mhurhangee/ep-ind-claims huggingface dataset:
Hydrostatic transmission system comprising: - at least one pump, - at least two wheel motors (120, 122; 140, 142) supplied by the pump for the motorisation of an engin, characterised by the fact that it comprises a command system suited to beginning a change of displacement of the pump required to reach a pump displacement target imposed by a request for change of displacement of the motors, offsetting over time a change of displacement of the motors (120, 122; 140, 142) in several groups in order to have a progressive evolution of the apparent displacement of the motors, to avoid switching at the same time two motors having received an evolution instruction, then terminating the change of displacement of the pump when the target pump displacement is reached. - at least one pump, - at least two wheel motors (120, 122; 140, 142) supplied by the pump for the motorisation of an engin,
A telescopic mast, for forming a tower crane with automatic unfolding and folding, the telescopic mast comprising at least: one first mast segment and one second mast segment configured such that the first mast segment can slide in the second mast segment along a longitudinal axis, the first mast segment having a polygonal-shaped cross-section with at least eight faces, said cross-section having a first region (10.1) and a second region (10.2) separated by a neutral fiber plane, the second mast segment having a polygonal-shaped cross-section with at least eight faces, the first mast segment comprising at least two primary bearing members located in the first region (10.1), the second mast segment comprising at least two secondary bearing members located in the second region (10.2), the primary bearing members and the secondary bearing members being configured to transmit, between the first mast segment and the second mast segment, efforts induced by bending moments and by torsional moments, the telescopic mast being characterized in that the polygonal shape of the cross-section of the first mast segment and the polygonal shape of the cross-section of the second mast segment are configured such that: - the two primary bearing members transmit two primary forces resulting from said induced efforts, the directions of the two primary forces, projected into a plane orthogonal to the longitudinal axis, meeting at a primary intersection point, - the two secondary bearing members transmit two secondary forces resulting from said induced efforts, the directions of the two secondary forces, projected into a plane orthogonal to the longitudinal axis, meeting at a secondary intersection point, the secondary intersection point being distant from the primary intersection point. - the two primary bearing members transmit two primary forces resulting from said induced efforts, the directions of the two primary forces, projected into a plane orthogonal to the longitudinal axis, meeting at a primary intersection point, - the two secondary bearing members transmit two secondary forces resulting from said induced efforts, the directions of the two secondary forces, projected into a plane orthogonal to the longitudinal axis, meeting at a secondary intersection point,
A silver nanoparticle composition comprising a solvent, wherein a main component of the solvent is water, a pH of the composition is within a range of 5.3 to 8.0, a silver nanoparticle included in the composition is protected by an organic acid or a derivative thereof, and a content of the organic acid or the derivative thereof is within a range of 2 to 20% by mass with respect to silver, the composition comprising a polymer obtained by polymerizing a monomer having a vinyl group, and wherein the polymer obtained by polymerizing a monomer having a vinyl group includes at least one or more of a vinyl chloride homopolymer, a vinyl chloride copolymer, a vinyl acetate homopolymer, and a vinyl acetate copolymer; wherein a content of an ammonia component present in the composition with respect to the entire content of the composition is more than 0.1 % by mass and equal to or less than 2% by mass, and a content of a nitric acid component present in the composition with respect to the entire content of the composition is more than 0.1% by mass and equal to or less than 5% by mass.
A curable, organic polymeric photochromic composition comprising: a) a photochromic amount of at least one photochromic material; b) a polymeric polyol having carbonate groups along its backbone and having a number average molecular weight greater than 5000 g/mole determined using gel permeation chromatography ("GPS") using a polystyrene standard; and c) a curing agent having reactive functional groups capable of reacting with hydroxyl groups on the polymeric polyol b); wherein after curing and the Photochromic Performance Test, the composition demonstrates a T 1/2 fade rate of less than 200 seconds. a) a photochromic amount of at least one photochromic material; b) a polymeric polyol having carbonate groups along its backbone and having a number average molecular weight greater than 5000 g/mole determined using gel permeation chromatography ("GPS") using a polystyrene standard; and c) a curing agent having reactive functional groups capable of reacting with hydroxyl groups on the polymeric polyol b); wherein after curing and the Photochromic Performance Test, the composition demonstrates a T 1/2 fade rate of less than 200 seconds.
Feeding device for feeding products and/or product stacks to a packaging process of a packaging machine, in particular a horizontal tube packaging machine, said feeding device having at least one guide unit which is realized as a closed loop along which a plurality of arranged conveyor elements are arranged so as to be drivable in a speed-controlled and/or positionally regulated manner independently of one another at least along at least one operating portion of the guide unit, wherein at least one conveyor element comprises a holder and at least one conveyor element which follows in a conveying direction comprises a counter holder, characterized by at least one support element which is arranged on the guide unit between two conveyor elements, wherein the support element is in the form of a secondary part of a linear motor system and can be driven in a positionally regulated and speed-controlled manner by means of a control unit.
