mhurhangee/ep-ind-claims huggingface dataset:
A method of determining the group delay (τ) caused by a device under test (14, 14A, 14B), comprising the steps: - generating a modulated test signal (s test (t)) comprising a plurality of spectral lines each having a different frequency, by amplitude modulating a carrier signal, which contains multiple sine waves of defined frequencies (ω K) with a modulating signal, which contains at least one sine wave, - providing the device under test with said modulated test signal (s test (t)), - measuring a phase distorted, modulated response signal (s resp (t)) caused by said device under test provided with said modulated test signal (s test (t)), - for at least some of said defined frequencies (ω K) of the carrier signal, - detecting phases of at least two spectral lines of said modulated response signal (s resp (t)), - calculating at least one phase difference (Δφ) between said phases of said two of said spectral lines of said modulated response signal (s resp (t)), and - calculating said group delay (τ K) for the at least some of said defined frequencies (ω K) by using said phase differences (Δφ K) at said defined frequencies (ω K). - generating a modulated test signal (s test (t)) comprising a plurality of spectral lines each having a different frequency, by amplitude modulating a carrier signal, which contains multiple sine waves of defined frequencies (ω K) with a modulating signal, which contains at least one sine wave, - providing the device under test with said modulated test signal (s test (t)), - measuring a phase distorted, modulated response signal (s resp (t)) caused by said device under test provided with said modulated test signal (s test (t)), - for at least some of said defined frequencies (ω K) of the carrier signal, - detecting phases of at least two spectral lines of said modulated response signal (s resp (t)), - calculating at least one phase difference (Δφ) between said phases of said two of said spectral lines of said modulated response signal (s resp (t)), and - detecting phases of at least two spectral lines of said modulated response signal (s resp (t)), - calculating at least one phase difference (Δφ) between said phases of said two of said spectral lines of said modulated response signal (s resp (t)), and - calculating said group delay (τ K) for the at least some of said defined frequencies (ω K) by using said phase differences (Δφ K) at said defined frequencies (ω K).
A twin-tube tubular bag machine having two longitudinal sealing elements for forming two parallel film tubes, two transverse sealing jaws, which are moveable against each other and which thereby transversely seal the film tube, being provided for each of the two film tubes for forming sealed tubular bags, having a mechanism which has a drive and which moves the transverse sealing jaws, and having two filling devices for filling the tubular bags formed by the two film tubes with filling material, and having two separating elements for separating individual filled tubular bags formed by the two film tubes, a dosing device being disposed upstream of each of the filling devices, said dosing device allowing for the dosing of a prespecified filling quantity of the filling material to be filled into the tubular bags, a transfer element (10, 18, 20) which has several transfer containers being provided between the two filling devices and the dosing device, the prespecified filling quantity of the filling material being transferred from the dosing device to the transfer containers in an input station (11, 19), and the transfer containers being transported to a pairing of two dispensing stations (12, 21) along a transfer line, and the filling material being transferred from the transfer containers to the two filling devices in the pairing of two dispensing stations (12, 21), and the transfer containers being transported back to the input station (11, 19) along a return transfer line, characterized in that in a pairing of two dispensing stations (12, 21), the distance between the two dispensing stations (12, 21) is adaptable.
A plasma arc welding method for continuously welding a welding target area of a welding workpiece while forming a keyhole in the welding target area of the welding workpiece by a plasma arc, the method comprising the steps of: supplying a pulse current as a welding current; and controlling a pulse frequency of the pulse current to a frequency that synchronizes with a weld pool, wherein the pulse frequency of the pulse current is controlled such that the pulse frequency of the pulse current is equal to or more than 0.8 times the natural frequency of the weld pool and no greater than 3.0 times the natural frequency of the weld pool. supplying a pulse current as a welding current; and controlling a pulse frequency of the pulse current to a frequency that synchronizes with a weld pool, wherein the pulse frequency of the pulse current is controlled such that the pulse frequency of the pulse current is equal to or more than 0.8 times the natural frequency of the weld pool and no greater than 3.0 times the natural frequency of the weld pool.
A casing of a tube heat exchanger which, on the top, closes a wall of a combustion chamber placed inside a jacked fitted with openings to accommodate stub pipes for the supply and discharge of the heated liquid, where the wall of the combustion chamber is shaped to form a container open on the top with its bottom formed to make an upper sieve bottom, the container encased in the jacket, where the jacket is bound on the top with a weld to the top section of the combustion chamber wall, characterised in that there is only one weld in it, where the jacket is given the shape of a container open on the top, with its bottom formed to make a lower sieve bottom.
