mhurhangee/ep-ind-claims huggingface dataset:
Oscillating axle for a lifting device, wherein this axle comprises: - an axle bridge at the ends of which are mounted two members contacting the ground; - an axis of oscillation; - a left jack and a right jack, each jack (9, 11) having a rod (90, 110) in contact with the bridge and a body (92, 112) fixed on a fixed part of a chassis of the lifting device, wherein the body (92, 112) forms a chamber (94, 114) in which the rod (90, 110) moves, - a hydraulic circuit interconnecting the chambers (94, 114) of the left jack and right jack, in which a fluid is present at a given pressure, making it possible to press the rods (90, 110) of the left jack and right jack against the bridge; - at least one solenoid valve (150, 152) on a branch of the hydraulic circuit connected to the chamber of the left jack, and at least one solenoid valve (154, 156) on a branch of the hydraulic circuit connected to the chamber of the right jack, each of these solenoid valves (150, 152, 154, 156) being able to be positioned in an open position, in which the fluid may circulate freely, and a closed position, in which the fluid is trapped in the chamber (94, 114) of the corresponding jack (9, 11), each of the chambers (94, 114) of the left jack and of the right jack comprising a pressure sensor (23, 25) designed to measure the pressure (P9, P11) of the fluid in each of the chambers (94, 114), and control means being provided to detect a pressure in one of the chambers (94, 114) characterized in that the control means are provided to detect that a pressure in one of the chambers (94, 114) is greater than a first threshold, and/or a differential (ΔP) between the pressures in each of the chambers (94, 114) that is greater than a second threshold, so as to detect the blocking in the closed position of a solenoid valve (150, 152, 154, 156), and initiate a security procedure. - an axle bridge at the ends of which are mounted two members contacting the ground; - an axis of oscillation; - a left jack and a right jack, each jack (9, 11) having a rod (90, 110) in contact with the bridge and a body (92, 112) fixed on a fixed part of a chassis of the lifting device, wherein the body (92, 112) forms a chamber (94, 114) in which the rod (90, 110) moves, - a hydraulic circuit interconnecting the chambers (94, 114) of the left jack and right jack, in which a fluid is present at a given pressure, making it possible to press the rods (90, 110) of the left jack and right jack against the bridge; - at least one solenoid valve (150, 152) on a branch of the hydraulic circuit connected to the chamber of the left jack, and at least one solenoid valve (154, 156) on a branch of the hydraulic circuit connected to the chamber of the right jack, each of these solenoid valves (150, 152, 154, 156) being able to be positioned in an open position, in which the fluid may circulate freely, and a closed position, in which the fluid is trapped in the chamber (94, 114) of the corresponding jack (9, 11),
Device for detecting and attenuating deviations in the velocity of a motor vehicle, comprising: a module for computing a velocity error (ΔV(k)) at a time (k) depending on a velocity setpoint value (V_cons(k-1)) at a proceeding time (k-1) and on a measured or estimated value of the velocity (V(k)) of the vehicle, a module for comparing said velocity error (ΔV(k)) with a threshold value, a module for computing a local minimum point of the curve of the velocity of the vehicle, a module for detecting the local minimum, and a module for computing a restart velocity setpoint (V_reset_cons), said module being activated when the local minimum is detected. a module for computing a velocity error (ΔV(k)) at a time (k) depending on a velocity setpoint value (V_cons(k-1)) at a proceeding time (k-1) and on a measured or estimated value of the velocity (V(k)) of the vehicle, a module for comparing said velocity error (ΔV(k)) with a threshold value, a module for computing a local minimum point of the curve of the velocity of the vehicle, a module for detecting the local minimum, and a module for computing a restart velocity setpoint (V_reset_cons), said module being activated when the local minimum is detected.
