coupling rod.
A composition comprising a Punica extract containing punicalagins and ellagic acid and a Lamiaceae extract containing the phenolic diterpenes carnosic acid and carnosol, wherein a majority of the volatile oil components have been removed from the Lamiaceae extract.
A method of producing metal, the method comprising the steps of: forming a non-metallic feedstock powder suitable for reduction to metal, the step of forming a non-metallic feedstock powder comprising: combining a liquid with solid metal oxide particles to form a mixture, subjecting the mixture to high-shear mixing to form a liquid suspension of metal oxide and the liquid, and drying the liquid suspension using a fluidised-bed spray-granulation process to grow a plurality of particles to form the non-metallic feedstock powder, and reducing the non-metallic feedstock powder to form the metal. forming a non-metallic feedstock powder suitable for reduction to metal, the step of forming a non-metallic feedstock powder comprising: combining a liquid with solid metal oxide particles to form a mixture, subjecting the mixture to high-shear mixing to form a liquid suspension of metal oxide and the liquid, and drying the liquid suspension using a fluidised-bed spray-granulation process to grow a plurality of particles to form the non-metallic feedstock powder, and combining a liquid with solid metal oxide particles to form a mixture, subjecting the mixture to high-shear mixing to form a liquid suspension of metal oxide and the liquid, and drying the liquid suspension using a fluidised-bed spray-granulation process to grow a plurality of particles to form the non-metallic feedstock powder, and reducing the non-metallic feedstock powder to form the metal.
A wearable device for assessing the in-use effectiveness of a respiratory mask, the wearable device comprising: a first condensation particle counter having a first inlet port, a first growth column, and a first optical element for counting particles detected at the first inlet port, the first condensation particle counter configured to provide a first signal corresponding to the particles counted at the first inlet port; a second condensation particle counter having a second inlet port, a second growth column, and a second optical element for counting particles detected at the second inlet port, the second condensation particle counter configured to provide a second signal corresponding to the particles counted at the second inlet port; wherein the first condensation particle counter and the second condensation particle counter are configured to include a wick in which the wick is wetted by water; a differential pressure sensor coupled to the first inlet port and coupled to the second inlet port, the sensor configured to provide a pressure signal; a processor coupled to memory and configured to receive the first signal, the second signal, and the pressure signal and generate an output corresponding to a ratio of the first signal and the second signal and correlate the ratio with the pressure signal; and a housing configured to receive the first condensation particle counter and the second condensation particle counter, the differential pressure sensor, the processor, and the memory. a first condensation particle counter having a first inlet port, a first growth column, and a first optical element for counting particles detected at the first inlet port, the first condensation particle counter configured to provide a first signal corresponding to the particles counted at the first inlet port; a second condensation particle counter having a second inlet port, a second growth column, and a second optical element for counting particles detected at the second inlet port, the second condensation particle counter configured to provide a second signal corresponding to the particles counted at the second inlet port; wherein the first condensation particle counter and the second condensation particle counter are configured to include a wick in which the wick is wetted by water; a differential pressure sensor coupled to the first inlet port and coupled to the second inlet port, the sensor configured to provide a pressure signal; a processor coupled to memory and configured to receive the first signal, the second signal, and the pressure signal and generate an output corresponding to a ratio of the first signal and the second signal and correlate the ratio with the pressure signal; and a housing configured to receive the first condensation particle counter and the second condensation particle counter, the differential pressure sensor, the processor, and the memory.
Measuring procedure for measuring the dynamic viscosity (η) as physical quantity of an essentially non-compressible liquid measuring medium, whereas there are provided a vessel and a collection vessel, which are charged with a gas as compressible medium (L, L A1, L A2), and whereas there is in a first process step introduced the liquid measuring medium in the vessel charged with a gas as compressible medium, with the liquid measuring medium thereafter constituting a fraction volume (V x(t)) of the total volume (V 0) of the vessel and which liquid measuring medium flows in the first process step via a capillary tube from the vessel into the collection vessel until there is obtained in both vessels a liquid level of the same height according to the law of communicating vessels, and whereas in a second process step there is measured an initial pressure (P A1, P A2) of the compressible medium (L A1, L A2) in the collection vessel and whereas in a third process step there is modified the total volume (V 0) of the vessel by a predetermined modification volume (ΔV) and whereas there is measured in a fourth process step a modification internal pressure of the compressible medium in the vessel, effected by the volume modification, and whereas in a fifth process step the liquid measuring medium flows through at least one opening of the vessel through the capillary tube into the collection vessel, whereas the modification internal pressure (P (t)) is measured at least at one measuring point (t) during the fifth process step while the pressure difference (ΔP) between the modification internal pressure (P (t)) of the compressible medium in the vessel and the initial pressure (P A1, P A2) of the compressible medium (L A1, L A2) in the collection vessel forms the driving force, by means of which the measuring medium flows from the vessel via the capillary tube into the collection vessel.
