mhurhangee/ep-ind-claims huggingface dataset:
A partition (12,14,16) for an animal stall comprising an upper rail and a lower rail, said upper and lower rails being linked at outer ends thereof to define a loop, wherein at least a portion of the lower rail is formed from a non-metallic material, the remainder of the partition other than said non-metallic portion being formed from a metallic material, said non-metallic material comprising a resilient plastic or composite material allowing the lower rail to flex under the weight of an animal, characterised in that said non-metallic portion of said lower rail comprises a tubular member having ends arranged in telescopically overlapping engagement with adjoining portions of the remainder of the partition (12,14,16), said adjoining portions of the remainder of the partition comprising reduced diameter portions such that the non-metallic portion can fit over said adjoining portions.
A method for controlling a circuit breaker, the circuit breaker being connected in a three-phase system having an inductive load, the method comprising: measuring the current in the first phase (L 1) or estimating the current in the first phase (L 1) by measuring a phase voltage; opening a first phase (L 1) of the three-phase system before a zero crossing of a current in the first phase (L 1); opening the second and third phases (L 2 and L 3) of the three-phase system a quarter period after opening the first phase (L 1); measuring a phase-to-phase voltage (L 1 -L 2) between the voltage of the first phase (L 1) and the voltage of the second phase (L 2); closing the first and second phase (L 1 and L 2) at a peak voltage of the phase-to-phase voltage (L 1 -L 2); and closing the third phase (L 3) a quarter period after closing the first and second phases (L 1 and L2), wherein the first phase (L 1) is opened before a zero crossing towards a positive current in the first phase (L 1), and wherein the first and second phases (L 1 and L 2) are closed at a negative peak voltage of the phase-to-phase voltage (L 1 -L 2) during no load, or wherein the first phase (L 1) is opened before a zero crossing towards a negative current in the first phase (L 1), and wherein the first and second phases (L 1 and L 2) are closed at a positive peak voltage of the phase-to-phase voltage (L 1 -L 2) during no load. measuring the current in the first phase (L 1) or estimating the current in the first phase (L 1) by measuring a phase voltage; opening a first phase (L 1) of the three-phase system before a zero crossing of a current in the first phase (L 1); opening the second and third phases (L 2 and L 3) of the three-phase system a quarter period after opening the first phase (L 1); measuring a phase-to-phase voltage (L 1 -L 2) between the voltage of the first phase (L 1) and the voltage of the second phase (L 2); closing the first and second phase (L 1 and L 2) at a peak voltage of the phase-to-phase voltage (L 1 -L 2); and closing the third phase (L 3) a quarter period after closing the first and second phases (L 1 and L2), wherein the first phase (L 1) is opened before a zero crossing towards a positive current in the first phase (L 1), and wherein the first and second phases (L 1 and L 2) are closed at a negative peak voltage of the phase-to-phase voltage (L 1 -L 2) during no load, or wherein the first phase (L 1) is opened before a zero crossing towards a negative current in the first phase (L 1), and wherein the first and second phases (L 1 and L 2) are closed at a positive peak voltage of the phase-to-phase voltage (L 1 -L 2) during no load.
Kitchen appliance having a coupling for a processing vessel and having a safety facility in order to check whether the processing vessel is coupled to the coupling in the intended manner, wherein the safety facility has a holder with which the safety facility is mounted in a movable manner on the kitchen appliance, characterised in that a pivot axis of the holder is oriented parallel to a coupling axis of the coupling.
A cycling helmet (100, 200, 410) comprising: an outer shell (105, 710); a closed cell foam layer (110, 420, 600, 715) adjacent to the outer shell; an inner liner adjacent to the closed cell foam layer; an insert of energy absorbing material (205, 300) adjacent to the inner liner, wherein the insert is configured to move in multiple directions in response to an impact to the cycling helmet; and characterized by an inner liner coating positioned on the inner liner such that the inner liner coating is adjacent to an outer surface of the insert, wherein the inner liner coating comprises a low friction coating. an outer shell (105, 710); a closed cell foam layer (110, 420, 600, 715) adjacent to the outer shell; an inner liner adjacent to the closed cell foam layer; an insert of energy absorbing material (205, 300) adjacent to the inner liner, wherein the insert is configured to move in multiple directions in response to an impact to the cycling helmet; and characterized by an inner liner coating positioned on the inner liner such that the inner liner coating is adjacent to an outer surface of the insert, wherein the inner liner coating comprises a low friction coating.