A method of depolymerizing polymers, the method comprising the steps of: (i) providing one or more polymer starting materials, wherein the polymer starting material is one or more polyethylenes, one or more polypropylenes, one or more polyvinyl chlorides, one or more polystyrenes, and/or suitable combinations of any two or more thereof; (ii) providing a reactor to depolymerize the one or more polymer starting materials into one or more monomers; (iii) heating the one or more polymer starting materials at a rate of from 10°C/second to 1000°C/second to a temperature in the range of 100°C to 700°C, preferably in the range of 200°C to 400°C; and (iv) providing an electromagnetic induction field to facilitate the depolymerization of the one or more polymer starting materials into their constituent monomers, wherein the electromagnetic induction field is directly applied to a mixing device of the reactor and said mixing device couples with said electromagnetic induction field, wherein the method utilizes one or more catalysts that permit in situ reactions to yield one or more functional monomers. (i) providing one or more polymer starting materials, wherein the polymer starting material is one or more polyethylenes, one or more polypropylenes, one or more polyvinyl chlorides, one or more polystyrenes, and/or suitable combinations of any two or more thereof; (ii) providing a reactor to depolymerize the one or more polymer starting materials into one or more monomers; (iii) heating the one or more polymer starting materials at a rate of from 10°C/second to 1000°C/second to a temperature in the range of 100°C to 700°C, preferably in the range of 200°C to 400°C; and (iv) providing an electromagnetic induction field to facilitate the depolymerization of the one or more polymer starting materials into their constituent monomers, wherein the electromagnetic induction field is directly applied to a mixing device of the reactor and said mixing device couples with said electromagnetic induction field,
A plate (1,1A) for a heat exchange arrangement for the exchange of heat between a first and a second medium, wherein the plate (1,1A) has a first heat transferring surface arranged in use to be in contact with the first medium and a second heat transferring surface arranged in use to be in contact with the second medium; wherein the plate (1, 1A) comprises an inlet porthole for the first medium; an inlet porthole for the second medium, and an outlet porthole (6,6',6") for the first medium; wherein the first heat transferring surface comprises a protrusion forming at least one ridge which is arranged to divide said heat transfer surface into at least a first region, which is in direct thermal contact with the said inlet porthole for the second medium, and a second region, which is not in direct thermal contact with the inlet porthole for the second medium, the second region substantially surrounds the first region, the inlet porthole for the first medium is arranged in said first region, and the outlet porthole (6,6',6") for the first medium is arranged in the second region, characterised in that the said at least one ridge forms at least one elongated transfer channel (7a,7b) arranged to convey the said first medium from the first region to the second region, and in that the inlet porthole for the second medium is located between the inlet porthole for the first medium and an inlet (5;5a,5b) of said transfer channel (7a,7b), at the first region. wherein the plate (1,1A) has a first heat transferring surface arranged in use to be in contact with the first medium and a second heat transferring surface arranged in use to be in contact with the second medium; wherein the plate (1, 1A) comprises an inlet porthole for the first medium; an inlet porthole for the second medium, and an outlet porthole (6,6',6") for the first medium; wherein the first heat transferring surface comprises a protrusion forming at least one ridge which is arranged to divide said heat transfer surface into at least a first region, which is in direct thermal contact with the said inlet porthole for the second medium, and a second region, which is not in direct thermal contact with the inlet porthole for the second medium, the second region substantially surrounds the first region, the inlet porthole for the first medium is arranged in said first region, and the outlet porthole (6,6',6") for the first medium is arranged in the second region, characterised in that the said at least one ridge forms at least one elongated transfer channel (7a,7b) arranged to convey the said first medium from the first region to the second region, and in that the inlet porthole for the second medium is located between the inlet porthole for the first medium and an inlet (5;5a,5b) of said transfer channel (7a,7b), at the first region.
