mhurhangee/ep-ind-claims huggingface dataset:
Commandable device for interrupting an electric current, the interrupting device being adapted to be connected between an electrical load and a power source so as to selectively authorise or inhibit the supply of power to the electrical load by the power source, the interrupting device comprising: - a bistable relay comprising separable electrical contacts and an excitation coil for controlling the switching of the electrical contacts, the electrical contacts being adapted to connect the electrical load to the power source, the relays being adapted to switch the electrical contacts between open and closed states when the coil receives an amount of energy greater than a predefined excitation energy threshold with an electric power greater than a predefined power threshold; - a control circuit comprising a power stage and a logic stage, the power stage being adapted to provide power to the logic stage, the logic stage comprising an excitation circuit for supplying the coil and a programmable microcontroller which controls the excitation circuit in order to initiate the switching of the relay, the power stage comprising a power converter, a first set of capacitors connected at the input of the power converter and a second set of capacitors connected at the output of the power converter, the interrupting device being characterised in that the nominal power of the power converter is strictly below the excitation power threshold of the coil, and in that the first and second sets of capacitors (63, 64) are adapted to store an amount of energy greater than or equal to 50% of the excitation energy threshold required to switch the relay. - a bistable relay comprising separable electrical contacts and an excitation coil for controlling the switching of the electrical contacts, the electrical contacts being adapted to connect the electrical load to the power source, the relays being adapted to switch the electrical contacts between open and closed states when the coil receives an amount of energy greater than a predefined excitation energy threshold with an electric power greater than a predefined power threshold; - a control circuit comprising a power stage and a logic stage, the power stage being adapted to provide power to the logic stage, the logic stage comprising an excitation circuit for supplying the coil and a programmable microcontroller which controls the excitation circuit in order to initiate the switching of the relay, the interrupting device being characterised in that the nominal power of the power converter is strictly below the excitation power threshold of the coil, and in that the first and second sets of capacitors (63, 64) are adapted to store an amount of energy greater than or equal to 50% of the excitation energy threshold required to switch the relay.
A diphenylmethane compound represented by general formula: wherein, Y represents -OR 19 (wherein R 19 represents a hydrogen atom or an active ester-type protecting group), - NHR 20 (wherein R 20 represents a hydrogen atom, a C 1-6 linear or branched alkyl group, or an aralkyl group), an azide, a halogen atom, an oxime combined with a methylene group, or a carbonyl group combined with a methylene group, at least one of R 1 to R 10 represents a group represented by formula: -O-R 11 -X-A and the others each independently represent a hydrogen atom, a halogen atom, a C 1-4 alkyl group, or a C 1-4 alkoxy group; R 11 represents a C 1-16 linear or branched alkylene group; X represents O or CONR 21 (wherein R 21 represents a hydrogen atom or a C 1-4 alkyl group); A represents a group represented by formula,,,,,,,,,, or: wherein R 12, R 13, and R 14 may be the same or different and each independently represent a C 1-6 linear or branched alkyl group or an optionally substituted aryl group; R 15 represents a single bond or a C 1-3 linear or branched alkylene group; and R 16, R 17, and R 18 each independently represent a C 1-3 linear or branched alkylene group, except for 4,4'-di-[3-(tert-butyldimethylsilyloxy)propoxy]-benzophenone, 4-[2-(tri-isopropylsilyloxy)ethoxy]benzophenone, 4-[2-(tert-butyldimethylsilyloxy)ethoxy]benzophenone, and 4-[10-(tert-butyldimethylsilyloxy)decyleneoxy]benzophenone. Y represents -OR 19 (wherein R 19 represents a hydrogen atom or an active ester-type protecting group), - NHR 20 (wherein R 20 represents a hydrogen atom, a C 1-6 linear or branched alkyl group, or an aralkyl group), an azide, a halogen atom, an oxime combined with a methylene group, or a carbonyl group combined with a methylene group, at least one of R 1 to R 10 represents a group represented by formula: -O-R 11 -X-A and the others each independently represent a hydrogen atom, a halogen atom, a C 1-4 alkyl group, or a C 1-4 alkoxy group; R 11 represents a C 1-16 linear or branched alkylene group; X represents O or CONR 21 (wherein R 21 represents a hydrogen atom or a C 1-4 alkyl group); A represents a group represented by formula,,,,,,,,,, or: wherein R 12, R 13, and R 