A blanket for a bicycle child seat, said child seat comprising a sitting surface and a backrest, wherein said blanket comprises: - a base portion comprising: a) a first substantially trapezoidal portion configured to be rested on the sitting surface of said child seat; and b) a second portion formed at the top part of said first portion and configured to be rested against the backrest of said child seat; - fastening means (230a, 230b, 232), configured to fix said base portion to said child seat; characterised by that said blanket further comprises: - a covering portion movable between an open position, in which a child can be seated on said base portion, and a closed position, in which said covering portion covers said child at least partially, wherein said covering portion comprises a first part with substantially rectangular shape; and wherein said base portion comprises a third portion and a fourth portion, which have substantially rectangular shapes and extend from the bottom part of said first portion, wherein said covering portion comprises a second part and a third part, which have substantially rectangular shapes and extend from the bottom side of said first part, and wherein said second part is fixed to said third portion and said third part is fixed to said fourth portion. - a base portion comprising: a) a first substantially trapezoidal portion configured to be rested on the sitting surface of said child seat; and b) a second portion formed at the top part of said first portion and configured to be rested against the backrest of said child seat; a) a first substantially trapezoidal portion configured to be rested on the sitting surface of said child seat; and b) a second portion formed at the top part of said first portion and configured to be rested against the backrest of said child seat; - fastening means (230a, 230b, 232), configured to fix said base portion to said child seat; - a covering portion movable between an open position, in which a child can be seated on said base portion, and a closed position, in which said covering portion covers said child at least partially, wherein said covering portion comprises a first part with substantially rectangular shape; and wherein said base portion comprises a third portion and a fourth portion, which have substantially rectangular shapes and extend from the bottom part of said first portion, wherein said covering portion comprises a second part and a third part, which have substantially rectangular shapes and extend from the bottom side of said first part, and wherein said second part is fixed to said third portion and said third part is fixed to said fourth portion.
A dissimilar metal joined material comprising: a clad material comprising: a high thermal expansion layer composed of an alloy containing Mn selected from a Fe-Ni-Mn based alloy containing 15% to 30% of Ni, 2% to 10% of Mn and the balance of Fe and unavoidable impurities, and a Cu-Mn-Ni based alloy containing 60% to 80% of Mn, 5% to 20% of Ni and the balance of Cu and unavoidable impurities, and a low thermal expansion layer composed of an alloy containing Ni selected from a Fe-Ni based alloy containing 30% to 60% of Ni and the balance of Fe and unavoidable impurities, Fe-29 Ni-17 Co, Fe-36 Ni-12 Cr, Fe-36 Ni-9 Cr, Fe-42 Ni-5.5 Cr-1 Ti, and Fe-43 Ni-5 Cr-3 Ti-1 Co, the low thermal expansion layer being joined directly to the high thermal expansion layer or joined via an intermediate layer; and a corrosion resistant plating layer provided on at least a surface of the high thermal expansion layer, wherein the corrosion resistant plating layer is a Ni plating layer, and characterized by that the corrosion resistant plating layer has a thickness of 10 nm to 120 nm. a clad material comprising: a high thermal expansion layer composed of an alloy containing Mn selected from a Fe-Ni-Mn based alloy containing 15% to 30% of Ni, 2% to 10% of Mn and the balance of Fe and unavoidable impurities, and a Cu-Mn-Ni based alloy containing 60% to 80% of Mn, 5% to 20% of Ni and the balance of Cu and unavoidable impurities, and a low thermal expansion layer composed of an alloy containing Ni selected from a Fe-Ni based alloy containing 30% to 60% of Ni and the balance of Fe and unavoidable impurities, Fe-29 Ni-17 Co, Fe-36 Ni-12 Cr, Fe-36 Ni-9 Cr, Fe-42 Ni-5.5 Cr-1 Ti, and Fe-43 Ni-5 Cr-3 Ti-1 Co, the low thermal expansion layer being joined directly to the high thermal expansion layer or joined via an intermediate layer; and a high thermal expansion layer composed of an alloy containing Mn selected from a Fe-Ni-Mn based alloy containing 15% to 30% of Ni, 2% to 10% of Mn and the balance of Fe and unavoidable impurities, and a Cu-Mn-Ni based alloy containing 60% to 80% of Mn, 5% to 20% of Ni and the balance of Cu and unavoidable impurities, and a low thermal expansion layer composed of an alloy containing Ni selected from a Fe-Ni based alloy containing 30% to 60% of Ni and the balance of Fe and unavoidable impurities, Fe-29 Ni-17 Co, Fe-36 Ni-12 Cr, Fe-36 Ni-9 Cr, Fe-42 Ni-5.5 Cr-1 Ti, and Fe-43 Ni-5 Cr-3 Ti-1 Co, the low thermal expansion layer being joined directly to the high thermal expansion layer or joined via an intermediate layer; and a corrosion resistant plating layer provided on at least a surface of the high thermal expansion layer, wherein the corrosion resistant plating layer is a Ni plating layer, and characterized by that the corrosion resistant plating layer has a thickness of 10 nm to 120 nm.
