mhurhangee/ep-ind-claims huggingface dataset:
A mold cleaning system comprising: a laser oscillator; a laser head configured to irradiate a molding surface of a mold with a laser beam supplied from the laser oscillator; an arm configured to move the laser head freely in three dimensions; a control device configured to control motion of the arm; a database in which an identification mark assigned to each mold to be cleaned to identify the mold, and shape data for the molding surface of the mold to which the identification mark is assigned are stored in advance in association with each other; and a mark detector configured to detect the identification mark; wherein the mold cleaning system is configured to obtain the shape data for the molding surface of the mold stored in the database on the basis of the identification mark assigned to the mold and detected by the mark detector when the mold is cleaned, and wherein the mold cleaning system is configured, by controlling the motion of the arm on the basis of the obtained shape data, to move the laser head along the molding surface while irradiating with the laser beam to clean the molding surface. a laser oscillator; a laser head configured to irradiate a molding surface of a mold with a laser beam supplied from the laser oscillator; an arm configured to move the laser head freely in three dimensions; a control device configured to control motion of the arm; a database in which an identification mark assigned to each mold to be cleaned to identify the mold, and shape data for the molding surface of the mold to which the identification mark is assigned are stored in advance in association with each other; and a mark detector configured to detect the identification mark; wherein the mold cleaning system is configured to obtain the shape data for the molding surface of the mold stored in the database on the basis of the identification mark assigned to the mold and detected by the mark detector when the mold is cleaned, and wherein the mold cleaning system is configured, by controlling the motion of the arm on the basis of the obtained shape data, to move the laser head along the molding surface while irradiating with the laser beam to clean the molding surface.
A target measurement device comprising: a measurement probe containing a coil and having some inductance and some capacitance and an admittance and a resonance frequency that change as the separation of the measurement probe and a target changes; a frequency source arranged to apply at an amplitude, an input alternating signal to the measurement probe; a frequency regulator arranged to regulate the input alternating signal at a frequency below the resonance frequency of the measurement probe; and a detector arranged to detect an output signal from the measurement probe at the frequency of the frequency source that varies in amplitude with the admittance and resonance frequency of the measurement probe indicating an interaction of the measurement probe with the target, characterised in that: the target measurement device further comprises a circuit arranged to scale the amplitude of the output signal detected by the detector according to the amplitude of the input signal provided by the frequency source; and the frequency regulator is arranged such that the frequency source is regulated to a frequency which is, both in the presence and absence of interaction between the measurement probe and a target, simultaneously: (a) not less than ω 0 / Q below the resonance frequency ω 0 of the measurement probe, Q being the quality factor of the measurement probe, and (b) not below the frequency ω L = R* / L where R* is the sum of a source impedance from which the measurement probe is driven and its resistance, and L is its inductance. a measurement probe containing a coil and having some inductance and some capacitance and an admittance and a resonance frequency that change as the separation of the measurement probe and a target changes; a frequency source arranged to apply at an amplitude, an input alternating signal to the measurement probe; a frequency regulator arranged to regulate the input alternating signal at a frequency below the resonance frequency of the measurement probe; and a detector arranged to detect an output signal from the measurement probe at the frequency of the frequency source that varies in amplitude with the admittance and resonance frequency of the measurement probe indicating an interaction of the measurement probe with the target, the target measurement device further comprises a circuit arranged to scale the amplitude of the output signal detected by the detector according to the amplitude of the input signal provided by the frequency source; and the frequency regulator is arranged such that the frequency source is regulated to a frequency which is, both in the presence and absence of interaction between the measurement probe and a target, simultaneously: (a) not less than ω 0 / Q below the resonance frequency ω 0 of the measurement probe, Q being the quality factor of the measurement probe, and (b) not below the frequency ω L = R* / L where R* is the sum of a source impedance from which the measurement probe is driven and its resistance, and L is its inductance.