An electroacoustic membrane-free transducer having: a laser source; a detector having an optical receiver; two pairs of plane-parallel immovable mirrors a beam splitter, which splits a laser beam of a laser source into a first beam and a second beam; a sound field, through which the first beam is guided; and a sound-insulated housing, through which the second beam runs; the propagation speed of the first beam changing in accordance with the sound pressure in the sound field, the detector generating an electrical signal, which depends at least on the change of the propagation speed of the first beam, both beams being reflected multiple times in each case between the two pairs of plane-parallel immovable mirrors (e.g. D, E), and the one mirror pair (D, E) and the intermediate space thereof being exposed to the sound, characterized in that the second mirror pair and the intermediate space thereof is protected from sound. a laser source; a detector having an optical receiver; two pairs of plane-parallel immovable mirrors a beam splitter, which splits a laser beam of a laser source into a first beam and a second beam; a sound field, through which the first beam is guided; and a sound-insulated housing, through which the second beam runs; the propagation speed of the first beam changing in accordance with the sound pressure in the sound field, the detector generating an electrical signal, which depends at least on the change of the propagation speed of the first beam, both beams being reflected multiple times in each case between the two pairs of plane-parallel immovable mirrors (e.g. D, E), and the one mirror pair (D, E) and the intermediate space thereof being exposed to the sound, characterized in that the second mirror pair and the intermediate space thereof is protected from sound.
Device for outcoupling a portion of the radiation of an observation beam path of a binocular eyepiece with a housing, wherein a rotatable supporting unit, the axis of rotation of which is parallel to the axes of the observation beam paths, is arranged in the housing having the binocular eyepiece, wherein three optical elements are arranged offset on this supporting unit, characterized in that an outer and the middle optical element are each located in one of the observation beam paths, in that, after rotation of the supporting unit, the middle and the other outer optical element are each located in one of the observation beam paths and in that the two outer optical elements have a beam-splitting effect and are arranged on the supporting unit such that, for the case that they are located in one of the observation beam paths, a portion of the observation radiation is outcoupled into a common documentation beam path, wherein the observation beam path to be used for the outcoupling is freely selectable and also changeable at any time.
An automatic analyzing system which includes a carry line for carrying a sample rack from a rack sending unit to a rack recovery unit and is adapted to analyze samples by use of a plurality of analyzing apparatuses (5, 6, 7, 8) under control by the automatic analyzing system, wherein the analyzing apparatuses are disposed along the carry line and wherein each of the analyzing apparatuses includes a reaction unit, a sample dispensing unit for dispensing the sample on the sample rack into the reaction unit and a reagent supply unit (20, 21, 41, 42, 43, 44) four supplying reagents corresponding to an analysis item to the reaction unit, the automatic analyzing system comprising: a reagent shortage detection unit (32, 80) for detecting that one of the reagents of the reagent supply units in one of the analyzing apparatuses is short; characterised by a register unit (500, 502, 504) adapted to register a particular reagent (502, 504) designated so as to urge exchange of the particular reagent when the particular reagent becomes short; reagent shortage occurrence display means adapted to give notification of a state where the exchange of the one reagent in the one of the analyzing apparatuses is necessary, in response to the reagent shortage detection unit detecting that the one reagent of the one analyzing apparatus is short; and control separation means adapted to separate from the control under the automatic analyzing system the one analyzing apparatus in which the one reagent is short, in accordance with reagent shortage detection by the reagent shortage detection unit, when one of the particular reagents (502, 504) being registered in advance is detected to be short whereas, when a reagent not so designated for exchange becomes short, the analysis by the one analyzing apparatus is continued for all analysis items except for the analysis item for which the reagent being short is used. a reagent shortage detection unit (32, 80) for detecting that one of the reagents of the reagent supply units in one of the analyzing apparatuses is short; characterised by a register unit (500, 502, 504) adapted to register a particular reagent (502, 504) designated so as to urge exchange of the particular reagent when the particular reagent becomes short; reagent shortage occurrence display means adapted to give notification of a state where the exchange of the one reagent in the one of the analyzing apparatuses is necessary, in response to the reagent shortage detection unit detecting that the one reagent of the one analyzing apparatus is short; and control separation means adapted to separate from the control under the automatic analyzing system the one analyzing apparatus in which the one reagent is short, in accordance with reagent shortage detection by the reagent shortage detection unit, when one of the particular reagents (502, 504) being registered in advance is detected to be short whereas, when a reagent not so designated for exchange becomes short, the analysis by the one analyzing apparatus is continued for all analysis items except for the analysis item for which the reagent being short is used.