A method of reducing interference from heterophile antibodies in an analyte immunoassay comprising: (a) amending a biological sample by dissolving into said sample a dry reagent comprising murine and optionally caprine IgM, to yield a non-human IgM concentration of at least about 20 μg/mL; (b) amending the biological sample with non-human IgG comprising murine and optionally caprine IgG; (c) performing an immunoassay on the amended sample to determine the concentration of said analyte in said sample, wherein the immunoassay method is selected from the group consisting of electrochemical, amperometric, potentiometric, absorbance, fluorescence and luminescence; and wherein the IgM and the IgG are added at a weight ratio comprised between 0.004 and 0.15, preferably between 0.02 and 0.15, more preferably between 0.05 and 0.15. (a) amending a biological sample by dissolving into said sample a dry reagent comprising murine and optionally caprine IgM, to yield a non-human IgM concentration of at least about 20 μg/mL; (b) amending the biological sample with non-human IgG comprising murine and optionally caprine IgG; (c) performing an immunoassay on the amended sample to determine the concentration of said analyte in said sample, wherein the immunoassay method is selected from the group consisting of electrochemical, amperometric, potentiometric, absorbance, fluorescence and luminescence; and wherein the IgM and the IgG are added at a weight ratio comprised between 0.004 and 0.15, preferably between 0.02 and 0.15, more preferably between 0.05 and 0.15.
A sound signal-based local interactive platform system, comprising: a wired/wireless AP that has unique identification information for a location and that outputs a sound signal of a high frequency band in a preset variation pattern; a computer-readable recording medium, which is mounted in a smart terminal having a serial number, and which stores therein a program that when in an activated state, detects in real-time the serial number and the sound signal and transmits the unique identification information corresponding to the sound signal and the serial number to outside; a location server that receives the serial number and the sound signal from the smart terminal, and that transmits the serial number and the unique identification information corresponding to the sound signal to the outside; and a content server that receives the serial number and the unique identification information from the location server, and that transmits in real-time multi-formatted content information including audio data and video data, which is previously mapped with the unique identification information, to the smart terminal to be output. a wired/wireless AP that has unique identification information for a location and that outputs a sound signal of a high frequency band in a preset variation pattern; a computer-readable recording medium, which is mounted in a smart terminal having a serial number, and which stores therein a program that when in an activated state, detects in real-time the serial number and the sound signal and transmits the unique identification information corresponding to the sound signal and the serial number to outside; a location server that receives the serial number and the sound signal from the smart terminal, and that transmits the serial number and the unique identification information corresponding to the sound signal to the outside; and a content server that receives the serial number and the unique identification information from the location server, and that transmits in real-time multi-formatted content information including audio data and video data, which is previously mapped with the unique identification information, to the smart terminal to be output.
A wireless device, wherein the wireless device comprises a first radio frequency module, a second radio frequency module, and a processor, and the first radio frequency module and the second radio frequency module operate on a same frequency band, wherein the first radio frequency module is connected to a calibration antenna, and configured to send a calibration signal by using the calibration antenna; the second radio frequency module is connected to at least two to-be-calibrated antennas, and configured to receive the calibration signal by using each of the at least two to-be-calibrated antennas, wherein the second radio frequency module corresponds to at least two radio frequency channels, the at least two radio frequency channels respectively correspond to the at least two to-be-calibrated antennas, and a quantity of the at least two radio frequency channels is the same as a quantity of the at least two to-be-calibrated antennas; and the processor is configured to determine a device phase difference of each of the at least two radio frequency channels, and calibrate a corresponding radio frequency channel by using the device phase difference of each of the at least two radio frequency channels, wherein the device phase difference is a difference between a receive phase difference and a distance phase difference that are of the corresponding radio frequency channel, the receive phase difference of the corresponding radio frequency channel is a phase difference between the calibration signal received on the corresponding radio frequency channel and the calibration signal received on a reference radio frequency channel, the distance phase difference of the corresponding radio frequency channel is based on a distance difference of the corresponding radio frequency channel and a channel phase difference of the calibration signal, and the distance difference of the corresponding radio frequency channel is a difference between a distance that is from a to-be-calibrated antenna corresponding to the corresponding radio frequency channel to the calibration antenna and a distance that is from a to-be-calibrated antenna corresponding to the reference radio frequency channel to the calibration antenna.