In vitro method for promoting the development of neurons, comprising the steps of - culturing the neurons from neuronal precursor cells, and - field treatment of the neuronal precursor cells and/or the neurons at a high-frequency oscillation having a frequency of from 100 to 200 MHz during culturing, characterized in that the high-frequency oscillation is modulated by a low-frequency oscillation having a frequency of from 5 to 20 Hz. - culturing the neurons from neuronal precursor cells, and - field treatment of the neuronal precursor cells and/or the neurons at a high-frequency oscillation having a frequency of from 100 to 200 MHz during culturing,
A method, performed by a base station, referred to as a cell, for system information transmission the cell operating in a wireless communication system, the method comprising: broadcasting essential minimum system information, abbreviated as SI, of the cell of the wireless communication system, wherein the essential minimum SI is fixed scheduled on a downlink broadcast channel; characterized in that the essential minimum SI includes a first scheduling information for non-essential minimum SI of at least one of the cell and an auxiliary cell, the non-essential minimum SI is broadcasted and dynamically scheduled on a downlink shared channel, and the first scheduling information includes a time and frequency resource configuration of the non-essential minimum SI and an availability information for indicating whether the cell broadcasts the non-essential minimum SI. broadcasting essential minimum system information, abbreviated as SI, of the cell of the wireless communication system, wherein the essential minimum SI is fixed scheduled on a downlink broadcast channel; characterized in that the essential minimum SI includes a first scheduling information for non-essential minimum SI of at least one of the cell and an auxiliary cell, the non-essential minimum SI is broadcasted and dynamically scheduled on a downlink shared channel, and the first scheduling information includes a time and frequency resource configuration of the non-essential minimum SI and an availability information for indicating whether the cell broadcasts the non-essential minimum SI.
A method for remote assistance, the method comprising: determining a state of a machine deployed at a working site; adjusting a digital twin of the machine to be in the same state as the machine deployed at a working site; rendering the digital twin at a remote site using a remote rendering device to enable a remote person at the remote site to perform an operation on the digital twin; and mapping an effect of the operation rendered as visual assistance information directly onto the machine at the working site using a local rendering device, the local rendering device deployed at the working site in proximity to the machine. determining a state of a machine deployed at a working site; adjusting a digital twin of the machine to be in the same state as the machine deployed at a working site; rendering the digital twin at a remote site using a remote rendering device to enable a remote person at the remote site to perform an operation on the digital twin; and mapping an effect of the operation rendered as visual assistance information directly onto the machine at the working site using a local rendering device, the local rendering device deployed at the working site in proximity to the machine.
An apparatus for human identification, comprising: a receiver configured for receiving at least one wireless signal from a multipath channel that is impacted by a person to be identified; a processor; and a memory communicatively coupled with the processor, wherein the processor is configured to: extract channel state information from the at least one wireless signal, obtain radio biometric information based on the CSI, wherein the radio biometric information represents how the at least one wireless signal was impacted by at least part of a body of the person, map the radio biometric information into time-reversal, TR, space, quantify and evaluating a similarity between different radio biometrics using time-reversal resonance strength, TRRS, and determine an identity of the person based on the radio biometric information and the TRRS. a receiver configured for receiving at least one wireless signal from a multipath channel that is impacted by a person to be identified; a processor; and a memory communicatively coupled with the processor, wherein the processor is configured to: extract channel state information from the at least one wireless signal, obtain radio biometric information based on the CSI, wherein the radio biometric information represents how the at least one wireless signal was impacted by at least part of a body of the person, map the radio biometric information into time-reversal, TR, space, quantify and evaluating a similarity between different radio biometrics using time-reversal resonance strength, TRRS, and determine an identity of the person based on the radio biometric information and the TRRS. extract channel state information from the at least one wireless signal, obtain radio biometric information based on the CSI, wherein the radio biometric information represents how the at least one wireless signal was impacted by at least part of a body of the person, map the radio biometric information into time-reversal, TR, space, quantify and evaluating a similarity between different radio biometrics using time-reversal resonance strength, TRRS, and determine an identity of the person based on the radio biometric information and the TRRS.
A polynucleotide molecule, encoding a Clostridial toxin comprising a least one inactivation cleavage site located within an inactivation cleavage site region, wherein the inactivation cleavage site region is located in the 871-895 domain of SEQ ID NO:1, wherein the at least one inactivation cleavage site comprises a dual Thrombin-Thrombin site.