A blade switch (315, 320), comprising: a first port in communication with a first blade of a plurality of blades, each blade having the functionality of an individual server; a second port configured as an N_Port; and a logic device configured to do the following: receive a first Fabric Log-In, FLOGI, request from the first blade via the first port, the FLOGI request not including an address for the first blade; convert the first FLOGI request to a first Fabric Discovery, FDISC, request, the FDISC request not including an address for the first blade; forward the FDISC request to an F_Port of a fabric switch that is in communication with the second port; and receive an FDISC ACCEPT from the attached fabric switch, the FDISC ACCEPT including the address for the first blade. a first port in communication with a first blade of a plurality of blades, each blade having the functionality of an individual server; a second port configured as an N_Port; and a logic device configured to do the following: receive a first Fabric Log-In, FLOGI, request from the first blade via the first port, the FLOGI request not including an address for the first blade; convert the first FLOGI request to a first Fabric Discovery, FDISC, request, the FDISC request not including an address for the first blade; forward the FDISC request to an F_Port of a fabric switch that is in communication with the second port; and receive an FDISC ACCEPT from the attached fabric switch, the FDISC ACCEPT including the address for the first blade. receive a first Fabric Log-In, FLOGI, request from the first blade via the first port, the FLOGI request not including an address for the first blade; convert the first FLOGI request to a first Fabric Discovery, FDISC, request, the FDISC request not including an address for the first blade; forward the FDISC request to an F_Port of a fabric switch that is in communication with the second port; and receive an FDISC ACCEPT from the attached fabric switch, the FDISC ACCEPT including the address for the first blade.
Method of controlling a circuit comprising a bridge for rectifying an AC voltage (Vac), the rectifying bridge comprising two thyristors (T1, T2; T1', T2'), and an AC capacitor (Xcap) having its two electrodes respectively coupled to two distinct electrodes of the thyristors, characterized by the fact that the control method comprises a step consisting of simultaneously applying same gate currents (IG1, IG2) to the two thyristors to discharge the AC capacitor when the circuit detects the absence of an AC voltage (Vac) across the AC capacitor for a duration longer than a first threshold, of at least one half-period of the AC voltage.
An apparatus for detecting the position of a top end of a self-baking electrode, which is formed by baking electrode raw materials supplied from above into a cylindrical electrode case that is vertically arranged and which is energized from an electrode conductor part in contact with the vicinity of the bottom end of the electrode case on its outer circumferential surface, the apparatus comprising: a protection tube which is fixedly arranged within the electrode case, the bottom end of the protection tube being positioned higher than the upper end of the electrode conductor part; a measurement tube that is arranged through the protection tube; and being characterised by a measurement tube driving means for lowering the measurement tube with a constant pressure from an initial position until the bottom end of the measurement tube hits the self-baking electrode to stops there.
An apparatus, comprising: a sensor including an emitter and a detector that define a line of sight therebetween; a mechanical arm having a fixed end, a free end, and a first axis of rotation passing through the fixed end that is parallel to the line of sight; a mechanical flag mounted to the fixed end of the mechanical arm and including at least a first protrusion that defines at least three positions of the mechanical arm relative to the line of sight, wherein the apparatus is a printing device, characterized in that the apparatus comprises an output door hinged upon a second axis of rotation that is substantially perpendicular to a direction in which a paper exits the printing device, wherein the second axis of rotation is parallel to the first axisof rotation. a sensor including an emitter and a detector that define a line of sight therebetween; a mechanical arm having a fixed end, a free end, and a first axis of rotation passing through the fixed end that is parallel to the line of sight; a mechanical flag mounted to the fixed end of the mechanical arm and including at least a first protrusion that defines at least three positions of the mechanical arm relative to the line of sight, wherein the apparatus is a printing device, characterized in that the apparatus comprises an output door hinged upon a second axis of rotation that is substantially perpendicular to a direction in which a paper exits the printing device, wherein the second axis of rotation is parallel to the first axisof rotation.
Table, particularly for playing table tennis, comprising a base assembly which is formed from at least one panel having a honeycomb structure (2, 3, 4) on which two trays are mounted reversibly while being aligned horizontally to form a continuous use surface, each tray having a structure different from that of the panel (2, 3, 4), at least one blank being fixed to a lower wall of said tray, said blank having at least one free flap which is associated with the base assembly ensuring the mounting of said tray on said assembly, said table being characterised in that the trays are mounted on the base assembly so as to form therebetween a space wherein a table tennis net is placed.