An impingement cooling arrangement for cooling a duct wall of a duct guiding a hot gas flow in a hot gas flow path having an upstream end and a downstream end, comprising an impingement sleeve, the impingement sleeve being at least partly disposed in a compressed air plenum, and the sleeve having a plurality of apertures surrounding the duct wall, and spaced at a distance therefrom to form a cooling flow path between the duct wall and the impingement sleeve such that cooling air injected from the compressed air plenum through the apertures during operation impinges on the duct wall and flows as cross flow towards an exit at an end (12, 13) of the hot gas flow path, at least one flow diverter is arranged in the cooling flow path to divert the cross flow away from at least one aperture, characterized in that the at least one flow diverter is arranged downstream of a first apperture of the impingement sleeve and upstream of the at least a second aperture of the impingement sleeve for injecting cooling air in the cooling flow path with respect to the cross flow, during operation the flow diverter causes a wake in the cross flow and at least one aperture is arranged in the wake of the flow diverter.
A power multiplier (200; 250), comprising: a power multiplying network (203; 253) comprising a multiply-connected, velocity inhibiting circuit constructed from a number of lumped-elements, wherein the multiply-connected, velocity inhibiting circuit is configured to multiply power and to inhibit a velocity of a propagation of an electromagnetic wave through the power multiplying network and the number of lumped-elements comprises a number of discrete, two-terminal, concentrated electrical elements; a launching network; and a directional coupler coupling the launching network to the power multiplying network (203; 253). a power multiplying network (203; 253) comprising a multiply-connected, velocity inhibiting circuit constructed from a number of lumped-elements, wherein the multiply-connected, velocity inhibiting circuit is configured to multiply power and to inhibit a velocity of a propagation of an electromagnetic wave through the power multiplying network and the number of lumped-elements comprises a number of discrete, two-terminal, concentrated electrical elements; a launching network; and a directional coupler coupling the launching network to the power multiplying network (203; 253).
A lure comprising: a body; a passage extending in the body, the passage having a bottom; a single sinker or two or more individual sinkers (51, 52) stored in the passage to be movable in a forward and rearward direction; and a retainer capable of attracting the sinker or the sinkers (51, 52) by a magnetic attractive force, the retainer being made of a magnet or a magnetic material, wherein a stepped portion having a catching surface opposed to the front of the body is provided in the middle of the passage, the retainer is provided on the inner side of the catching surface, or a surface of the retainer constitutes the catching surface, wherein the retainer is fixed to the stepped portion. a body; a passage extending in the body, the passage having a bottom; a single sinker or two or more individual sinkers (51, 52) stored in the passage to be movable in a forward and rearward direction; and a retainer capable of attracting the sinker or the sinkers (51, 52) by a magnetic attractive force, the retainer being made of a magnet or a magnetic material, wherein a stepped portion having a catching surface opposed to the front of the body is provided in the middle of the passage, a stepped portion having a catching surface opposed to the front of the body is provided in the middle of the passage, the retainer is provided on the inner side of the catching surface, or a surface of the retainer constitutes the catching surface, wherein the retainer is fixed to the stepped portion.
A body support system having a top surface defining a head supporting region, a torso supporting region, and a foot and leg supporting region, comprising: a base defining a length and a width and a longitudinal axis; at least one breathing layer disposed over at least a portion of the base, said breathing layer formed of cellular polymer material having air permeability of at least 0.025 m 3 /sec/m 2 (5 ft 3 /min/ft 2), according to ASTM 737; at least one layer of reticulated viscoelastic cellular polymer material disposed over at least a portion of the at least one breathing layer corresponding to the torso supporting region of the body support system; at least one support layer ( 216; 222) disposed between the base and the at least one reticulated viscoelastic cellular polymer layer, wherein the support layer (216; 222) defines a chimney cavity ( 218; 224), and cellular polymer material ( 220; 228) of greater air permeability than said support layer (216; 222) is held within said chimney cavity (218; 224); and at least one air flow unit located below the chimney cavity (218; 224) and below the torso supporting region and coupled to the at least one breathing layer for drawing air and/or moisture vapor through the breathing layer and the at least one layer of reticulated viscoelastic cellular polymer material and through the chimney cavity (218; 224) and away from the torso supporting region of the body support system, or for forcing air through the chimney cavity (218; 224) and the breathing layer and the at least one layer of reticulated viscoelastic cellular polymer material to the torso supporting region of the body support system. a base defining a length and a width and a longitudinal axis; at least one breathing layer disposed over at least a portion of the base, said breathing layer formed of cellular polymer material having air permeability of at least 0.025 m 3 /sec/m 2 (5 ft 3 /min/ft 2), according to ASTM 737; at least one layer of reticulated viscoelastic cellular polymer material disposed over at least a portion of the at least one breathing layer corresponding to the torso supporting region of the body support system; at least one support layer ( 216; 222) disposed between the base and the at least one reticulated viscoelastic cellular polymer layer, wherein the support layer (216; 222) defines a chimney cavity ( 218; 224), and cellular polymer material ( 220; 228) of greater air permeability than said support layer (216; 222) is held within said chimney cavity (218; 224); and at least one air flow unit located below the chimney cavity (218; 224) and below the torso supporting region and coupled to the at least one breathing layer for drawing air and/or moisture vapor through the breathing layer and the at least one layer of reticulated viscoelastic cellular polymer material and through the chimney cavity (218; 224) and away from the torso supporting region of the body support system, or for forcing air through the chimney cavity (218; 224) and the breathing layer and the at least one layer of reticulated viscoelastic cellular polymer material to the torso supporting region of the body support system.