A method of analysis comprising: liberating analyte material from a sample by an ambient ionisation process; transferring said analyte material from said sample towards an inlet using a sampling or transfer tube and transferring said analyte material through said inlet to an ion analyser, wherein the ion analyser comprises a mass spectrometer or ion mobility spectrometer; detecting the presence of said analyte material at a first position within said sampling or transfer tube, wherein said first position is at or near an entrance to said sampling or transfer tube; and analysing said analyte material and/or ions derived from said analyte material at said ion analyser, wherein a subsequent detection of said analyte material and/or of ions derived from said analyte material is performed by or at the ion analyser; the method further comprising determining a transit time of said analyte material through at least a part of said sampling or transfer tube using said detection at said first position and the subsequent detection. liberating analyte material from a sample by an ambient ionisation process; transferring said analyte material from said sample towards an inlet using a sampling or transfer tube and transferring said analyte material through said inlet to an ion analyser, wherein the ion analyser comprises a mass spectrometer or ion mobility spectrometer; detecting the presence of said analyte material at a first position within said sampling or transfer tube, wherein said first position is at or near an entrance to said sampling or transfer tube; and analysing said analyte material and/or ions derived from said analyte material at said ion analyser, wherein a subsequent detection of said analyte material and/or of ions derived from said analyte material is performed by or at the ion analyser; the method further comprising determining a transit time of said analyte material through at least a part of said sampling or transfer tube using said detection at said first position and the subsequent detection.
A bottle, in particular a glass bottle, with a closure, comprising a bottle body having a bottle neck and a bottle longitudinal axis, wherein the closure comprises a closure body for sealing a bottle opening in the closed state and at least one fastening element, wherein the fastening element or the fastening elements are connected to the closure body and at least two ends of the fastening element or one end of each fastening element, respectively can be engaged in a respective retaining structure, in particular grooves, of a bottle neck, wherein the fastening element or the fastening elements are formed in one piece, preferably as a one-piece wire, at least between the closure body and the end engaging in the retaining structure, the bottle neck having retaining structures, in particular grooves, which are designed in such a way that at least two ends of a fastening element of the closure can be engaged or engage in the retaining structures, characterized in that the bottle can be opened and closed by a rotational movement of the closure about the longitudinal axis of the bottle.
A panel attachment system for an exhaust gas duct of a gas turbine engine, comprising: a panel; a casing; a centre mount; and a plurality of panel attachment devices for removably connecting the panel to the casing, each panel attachment device comprising: a first bracket; a second bracket; and a link having a first end and an opposite second end, wherein the first end is removably connected to the first bracket and the second end is removably connected to the second bracket, each of the first end and second end being located by, and rotatable relative to, the first bracket and second bracket respectively, characterised in that the centre mount fixedly connects the panel and the casing, each of the first brackets being fixedly connected to the panel, and each of the second brackets being fixedly connected to the casing, such that each of the spherical bearing axes is parallel to each other. a panel; a casing; a centre mount; and a plurality of panel attachment devices for removably connecting the panel to the casing, each panel attachment device comprising: a first bracket; a second bracket; and a link having a first end and an opposite second end, a first bracket; a second bracket; and a link having a first end and an opposite second end,
A hair treatment composition comprising a) a conditioning base comprising i) an amidoamine having from 10 to 22 carbon atoms, ii) a water soluble non-amphiphilic acid, selected from the group consisting of lactic acid, acetic acid, tartaric acid, fumaric acid, and mixtures thereof; iii) a fatty alcohol having from 8 to 22 carbon atoms; b) a hydrophobically modified anionic polymer, comprising hydrophobic modification that comprises an alkyl group comprising from 12 to 30 carbon atoms; and c) water. a) a conditioning base comprising i) an amidoamine having from 10 to 22 carbon atoms, ii) a water soluble non-amphiphilic acid, selected from the group consisting of lactic acid, acetic acid, tartaric acid, fumaric acid, and mixtures thereof; iii) a fatty alcohol having from 8 to 22 carbon atoms; i) an amidoamine having from 10 to 22 carbon atoms, ii) a water soluble non-amphiphilic acid, selected from the group consisting of lactic acid, acetic acid, tartaric acid, fumaric acid, and mixtures thereof; iii) a fatty alcohol having from 8 to 22 carbon atoms; b) a hydrophobically modified anionic polymer, comprising hydrophobic modification that comprises an alkyl group comprising from 12 to 30 carbon atoms; and c) water.