A composition comprising pentameric type A procyanidin at concentration ranging from about 55 % w/w to about 99% w/w, trimeric procyanidin and tetrameric procyanidin are each at concentration ranging from about 0.5 % w/w to about 35 % w/w, for use in a method of managing broncho-constrictive condition.
A biguanide derivative represented by the following general formula, a salt thereof, or a hydrate of the derivative or the salt: wherein, X 1 represents a halogen atom, R 1 represents an alkyl group, an optionally substituted aryl group, or an optionally substituted aralkyl group.
A communication system for transmitting data from an aircraft, the aircraft comprising at least one engine, the system comprising: a data collection and transmission unit configured to collect and transmit data received from one or more locations in the aircraft, the data collection and transmission unit comprising at least one radio transmitter; and at least one engine controller configured to control operation of the at least one engine and of the at least one radio transmitter, the at least one engine controller communicatively coupled to the data collection and transmission unit and configured to transmit, while the aircraft is airborne, engine data to the data collection and transmission unit, and, in response to determining that the aircraft is on ground, cause the at least one radio transmitter to activate for transmitting the engine data from the data collection and transmission unit to at least one ground equipment, characterized in that the at least one engine controller configured to prevent activation of the at least one radio transmitter, and prevent transmission of the engine data from the data collection and transmission unit to the at least one ground equipment, while the aircraft is in flight. a data collection and transmission unit configured to collect and transmit data received from one or more locations in the aircraft, the data collection and transmission unit comprising at least one radio transmitter; and at least one engine controller configured to control operation of the at least one engine and of the at least one radio transmitter, the at least one engine controller communicatively coupled to the data collection and transmission unit and configured to transmit, while the aircraft is airborne, engine data to the data collection and transmission unit, and, in response to determining that the aircraft is on ground, cause the at least one radio transmitter to activate for transmitting the engine data from the data collection and transmission unit to at least one ground equipment, characterized in that the at least one engine controller configured to prevent activation of the at least one radio transmitter, and prevent transmission of the engine data from the data collection and transmission unit to the at least one ground equipment, while the aircraft is in flight.
A method to identify candidate oral care buffering agents, compositions, solutions or systems useful to mitigate acidic conditions in the oral cavity, wherein the candidate oral care buffering agent, composition, solution or system is compared against a control oral care buffering composition, wherein the method comprises the steps of providing a first sample and a second sample selected from enamel from a human or bovine source; contacting the first sample with a measured quantity of acidic substance; contacting the first sample with the candidate oral care buffering agent, composition, solution or system; determining whether acid erosion has occurred to the first sample; contacting the second sample with the measured quantity of acidic substance; contacting the second sample with the control oral care buffering composition; determining whether acid erosion has occurred to the second sample, wherein said acid erosion in the first sample being less than or equal to that of the second sample indicates that the candidate oral care buffering agents, compositions, solutions or systems can be useful to mitigate acidic conditions in the oral cavity; and wherein the control oral care buffering composition consists of a solution of 0.375g L-arginine, 0.25g ZnO, 0.125g zinc citrate trihydrate and 24.25 mL deionized water.
A drive bogie for a rail vehicle, comprising a frame and rail wheels, wherein at least one of the rail wheels is a drive rail wheel carried by a wheel hub rotatably guided relative to the frame via a rotational guide assembly comprising two roller bearings (50, 52) and coupled to a traction motor via a gear transmission comprising an output gear having a driving gear meshing with a driven gear which is mounted on the wheel hub and which comprises a crown wheel and a crown carrier offset axially with respect to each other, the crown carrier being closer to the driving rail wheel than the ring gear, characterised in that the bogie is configured to support a rail vehicle body having a floor passing through the space delimited between the rail wheels, allowing the body to pivot relative to the bogie about a substantially vertical pivot axis.
An array substrate for a display device, the array substrate comprising: a substrate; a pad positioned on the substrate; an insulating layer positioned on the pad and including a plurality of open portions exposing the pad; a first metal layer positioned on the insulating layer and disposed to be in contact with the pad; a second metal layer positioned on the first metal layer; and a bump electrode positioned on the second metal layer; wherein at least one of the plurality of open portions has a width equal to or greater than 5 μ m and a length equal to or greater than 10 μ m; wherein a pitch between the plurality of open portions is equal to or greater than 4 μ m; wherein an area of the plurality of open portions is equal to or greater than 15% of a bonding area in which the insulating layer and the bump electrode are in contact, wherein said bonding area in which the insulating layer and the bump electrode are in contact is equal to or greater than 1500 μ m 2; and wherein a shear strength of the insulating layer equal to or greater than 7.8 mgf/ μ m 2 is maintained by the width, the length, the pitch and the area of the open portions. a substrate; a pad positioned on the substrate; an insulating layer positioned on the pad and including a plurality of open portions exposing the pad; a first metal layer positioned on the insulating layer and disposed to be in contact with the pad; a second metal layer positioned on the first metal layer; and a bump electrode positioned on the second metal layer; wherein at least one of the plurality of open portions has a width equal to or greater than 5 μ m and a length equal to or greater than 10 μ m; wherein a pitch between the plurality of open portions is equal to or greater than 4 μ m; wherein an area of the plurality of open portions is equal to or greater than 15% of a bonding area in which the insulating layer and the bump electrode are in contact, wherein said bonding area in which the insulating layer and the bump electrode are in contact is equal to or greater than 1500 μ m 2; and wherein a shear strength of the insulating layer equal to or greater than 7.8 mgf/ μ m 2 is maintained by the width, the length, the pitch and the area of the open portions.