A process for the reduction by hydrogenation, using molecular H 2, of a C 3 -C 70 substrate containing one or two ketones or aldehydes group into the corresponding alcohol, or diol, characterized in that said process is carried out in the presence of at least one catalyst in the form of an iron complex of formula [Fe (L')] wherein L3 represents a tridentate ligand wherein the coordinating groups consist of one amino or imino group and two phosphino groups; L' represents a CO or C 1-11 isonitrile compound; Y represents a hydrogen atom or a C 1 -C 14 carboxylic radical; Z represents a hydroxyl group, a C 1 -C 14 carboxylic radical or a linear C 1 -C 14 alkoxy radical; and optionally a salt of formula MX wherein M is an alkali metal cation and X a non-coordinating mono anion, characterized in that the process is performed in the absence of base. L' represents a CO or C 1-11 isonitrile compound; Y represents a hydrogen atom or a C 1 -C 14 carboxylic radical; Z represents a hydroxyl group, a C 1 -C 14 carboxylic radical or a linear C 1 -C 14 alkoxy radical; and optionally a salt of formula MX wherein M is an alkali metal cation and X a non-coordinating mono anion, characterized in that the process is performed in the absence of base.
A method of manufacturing a booklet, the method comprising: saddle-stitching a sheet-like first saddle-stitch substrate, which comprises a light-transmitting region and is provided with an optical functional unit at the light-transmitting region, the optical functional unit having a polarization or phase modulation function, onto a sheet-like second saddle-stitch substrate with a binding member, the second saddle-stitch substrate being provided with a latent image, provided at a peripheral portion of the second saddle-stitch substrate or at a central portion of the second saddle-stitch substrate, the latent image being manifested by allowing the optical functional unit to operate on a surface opposite to the first saddle-stitch substrate at a position corresponding to the optical functional unit so that the latent image and the optical functional unit overlap; folding the first saddle-stitch substrate in half along a folding line defining two portions; interposing the optical functional unit or an inlet comprising at least an IC chip and an antenna between the two portions of the first saddle-stitch substrate; and adhering the two portions to each other. saddle-stitching a sheet-like first saddle-stitch substrate, which comprises a light-transmitting region and is provided with an optical functional unit at the light-transmitting region, the optical functional unit having a polarization or phase modulation function, onto a sheet-like second saddle-stitch substrate with a binding member, the second saddle-stitch substrate being provided with a latent image, provided at a peripheral portion of the second saddle-stitch substrate or at a central portion of the second saddle-stitch substrate, the latent image being manifested by allowing the optical functional unit to operate on a surface opposite to the first saddle-stitch substrate at a position corresponding to the optical functional unit so that the latent image and the optical functional unit overlap; folding the first saddle-stitch substrate in half along a folding line defining two portions; interposing the optical functional unit or an inlet comprising at least an IC chip and an antenna between the two portions of the first saddle-stitch substrate; and adhering the two portions to each other.
A transition piece aft frame, comprising: a manifold having an interior that is receptive of fuel and formed to define fuel injection holes configured to inject the received fuel from the manifold interior toward a main flow of products of combustion flowing through the manifold, the manifold comprising a main body having an interior facing surface that faces the main flow of the products of the combustion and along which the fuel injection holes are defined, characterized in that the manifold comprises an injector head fluidly coupled to the manifold interior and formed to define an air injection hole, and head fuel injection holes arrayed around an interior facing surface of the air injection hole. a manifold having an interior that is receptive of fuel and formed to define fuel injection holes configured to inject the received fuel from the manifold interior toward a main flow of products of combustion flowing through the manifold, the manifold comprising a main body having an interior facing surface that faces the main flow of the products of the combustion and along which the fuel injection holes are defined, characterized in that the manifold comprises an injector head fluidly coupled to the manifold interior and formed to define an air injection hole, and head fuel injection holes arrayed around an interior facing surface of the air injection hole.