An anti-microbial composition which, when subjected to a three wear cycle test on a non-porous stainless steel, glass or plastics substrate, provides a 3 log or greater reduction in micro-organisms over a 24-hour period and comprises (i) an anti-microbial component comprising a quaternary ammonium component (a) comprising at least one quaternary ammonium compound of formula wherein R 1 and R 2 are each independently a straight chain, unsubstituted and uninterrupted C 8-12 alkyl group and X - is chloride, bromide, fluoride, iodide, sulphonate, saccharinate, carbonate or bicarbonate and at least one benzalkonium compound of formula wherein m is from 8 to 18 and X - is chloride, bromide, fluoride, iodide, sulphonate, saccharinate, carbonate or bicarbonate or the benzalkonium compound benzethonium chloride; (ii) a hydrophilic polymer (iii) a polar solvent; (iv) at least one non-ionic surfactant and (v) a chelate; wherein the polymer comprises at least two of the following types of monomer: a N,N,N-trimethyl-3-((2-methyl-1-oxo-2-propenyl)amino)-1-propanaminium halide monomer or a diallyldimethylammonium halide monomer or a mixture thereof; an acidic monomer selected from acrylic acid and/or methylacrylic acid; and a neutral monomer selected from 2-(Dimethylamino)ethyl methacrylate (DMAEMA), N-vinyl pyrrolidone, N-vinylimidazole, acrylamide, or methacrylamide or a mixture thereof; and wherein the composition has a pH of 4 or more. a N,N,N-trimethyl-3-((2-methyl-1-oxo-2-propenyl)amino)-1-propanaminium halide monomer or a diallyldimethylammonium halide monomer or a mixture thereof; an acidic monomer selected from acrylic acid and/or methylacrylic acid; and a neutral monomer selected from 2-(Dimethylamino)ethyl methacrylate (DMAEMA), N-vinyl pyrrolidone, N-vinylimidazole, acrylamide, or methacrylamide or a mixture thereof;
An apparatus for removing foreign substances in a container, the apparatus comprising: a conveying device configured to convey a container having an opening portion, and to input gas flow into the container through nozzles (21,22); and a first nozzle configured to eject a gas toward the opening portion of the container, wherein the first nozzle is disposed to be spaced, toward one side, at a first spacing distance, apart from an imaginary vertical surface that runs through a center of the container and extends in a conveyance direction in which the container is conveyed, the apparatus further comprising: a second nozzle configured to eject a gas toward the opening portion of the container and disposed to be spaced apart from the first nozzle in the conveyance direction in which the container is conveyed, wherein the second nozzle is disposed to be spaced, toward the other side, at a second spacing distance, apart from the imaginary vertical surface. a conveying device configured to convey a container having an opening portion, and to input gas flow into the container through nozzles (21,22); and a first nozzle configured to eject a gas toward the opening portion of the container, wherein the first nozzle is disposed to be spaced, toward one side, at a first spacing distance, apart from an imaginary vertical surface that runs through a center of the container and extends in a conveyance direction in which the container is conveyed, the apparatus further comprising: a second nozzle configured to eject a gas toward the opening portion of the container and disposed to be spaced apart from the first nozzle in the conveyance direction in which the container is conveyed, wherein the second nozzle is disposed to be spaced, toward the other side, at a second spacing distance, apart from the imaginary vertical surface.
An Apical Sodium-dependent Bile Acid Transporter Inhibitor (ASBTI) for use in the treatment of an inflammatory intestinal condition comprising non-systemically administering to the distal ileum of an individual in need thereof a therapeutically effective amount of an ASBTI, wherein the ASBTI is potassium ((2R,3R,4S,5R,6R)-4-benzyloxy-6-{3-[3-((3S,4R,5R)-3-butyl-7-dimethylamino-3-ethyl-4-hydroxy-1,1-dioxo-2,3,4,5-tetrahydro-1H-benzo[b]thiepin-5-yl)-phenyl]-ureido}-3,5-dihydroxy-tetrahydropyran-2-ylmethyl)sulphate ethanolate hydrate; or a solvate or a salt thereof.