An aerobar assembly for a bicycle comprising: an aerobar having proximal and distal portions and proximal and distal ends, the aerobar having a generally hollow interior; an adaptor for mounting an actuator assembly to the aerobar, the adaptor including an interiorly-disposed portion disposed in the hollow interior of the aerobar, and an exteriorly-disposed portion configured to receive the actuator assembly; and a control cable guide configured to slidably receive a control cable therethrough; characterized in that the interiorly-disposed portion of the adaptor is bonded to the distal portion of the aerobar by a bonding agent, and the control cable guide is coupled to the adaptor such that the control cable enters the distal end, extends through the interior of the aerobar and exits the proximal end of the aerobar. an aerobar having proximal and distal portions and proximal and distal ends, the aerobar having a generally hollow interior; an adaptor for mounting an actuator assembly to the aerobar, the adaptor including an interiorly-disposed portion disposed in the hollow interior of the aerobar, and an exteriorly-disposed portion configured to receive the actuator assembly; and a control cable guide configured to slidably receive a control cable therethrough;
A wireless power feeder configured to feed power by wireless from a feeding coil to a receiving coil at a resonance frequency of the feeding coil and receiving coil, characterized in that it comprises: a power transmission control circuit that includes first current path, a second current path, a first switch connected in series to the first current path, a second switch connected in series to the second current path, and a first coil (Lb) included in both the first and second current paths, wherein the power transmission control circuit is configured to make the first and second switches (Q1, Q2) alternately conductive to feed AC power to the first coil (Lb); and a feeding coil circuit in which the feeding coil, a capacitor, and a second coil (Li) are connected and configured to resonate at the resonance frequency, wherein the feeding coil circuit is configured to receive AC power from the power transmission control circuit through the second coil (Li) magnetically coupled to the first coil (Lb), wherein the first coil (Lb) does not form part of a LC resonance circuit. a power transmission control circuit that includes first current path, a second current path, a first switch connected in series to the first current path, a second switch connected in series to the second current path, and a first coil (Lb) included in both the first and second current paths, wherein the power transmission control circuit is configured to make the first and second switches (Q1, Q2) alternately conductive to feed AC power to the first coil (Lb); and a feeding coil circuit in which the feeding coil, a capacitor, and a second coil (Li) are connected and configured to resonate at the resonance frequency, wherein the feeding coil circuit is configured to receive AC power from the power transmission control circuit through the second coil (Li) magnetically coupled to the first coil (Lb), wherein the first coil (Lb) does not form part of a LC resonance circuit.
A method for isolating a population of recombinant adeno-associated virus (rAAV) particles from in-process impurities in a feedstream, comprising the steps of: (a) contacting a feedstream containing the rAAV particles with an apatite chromatography medium in the presence of polyethylene glycol, wherein the rAAV particles bind to the apatite chromatography medium; and (b) eluting the rAAV particles bound to the apatite chromatography medium with an elution buffer containing less than 3% (w/v) PEG. (a) contacting a feedstream containing the rAAV particles with an apatite chromatography medium in the presence of polyethylene glycol, wherein the rAAV particles bind to the apatite chromatography medium; and (b) eluting the rAAV particles bound to the apatite chromatography medium with an elution buffer containing less than 3% (w/v) PEG.
A method of calibrating a system used to determine new location(s) of wireless devices depending on observed signal properties, comprising: measuring signal properties related to identified locations; and generating a kernel regression function based at least in part upon the signal properties, the function estimating new location(s) as a function of observed signal properties regardless of gaps in calibration data, the regression function comprising a plurality of kernel functions, each kernel function computing the difference between a vector of observed signal properties and a vector of stored signal properties, the vector of stored properties is computed by clustering a plurality of vectors of measured signal properties and employing a cluster center as a kernel center. measuring signal properties related to identified locations; and generating a kernel regression function based at least in part upon the signal properties, the function estimating new location(s) as a function of observed signal properties regardless of gaps in calibration data, the regression function comprising a plurality of kernel functions, each kernel function computing the difference between a vector of observed signal properties and a vector of stored signal properties, the vector of stored properties is computed by clustering a plurality of vectors of measured signal properties and employing a cluster center as a kernel center.