A modem for communicating digital user data, the modem comprising: an input port configured to receive the digital user data; an output port configured to transmit a modem output signal; the modem configurable to: initially establish at least a first carrier at a first carrier frequency and bandwidth of the modem output signal; transmit the digital user data over the at least a first carrier; subsequently establish at least one second carrier at a second carrier frequency and bandwidth of the modem output signal; initially transmit pilot data over the second carrier for a period of time; stop transmitting pilot data after the period of time; and after the period of time divide the digital user data among the first carrier and the second carrier. an input port configured to receive the digital user data; an output port configured to transmit a modem output signal; the modem configurable to: initially establish at least a first carrier at a first carrier frequency and bandwidth of the modem output signal; transmit the digital user data over the at least a first carrier; subsequently establish at least one second carrier at a second carrier frequency and bandwidth of the modem output signal; initially transmit pilot data over the second carrier for a period of time; stop transmitting pilot data after the period of time; and after the period of time divide the digital user data among the first carrier and the second carrier. initially establish at least a first carrier at a first carrier frequency and bandwidth of the modem output signal; transmit the digital user data over the at least a first carrier; subsequently establish at least one second carrier at a second carrier frequency and bandwidth of the modem output signal; initially transmit pilot data over the second carrier for a period of time; stop transmitting pilot data after the period of time; and after the period of time divide the digital user data among the first carrier and the second carrier.
A method for determining the presence, absence or one or more characteristics of a target analyte, comprising: (a) contacting the target analyte with a CsgG pore such that the target analyte moves with respect to the pore, wherein the pore comprises a mutant CsgG monomer comprising a variant of the sequence shown in SEQ ID NO: 2 which comprises R192D/Q/F/S/T; and (b) taking one or more measurements as the analyte moves with respect to the pore and thereby determining the presence, absence or one or more characteristics of the analyte. (a) contacting the target analyte with a CsgG pore such that the target analyte moves with respect to the pore, wherein the pore comprises a mutant CsgG monomer comprising a variant of the sequence shown in SEQ ID NO: 2 which comprises R192D/Q/F/S/T; and (b) taking one or more measurements as the analyte moves with respect to the pore and thereby determining the presence, absence or one or more characteristics of the analyte.
A stator for an axial flux machine, the stator comprising: - a central axis which corresponds to the rotational axis of the axial flux machine when mounted; and - an inner structure, an intermediate structure and an outer structure arranged coaxially around the central axis, the intermediate structure being arranged between the inner structure and the outer structure; and - the inner structure comprising a plurality of rotational symmetrical arranged stator elements, a stator element comprising a ferromagnetic core and a coil wound around the ferromagnetic core, CHARACTERIZED IN THAT: - the intermediate structure comprises a plurality of compression elements, a compression element comprising a circular segment and a protrusion radially extending therefrom; and - the outer structure is configured to press the compression elements with the protrusions radially inward the inner structure against the stator elements, the intermediate structure thereby compressing the coils and mechanically securing the stator elements. - a central axis which corresponds to the rotational axis of the axial flux machine when mounted; and - an inner structure, an intermediate structure and an outer structure arranged coaxially around the central axis, the intermediate structure being arranged between the inner structure and the outer structure; and - the inner structure comprising a plurality of rotational symmetrical arranged stator elements, a stator element comprising a ferromagnetic core and a coil wound around the ferromagnetic core, - the intermediate structure comprises a plurality of compression elements, a compression element comprising a circular segment and a protrusion radially extending therefrom; and - the outer structure is configured to press the compression elements with the protrusions radially inward the inner structure against the stator elements, the intermediate structure thereby compressing the coils and mechanically securing the stator elements.