mhurhangee/patent-ind-claim-en huggingface dataset:
A pipe handler for assembling and deploying a string of threaded tubulars into a wellbore, comprising: a pair of compensating bails , each compensating bail comprising: a first bail segment ; a second bail segment ; and a compensator connecting the respective first and second bail segments ; and an elevator pivotally connected to the compensating bails , wherein: each compensator comprises: a load cylinder connected to the respective first bail segment ; and a linear actuator disposed in the respective load cylinder and operable to retract the respective second bail segment from a hoisting position to a ready position, and characterised in that each second bail segment is seated against a shoulder of the respective load cylinder in the hoisting position, each second bail segment including a coupling configured so that a top thereof is seated against a bottom of the load cylinder in the ready position, and the compensating bails are capable of supporting string weight in the hoisting position. a pair of compensating bails , each compensating bail comprising: a first bail segment ; a second bail segment ; and a compensator connecting the respective first and second bail segments ; and an elevator pivotally connected to the compensating bails , wherein: each compensator comprises: a load cylinder connected to the respective first bail segment ; and a linear actuator disposed in the respective load cylinder and operable to retract the respective second bail segment from a hoisting position to a ready position, and characterised in that each second bail segment is seated against a shoulder of the respective load cylinder in the hoisting position, each second bail segment including a coupling configured so that a top thereof is seated against a bottom of the load cylinder in the ready position, and the compensating bails are capable of supporting string weight in the hoisting position. each compensator comprises: a load cylinder connected to the respective first bail segment ; and a linear actuator disposed in the respective load cylinder and operable to retract the respective second bail segment from a hoisting position to a ready position, a load cylinder connected to the respective first bail segment ; and a linear actuator disposed in the respective load cylinder and operable to retract the respective second bail segment from a hoisting position to a ready position, and characterised in that each second bail segment is seated against a shoulder of the respective load cylinder in the hoisting position, each second bail segment including a coupling configured so that a top thereof is seated against a bottom of the load cylinder in the ready position, and the compensating bails are capable of supporting string weight in the hoisting position.
An antenna (100; 700), comprising: a plurality of radiating plates (110, 111, 112; 710, 711, 712, 713) oriented towards different directions for radiating electromagnetic waves; a plurality of reflecting plates (120, 121, 122; 720, 721, 722, 723, 724, 725, 726, 727) for reflecting the electromagnetic waves, such that the electromagnetic waves radiated by the plurality of radiating plates (110, 111, 112; 710, 711, 712, 713) each have a respective directional radiation pattern (510; 810); and a switch for selecting a radiating plate from the plurality of radiating plates (110, 111, 112; 710, 711, 712, 713) for performing radiation, wherein a planar dipole radiating element is disposed on one side of each of the plurality of radiating plates (110, 111, 112; 710, 711, 712, 713), wherein the planar dipole radiating element includes metal rings (131; 132) symmetrically disposed with respect to a symmetry axis (X-X').
A connection member comprising: a terminal unit having electrical conductivity; and a thermal fuse connected to the terminal unit by a lead wire , wherein the thermal fuse is provided in a vicinity of the terminal unit , characterized in that the thermal fuse has a property of not blowing due to heat generated when a direct current flows through the terminal unit but blowing due to heat generated when an arc discharge occurs, wherein a length of each lead wire connecting the thermal fuse and each terminal unit is 1 millimeter per ampere of rated capacity of the direct current. a terminal unit having electrical conductivity; and a thermal fuse connected to the terminal unit by a lead wire , wherein the thermal fuse is provided in a vicinity of the terminal unit , characterized in that the thermal fuse has a property of not blowing due to heat generated when a direct current flows through the terminal unit but blowing due to heat generated when an arc discharge occurs, wherein a length of each lead wire connecting the thermal fuse and each terminal unit is 1 millimeter per ampere of rated capacity of the direct current.