A method of a transmitter in a communication system, the method comprising: transmitting control information on an enhanced physical downlink control channel, EPDCCH, the EPDCCH comprising at least one enhanced control channel element, ECCE; transmitting data on a physical downlink shared channel, PDSCH, based on the control information; and receiving an uplink ACK/NACK response corresponding to the data on a resource, wherein the resource is identified based on a lowest ECCE index related to the EPDCCH and a demodulation reference signal, DMRS, port index associated with the EPDCCH. transmitting control information on an enhanced physical downlink control channel, EPDCCH, the EPDCCH comprising at least one enhanced control channel element, ECCE; transmitting data on a physical downlink shared channel, PDSCH, based on the control information; and receiving an uplink ACK/NACK response corresponding to the data on a resource, wherein the resource is identified based on a lowest ECCE index related to the EPDCCH and a demodulation reference signal, DMRS, port index associated with the EPDCCH.
A method for fractionating a liquid composition, which comprises discharging a liquid composition containing a polymer having ion exchange groups and a solvent, from a discharge port of a filling nozzle, and fractionating a predetermined amount of the liquid composition, characterized in that the temperature of the liquid composition is controlled so that the average tan δ1 of the liquid composition when discharged from the discharge port becomes to be at most 1.00, wherein the average tan δ1 means an arithmetic mean value of the loss tangent tan δ (10 Hz) at a frequency of 10 Hz and the loss tangent tan δ (20 Hz) at a frequency of 20 Hz, which are obtained by dynamic viscoelasticity measurement conducted by changing the frequency from 1 Hz to 100 Hz under conditions of a strain of 1% and a temperature of T1 using the liquid composition, at the time when the temperature of the liquid composition discharged from the discharge port of the filling nozzle is set to be T1. characterized in that the temperature of the liquid composition is controlled so that the average tan δ1 of the liquid composition when discharged from the discharge port becomes to be at most 1.00, wherein the average tan δ1 means an arithmetic mean value of the loss tangent tan δ (10 Hz) at a frequency of 10 Hz and the loss tangent tan δ (20 Hz) at a frequency of 20 Hz, which are obtained by dynamic viscoelasticity measurement conducted by changing the frequency from 1 Hz to 100 Hz under conditions of a strain of 1% and a temperature of T1 using the liquid composition, at the time when the temperature of the liquid composition discharged from the discharge port of the filling nozzle is set to be T1.
A spinning machine comprising: a drafting device configured to draft a fiber bundle, a yarn forming unit (6, 11a) configured to form yarn from the fiber bundle drafted by the drafting device; a winding device configured to wind the yarn formed by the yarn forming unit (6, 11a); a tension detecting unit configured to detect tension of the yarn in an upstream side from the winding device in a direction in which the yarn travels; and a control unit configured to control the yarn forming unit (6, 11a) based on a result of detection by the tension detecting unit such that the yarn is wound by the winding device with adjustment of tension added to the spun material in the yarn forming unit (6, 11a), wherein the control unit adjusts the tension by controlling a device of the yarn forming unit (6, 11a) disposed at least in an upstream side or a downstream side from a position at which the spun material is twisted in the direction in which the yarn travels, characterized in that the drafting device includes a plurality of pairs of rollers including a pair of front rollers disposed in a most downstream position in a direction in which the fiber bundle is drafted, and the control unit controls a circumferential speed of the pair of front rollers based on the result of detection by the tension detecting unit. a drafting device configured to draft a fiber bundle, a yarn forming unit (6, 11a) configured to form yarn from the fiber bundle drafted by the drafting device; a winding device configured to wind the yarn formed by the yarn forming unit (6, 11a); a tension detecting unit configured to detect tension of the yarn in an upstream side from the winding device in a direction in which the yarn travels; and a control unit configured to control the yarn forming unit (6, 11a) based on a result of detection by the tension detecting unit such that the yarn is wound by the winding device with adjustment of tension added to the spun material in the yarn forming unit (6, 11a), wherein the control unit adjusts the tension by controlling a device of the yarn forming unit (6, 11a) disposed at least in an upstream side or a downstream side from a position at which the spun material is twisted in the direction in which the yarn travels, characterized in that the drafting device includes a plurality of pairs of rollers including a pair of front rollers disposed in a most downstream position in a direction in which the fiber bundle is drafted, and the control unit controls a circumferential speed of the pair of front rollers based on the result of detection by the tension detecting unit.