Doped organic semiconductive matrix material, characterized in that the dopant is an organic mesomeric radialene compound with the following formula: wherein each R 1 being independently selected from aryl and heteroaryl, aryl and heteroaryl being at least partially, preferably completely, substituted with electron acceptor groups; wherein the organic semiconductive matrix material has the chemical structure: where Ar 1 to Ar 4, which may be the same or different, represent a, preferably unsubstituted, aromatic hydrocarbon group; A represents a divalent group represented by structural formulae or below; wherein the dotted line in compound illustrates the bonds connecting the "A" to the two phenyl rings at the chemical structure; or wherein the organic semiconductive matrix material has the following structure
A agent comprising a malignant tumor antigen peptide and a pertussis vaccine for use in a method of treatment of malignant tumor or for use in a method of prophylaxis of malignant tumor metastasis or recurrence, wherein the malignant tumor antigen peptide is selected from the group consisting of WT1 and a portion of the amino acid sequence thereof, the peptide having T cell inducing activity to stimulate cytotoxic T lymphocytes, the pertussis vaccine is a whole cell pertussis vaccine, the whole cell pertussis vaccine is an adjuvant and the malignant tumour expresses WT1.
Electric drive unit for cords of blinds, comprising: - a DC driven electric motor, - a cord winding/unwinding unit driven by the electric motor, for winding/unwinding one or more cords of a blind, - a control circuitry arranged for controlling the operation of the electric motor by controlling the DC supply of the electric motor, the control circuitry being functionally connected to one or more rotation detection sensors, each rotation detection sensor being arranged for detecting increments of the rotation of the electric motor by cooperating with a rotating element driven by the electric motor, the rotating element having at least two discrete elements, wherein the passage of which is detected as detection pulses by the one or more rotation detection sensor, wherein the control circuitry is arranged for controlling the electric motor dependent on the time development of the detected passages, the electric drive unit being characterized in that the control circuitry is arranged for controlling the electric motor, such that - the electric motor drives the cord winding/unwinding unit to wind up the one or more cords of the blind, and - the electric motor stops the cord winding/unwinding unit winding up the one or more cords of the blind at a defined wound up end position and then drives the cord winding/unwinding unit to turn in the opposite direction in order to relax the one or more cords of the blind. - a DC driven electric motor, - a cord winding/unwinding unit driven by the electric motor, for winding/unwinding one or more cords of a blind, - a control circuitry arranged for controlling the operation of the electric motor by controlling the DC supply of the electric motor, - the electric motor drives the cord winding/unwinding unit to wind up the one or more cords of the blind, and - the electric motor stops the cord winding/unwinding unit winding up the one or more cords of the blind at a defined wound up end position and then drives the cord winding/unwinding unit to turn in the opposite direction in order to relax the one or more cords of the blind.
A method for producing a calcite single crystal, comprising the steps of: mixing raw material calcium carbonate with an ammonium nitrate aqueous solution to obtain a raw material mixed liquid, wherein pH of the ammonium nitrate aqueous solution is not less than 7.0 and not more than 8.0, a concentration of the ammonium nitrate aqueous solution is not less than 2 M, and a concentration of calcium carbonate in the raw material mixed liquid is not less than 4 g/L and not more than 16 g/L; heating the raw material mixed liquid at not less than 125°C; and then gradually cooling the raw material mixed liquid at a cooling rate of not less than 0.5°C/h and not more than 10°C/h; wherein the raw material mixed liquid is stirred at a stirring speed of not less than 80 r/min and not more than 300 r/min at least in the gradually cooling step. mixing raw material calcium carbonate with an ammonium nitrate aqueous solution to obtain a raw material mixed liquid, wherein pH of the ammonium nitrate aqueous solution is not less than 7.0 and not more than 8.0, a concentration of the ammonium nitrate aqueous solution is not less than 2 M, and a concentration of calcium carbonate in the raw material mixed liquid is not less than 4 g/L and not more than 16 g/L; heating the raw material mixed liquid at not less than 125°C; and then gradually cooling the raw material mixed liquid at a cooling rate of not less than 0.5°C/h and not more than 10°C/h; wherein the raw material mixed liquid is stirred at a stirring speed of not less than 80 r/min and not more than 300 r/min at least in the gradually cooling step.