A system, comprising: a neurostimulator comprising a plurality of electrodes (E1-E8); an external device configured to communicate with the neurostimulator; and a non-transitory computer-readable medium in the external device having instructions stored thereon to cause control circuitry in the external device to: obtain data originating from one or more groups of the electrodes, wherein the data comprises measurements that are associated with a plurality of electrodes in the one or more groups of electrodes; and evaluate the data to associate each of the one or more groups of electrodes with corresponding ones of a plurality of known electrode groups based on properties in the data that are indicative of a physical electrode arrangement in the corresponding ones of the plurality of known electrode groups, wherein the known electrode groups are distinguishable based on their respective physical electrode arrangement. a neurostimulator comprising a plurality of electrodes (E1-E8); an external device configured to communicate with the neurostimulator; and a non-transitory computer-readable medium in the external device having instructions stored thereon to cause control circuitry in the external device to: obtain data originating from one or more groups of the electrodes, wherein the data comprises measurements that are associated with a plurality of electrodes in the one or more groups of electrodes; and evaluate the data to associate each of the one or more groups of electrodes with corresponding ones of a plurality of known electrode groups based on properties in the data that are indicative of a physical electrode arrangement in the corresponding ones of the plurality of known electrode groups, wherein the known electrode groups are distinguishable based on their respective physical electrode arrangement. obtain data originating from one or more groups of the electrodes, wherein the data comprises measurements that are associated with a plurality of electrodes in the one or more groups of electrodes; and evaluate the data to associate each of the one or more groups of electrodes with corresponding ones of a plurality of known electrode groups based on properties in the data that are indicative of a physical electrode arrangement in the corresponding ones of the plurality of known electrode groups, wherein the known electrode groups are distinguishable based on their respective physical electrode arrangement.
A fan assembly for a cleaning system of a combine harvester comprising: a housing comprising a plurality of interconnected walls, the interconnected walls including at least two side walls together defining an exterior width dimension of the fan assembly , and a lower wall connecting the two side walls, wherein the interconnected walls define at least one inlet opening through which air is delivered into the housing and at least one outlet opening through which air is exhausted from the housing ; and a fan rotor mounted to the housing , wherein the fan rotor is configured to rotate to distribute air from the inlet opening to the outlet opening , the housing further comprising at least one partition positioned between the at least two side walls , and the at least one partition forming discrete ducts in the housing through which air flows from the inlet opening to the outlet opening , each duct extending a portion of the width dimension [W] of the fan assembly to promote a uniform air flow across the width dimension [W] of the fan assembly characterized in that the at least one partition includes a pivotable wall proximate to the at least one inlet opening and upstream of the fan rotor . a housing comprising a plurality of interconnected walls, the interconnected walls including at least two side walls together defining an exterior width dimension of the fan assembly , and a lower wall connecting the two side walls, wherein the interconnected walls define at least one inlet opening through which air is delivered into the housing and at least one outlet opening through which air is exhausted from the housing ; and a fan rotor mounted to the housing , wherein the fan rotor is configured to rotate to distribute air from the inlet opening to the outlet opening , the housing further comprising at least one partition positioned between the at least two side walls , and the at least one partition forming discrete ducts in the housing through which air flows from the inlet opening to the outlet opening , each duct extending a portion of the width dimension [W] of the fan assembly to promote a uniform air flow across the width dimension [W] of the fan assembly
An antibody comprising: (i) an antibody variable region that is capable of binding to a first antigen and a second antigen different from the first antigen, but does not bind to the first antigen and the second antigen at the same time, wherein any one of the first antigen and the second antigen is CD3, and the other antigen is FcyR, TLR, lectin, IgA, an immune checkpoint molecule, a TNF superfamily molecule, TNFR superfamily molecule or an NK receptor molecule; and (ii) an antibody variable region binding to a third antigen, wherein the third antigen is a tumor-cell specific antigen which is different from the first antigen and the second antigen, wherein the antibody variable regions comprise an antibody light chain variable domain (VL) and an antibody heavy chain variable domain (VH); wherein the antibody variable region capable of binding to the first antigen and the second antigen is a variable region comprising an alteration of at least one amino acid in a CDR1, CDR2, CDR3, or FR3 of the variable region, wherein the alteration is an insertion of an amino acid sequence binding to the second antigen into the amino acid sequence of a variable region binding to the first antigen, wherein the number of amino acids to be inserted is 1 to 25; and wherein said antibody does not bind to the first antigen and the second antigen at the same time. (i) an antibody variable region that is capable of binding to a first antigen and a second antigen different from the first antigen, but does not bind to the first antigen and the second antigen at the same time, wherein any one of the first antigen and the second antigen is CD3, and the other antigen is FcyR, TLR, lectin, IgA, an immune checkpoint molecule, a TNF superfamily molecule, TNFR superfamily molecule or an NK receptor molecule; and (ii) an antibody variable region binding to a third antigen, wherein the third antigen is a tumor-cell specific antigen which is different from the first antigen and the second antigen, wherein the antibody variable regions comprise an antibody light chain variable domain (VL) and an antibody heavy chain variable domain (VH); wherein the antibody variable region capable of binding to the first antigen and the second antigen is a variable region comprising an alteration of at least one amino acid in a CDR1, CDR2, CDR3, or FR3 of the variable region, wherein the alteration is an insertion of an amino acid sequence binding to the second antigen into the amino acid sequence of a variable region binding to the first antigen, wherein the number of amino acids to be inserted is 1 to 25; and wherein said antibody does not bind to the first antigen and the second antigen at the same time.