A thermosensitive recording body, comprising at least a thermosensitive recording layer and a topcoat layer formed on a substrate, the substrate consisting of a transparent film, wherein the thermosensitive recording body further comprises an intermediate layer between the thermosensitive recording layer and the topcoat layer, wherein at least the thermosensitive recording layer, the topcoat layer and the intermediate layer include a component configured for suppressing diffuse reflection of light from particles constituting each of the thermosensitive recording layer, the topcoat layer and the intermediate layer, wherein the thermosensitive recording body has an opacity less than or equal to 10% pursuant to JIS: P8138, wherein the thermosensitive recording layer includes a low-melting paraffin as the component, the low-melting paraffin having a melting point lower than or equal to a color developing temperature, wherein the intermediate layer includes a resin containing a water-soluble portion as the component, characterized in that the thermosensitive recording body, exclusive of the substrate, has a thickness greater than or equal to 1.0 μm and less than or equal to 10 μm, and the thermosensitive recording layer is formed by a process in which the melted paraffin penetrates into and fills gaps of irregular surfaces of the thermosensitive recording layer, and the intermediate layer is formed by a process in which the resin sinks into the thermosensitive recording layer, allowing the intermediate layer to be formed in smoothness.
A pharmaceutical combination comprising (a) a compound of formula or a pharmaceutically acceptable salt thereof, and (b) paclitaxel or a pharmaceutically acceptable salt thereof, for use in the treatment or prevention of a cancer of the head and neck.
A process for preventing interference between contact surfaces of stackable containers where there are local rough parts on said surfaces, characterised in that it comprises the following steps: identifying the local rough parts; orienting the containers; altering the contact surface at least close to the local rough parts. identifying the local rough parts; orienting the containers; altering the contact surface at least close to the local rough parts.
A double-stranded ribonucleic acid (dsRNA) for inhibiting expression of transthyretin, wherein said dsRNA comprises a sense strand and an antisense strand, the antisense strand comprising a region complementary to a part of a mRNA encoding transthyretin, wherein said region of complementarity is 19 nucleotides in length, the antisense strand comprises SEQ ID NO:170, and each strand of the dsRNA is 19, 20, 21, 22, 23, or 24 nucleotides in length.
A tunable laser device comprising a multi-section distributed feedback laser having: - A first Bragg section in active material comprising a waveguide in the form of an elongate strip and a plurality of teeth extending perpendicular to the length direction of the strip of the waveguide, the grating teeth forming a Bragg grating, - A second Bragg section in active material comprising a waveguide in the form of an elongate strip and a plurality of teeth extending perpendicular to the length direction of the strip of the waveguide, the grating teeth forming a Bragg grating, - A phase section being longitudinally located between the first Bragg section and the second Bragg section, the phase section being made of a passive material, each Bragg section having a first longitudinal end joining the phase section and a second longitudinal end opposed to the phase section, characterized in that the Bragg grating of at least one Bragg section has a grating coupling coefficient which decreases from the first longitudinal end to the second longitudinal end of said at least one Bragg section. - A first Bragg section in active material comprising a waveguide in the form of an elongate strip and a plurality of teeth extending perpendicular to the length direction of the strip of the waveguide, the grating teeth forming a Bragg grating, - A second Bragg section in active material comprising a waveguide in the form of an elongate strip and a plurality of teeth extending perpendicular to the length direction of the strip of the waveguide, the grating teeth forming a Bragg grating, - A phase section being longitudinally located between the first Bragg section and the second Bragg section, the phase section being made of a passive material, each Bragg section having a first longitudinal end joining the phase section and a second longitudinal end opposed to the phase section,
A method of detecting a heteroresistant population of a pathogen in a sample, the method comprising: a) extracting nucleic acids from a sample comprising a population of a pathogen; b) amplifying a target locus of the genome of the pathogen in the extracted nucleic acids, wherein the target locus comprises a minor variant associated with drug resistance in the pathogen; c) consecutively sequencing both nucleic acid strands amplified from a single DNA molecule of the target locus on a Next Generation Sequencing platform to obtain overlapping sequence data from the overlapping nucleic acid strands; d) applying an alignment algorithm to the overlapping sequencing data from the overlapping nucleic acid strands; and e) performing an analysis of the aligned overlapping sequencing data to detect and confirm the minor variant in the overlapping sequencing data from both nucleic acid strands. a) extracting nucleic acids from a sample comprising a population of a pathogen; b) amplifying a target locus of the genome of the pathogen in the extracted nucleic acids, wherein the target locus comprises a minor variant associated with drug resistance in the pathogen; c) consecutively sequencing both nucleic acid strands amplified from a single DNA molecule of the target locus on a Next Generation Sequencing platform to obtain overlapping sequence data from the overlapping nucleic acid strands; d) applying an alignment algorithm to the overlapping sequencing data from the overlapping nucleic acid strands; and e) performing an analysis of the aligned overlapping sequencing data to detect and confirm the minor variant in the overlapping sequencing data from both nucleic acid strands.