An electronic device comprising: a plurality of antennas (110, 120); and a communication circuit electrically connected with the plurality of antennas (110, 120), wherein the communication circuit includes a plurality of circuits adapted to receive a signal in a first band and is configured to simultaneously receive the signal in the first band through two or more circuits of the plurality of circuits from two or more antennas, which are positioned adjacent to each other, from among the plurality of antennas (110, 120), and wherein the number of the plurality of antennas (110, 120) is the same as the number of plurality of circuits; wherein the communication circuit further includes: one or more Tx/Rx, transmission/reception, circuits adapted to transmit and/or receive a signal in a second band; and a signal distributer configured to selectively connect one of the plurality of antennas (110, 120) with one of the plurality of circuits or the one or more Tx/Rx circuits. a plurality of antennas (110, 120); and a communication circuit electrically connected with the plurality of antennas (110, 120), wherein the communication circuit includes a plurality of circuits adapted to receive a signal in a first band and is configured to simultaneously receive the signal in the first band through two or more circuits of the plurality of circuits from two or more antennas, which are positioned adjacent to each other, from among the plurality of antennas (110, 120), and wherein the number of the plurality of antennas (110, 120) is the same as the number of plurality of circuits; wherein the communication circuit further includes: one or more Tx/Rx, transmission/reception, circuits adapted to transmit and/or receive a signal in a second band; and a signal distributer configured to selectively connect one of the plurality of antennas (110, 120) with one of the plurality of circuits or the one or more Tx/Rx circuits. one or more Tx/Rx, transmission/reception, circuits adapted to transmit and/or receive a signal in a second band; and a signal distributer configured to selectively connect one of the plurality of antennas (110, 120) with one of the plurality of circuits or the one or more Tx/Rx circuits.
A pressurised fluid cylinder having a shut-off valve, the shut-off valve comprising: a valve element which seals with a valve seat from which it is movable to selectively open the valve; a lever coupled to a rotatable shaft, rotation of which causes movement of a valve stem thereby lifting the valve element; a frangible element being arranged to fail when subjected to a load above a predetermined threshold about the axis of rotation of the shaft in a direction tending to open the valve, characterised in that: the frangible element couples the lever to the valve stem; and the frangible element is arranged to fail so that when the frangible element fails, the lever cannot transmit a force to the valve stem. a valve element which seals with a valve seat from which it is movable to selectively open the valve; a lever coupled to a rotatable shaft, rotation of which causes movement of a valve stem thereby lifting the valve element; a frangible element being arranged to fail when subjected to a load above a predetermined threshold about the axis of rotation of the shaft in a direction tending to open the valve, the frangible element couples the lever to the valve stem; and the frangible element is arranged to fail so that when the frangible element fails, the lever cannot transmit a force to the valve stem.
Catalyst composition for the oligomerization of ethylene, comprising (i) a partially hydrolyzed transition metal compound, obtainable by adding water incrementally, in a staged or sequenced manner to a transition metal compound having the general formula MX m (OOCR') 4-m, wherein R' is an alkyl, aralkyl or cycloalkyl group, X is halogen and m is from 0-3; and (ii) an organoaluminum compound as a cocatalyst, wherein the molar ratio of water and transition metal compound is within a range of between (0.01-3):1; wherein the transition metal compound is a zirconium compound; and wherein the molar ratio of the organoaluminum compound and the transition metal compound is within a range of from 1:1 to 40:1. (i) a partially hydrolyzed transition metal compound, obtainable by adding water incrementally, in a staged or sequenced manner to a transition metal compound having the general formula MX m (OOCR') 4-m, wherein R' is an alkyl, aralkyl or cycloalkyl group, X is halogen and m is from 0-3; and (ii) an organoaluminum compound as a cocatalyst,