A method of dispensing and aspirating a fluid comprising: providing a manifold comprising a vacuum channel and a pressure channel; providing two or more pipette channels, each pipette channel comprising a dispense head, a vacuum port, a pressure port, and an independently controlled valve in simultaneous fluid communication with the vacuum port and the pressure port; selectively engaging the two or more pipette channels to the manifold, wherein selectively engaging comprises connecting each vacuum port of the two or more pipette channels to the vacuum channel of the manifold and connecting each pressure port of the two or more pipette channels to the pressure channel of the manifold; transmitting control signals from the manifold to a first pipette channel of the two or more pipette channels to independently control operation of the independently controlled valve to selectively direct gas under vacuum or gas under pressure received through the vacuum port and the pressure port of the first pipette channel to the dispense head of the first pipette channel; and performing aspirate and dispense operations with the first pipette channel, the aspirate and dispense operations comprising aspirating the fluid or dispensing the fluid in response to receipt of gas under vacuum or gas under pressure, respectively, in the dispense head of the first pipette channel from the independently controlled valve of the first pipette channel, wherein each dispense head is moveable along a vertical direction relative to the manifold independently of another dispense head coupled to the manifold. providing a manifold comprising a vacuum channel and a pressure channel; providing two or more pipette channels, each pipette channel comprising a dispense head, a vacuum port, a pressure port, and an independently controlled valve in simultaneous fluid communication with the vacuum port and the pressure port; selectively engaging the two or more pipette channels to the manifold, wherein selectively engaging comprises connecting each vacuum port of the two or more pipette channels to the vacuum channel of the manifold and connecting each pressure port of the two or more pipette channels to the pressure channel of the manifold; transmitting control signals from the manifold to a first pipette channel of the two or more pipette channels to independently control operation of the independently controlled valve to selectively direct gas under vacuum or gas under pressure received through the vacuum port and the pressure port of the first pipette channel to the dispense head of the first pipette channel; and performing aspirate and dispense operations with the first pipette channel, the aspirate and dispense operations comprising aspirating the fluid or dispensing the fluid in response to receipt of gas under vacuum or gas under pressure, respectively, in the dispense head of the first pipette channel from the independently controlled valve of the first pipette channel, wherein each dispense head is moveable along a vertical direction relative to the manifold independently of another dispense head coupled to the manifold.
A method for determining an individualized hair treatment, characterized by the steps of a) determining, by means of a chromatographic or colorimetric method, a content of an oxidation product of an amino acid of a plurality of samples of keratin fibers that have been damaged to varying degrees; b) recording near-infrared and/or infrared spectra of the samples of keratin fibers that have been damaged to varying degrees; c) creating a calibration model which establishes a correlation between the near-infrared and/or infrared spectra and the content of the oxidation product of an amino acid; d) recording near-infrared and/or infrared spectra of the keratin fibers of an individual; e) determining a degree of damage to the keratin fibers of this individual using the calibration model; f) outputting individual treatment advice relating to the keratin fibers of the individual, according to the determined degree of damage, wherein the amino acid is selected from the group consisting of tryptophan, methionine, tyrosine, histidine and lysine. a) determining, by means of a chromatographic or colorimetric method, a content of an oxidation product of an amino acid of a plurality of samples of keratin fibers that have been damaged to varying degrees; b) recording near-infrared and/or infrared spectra of the samples of keratin fibers that have been damaged to varying degrees; c) creating a calibration model which establishes a correlation between the near-infrared and/or infrared spectra and the content of the oxidation product of an amino acid; d) recording near-infrared and/or infrared spectra of the keratin fibers of an individual; e) determining a degree of damage to the keratin fibers of this individual using the calibration model; f) outputting individual treatment advice relating to the keratin fibers of the individual, according to the determined degree of damage, wherein the amino acid is selected from the group consisting of tryptophan, methionine, tyrosine, histidine and lysine.
A flow cytometer comprising: (a) a sample manipulation chamber comprising a first access hole (b) a sealing cartridge adjustably sealing the first access hole of the sample manipulation chamber , wherein the sealing cartridge comprises: (i) a slider tape comprising a second access hole , and (ii) a first winder at one end of the slider tape , configured to reversibly wind the slider tape ; and (c) a mobile arm that penetrates the first and second access holes of the slider tape and the sample manipulation chamber , when the first and second hole are aligned. (a) a sample manipulation chamber comprising a first access hole (b) a sealing cartridge adjustably sealing the first access hole of the sample manipulation chamber , wherein the sealing cartridge comprises: (i) a slider tape comprising a second access hole , and (ii) a first winder at one end of the slider tape , configured to reversibly wind the slider tape ; and (c) a mobile arm that penetrates the first and second access holes of the slider tape and the sample manipulation chamber , when the first and second hole are aligned.
Calibration method for a group of reflectors for concentrating solar radiation onto a radiation receiver , comprising the following method steps: A) aligning the reflectors so that a calibration surface is at least partly acted upon by solar radiation reflected by the reflectors ; B) generating a change in the intensity distribution of the radiation incident on the calibration surface by execution of a movement pattern by each reflector of the group, wherein the movement pattern of each reflector, in at least one specified movement pattern parameter from the group - frequency of the movement, - amplitude of the movement, - phase position of the movement, - path of the solar radiation reflected by the reflector within the calibration surface, differs from the movement pattern parameters of the other reflectors ; C) recording series of image points for a plurality of location points at different locations on the calibration surface by means of at least one camera , each image point series having at least five image point recordings staggered in time; D) establishing a spectrum for each image point series by transformation of the image point series into the frequency domain; E) assigning a sub-set of spectra to the reflectors in dependence upon the movement pattern parameter of the reflector; F) determining at least one reflection target position for each reflector in dependence upon at least the sub-set of spectra assigned to the reflector. A) aligning the reflectors so that a calibration surface is at least partly acted upon by solar radiation reflected by the reflectors ; B) generating a change in the intensity distribution of the radiation incident on the calibration surface by execution of a movement pattern by each reflector of the group, wherein the movement pattern of each reflector, in at least one specified movement pattern parameter from the group - frequency of the movement, - amplitude of the movement, - phase position of the movement, - path of the solar radiation reflected by the reflector within the calibration surface, differs from the movement pattern parameters of the other reflectors ; - frequency of the movement, - amplitude of the movement, - phase position of the movement, - path of the solar radiation reflected by the reflector within the calibration surface, differs from the movement pattern parameters of the other reflectors ; C) recording series of image points for a plurality of location points at different locations on the calibration surface by means of at least one camera , each image point series having at least five image point recordings staggered in time; D) establishing a spectrum for each image point series by transformation of the image point series into the frequency domain; E) assigning a sub-set of spectra to the reflectors in dependence upon the movement pattern parameter of the reflector; F) determining at least one reflection target position for each reflector in dependence upon at least the sub-set of spectra assigned to the reflector.
Electric machine comprising a stator and a rotor separated from the stator by an air gap, wherein the rotor has multiple shell-like magnet segments fastened to a rotor body , and wherein the magnet segments each have, in the circumferential direction, multiple magnetically differently polarized sections which each form a magnetic pole of the rotor , and wherein first transition zones are formed between the magnetically differently polarized sections of the magnet segments , wherein the first transition zones extend over the entire axial extent of the magnet segments , wherein recesses are provided in the magnet segments on the side facing the stator , characterized in that the first transition zones are designed to extend obliquely in the axial direction of the rotor , and in that the first transition zones are formed in the region of the recesses , and in that edge regions of the recesses in the circumferential direction extend parallel to the axial direction.