14 may be the same or different and each independently represent a C 1-6 linear or branched alkyl group or an optionally substituted aryl group; R 15 represents a single bond or a C 1-3 linear or branched alkylene group; and R 16, R 17, and R 18 each independently represent a C 1-3 linear or branched alkylene group, R 11 represents a C 1-16 linear or branched alkylene group; X represents O or CONR 21 (wherein R 21 represents a hydrogen atom or a C 1-4 alkyl group); A represents a group represented by formula,,,,,,,,,, or: wherein R 12, R 13, and R 14 may be the same or different and each independently represent a C 1-6 linear or branched alkyl group or an optionally substituted aryl group; R 15 represents a single bond or a C 1-3 linear or branched alkylene group; and R 16, R 17, and R 18 each independently represent a C 1-3 linear or branched alkylene group,
A method for counting microorganisms present in a biological sample in contact with a culture medium adapted to the growth of said microorganisms, characterized in that it comprises the steps of: - determining at a prior stage number N SA of microorganisms present in the sample - calculating number N SU of microorganisms present in the sample according to number N SA, the calculation being based on a model of microorganism growth in the culture medium according to the following relation: log N SU = α × log N SA - β × log C SA + γ where log is the decimal logarithm, N SU is the calculated number of microorganisms, N SA is the number of microorganisms at the prior stage, C SA is the number of microorganisms at the prior stage divided by the volume of the sample, and α, β, and γ are determined parameters depending on the microorganisms, on the culture medium, and on the time period separating the subsequent stage from the prior stage, α and β being positive. - determining at a prior stage number N SA of microorganisms present in the sample - calculating number N SU of microorganisms present in the sample according to number N SA, the calculation being based on a model of microorganism growth in the culture medium according to the following relation: log N SU = α × log N SA - β × log C SA + γ where log is the decimal logarithm, N SU is the calculated number of microorganisms, N SA is the number of microorganisms at the prior stage, C SA is the number of microorganisms at the prior stage divided by the volume of the sample, and α, β, and γ are determined parameters depending on the microorganisms, on the culture medium, and on the time period separating the subsequent stage from the prior stage, α and β being positive.
A method for constructing a building with an elevator system, the method comprising: forming a first hoistway for the elevator system within two adjacent levels (82, 84) of the building; installing a first stationary part of a first linear permanent magnet motor within the first hoistway; placing a first elevator car within the first hoistway; mounting a first moving part of the first linear permanent magnet motor on the first elevator car; and using the first stationary part and the first moving part of the first linear permanent magnet motor to generate a vertical thrust force to move the first elevator car within the first hoistway, the first elevator car carrying at least one of passengers, equipment and materials for construction of upper levels of the elevator system and the building; characterised by: forming a second hoistway for the elevator system next to the first hoistway; installing a second stationary part of a second linear permanent magnet motor within the second hoistway; placing a second elevator car within the second hoistway; mounting a second moving part of the second linear permanent magnet motor on the second elevator car; and coupling the first and second elevator cars (102, 104) together such that they share an interior compartment. forming a first hoistway for the elevator system within two adjacent levels (82, 84) of the building; installing a first stationary part of a first linear permanent magnet motor within the first hoistway; placing a first elevator car within the first hoistway; mounting a first moving part of the first linear permanent magnet motor on the first elevator car; and using the first stationary part and the first moving part of the first linear permanent magnet motor to generate a vertical thrust force to move the first elevator car within the first hoistway, the first elevator car carrying at least one of passengers, equipment and materials for construction of upper levels of the elevator system and the building; characterised by: forming a second hoistway for the elevator system next to the first hoistway; installing a second stationary part of a second linear permanent magnet motor within the second hoistway; placing a second elevator car within the second hoistway; mounting a second moving part of the second linear permanent magnet motor on the second elevator car; and coupling the first and second elevator cars (102, 104) together such that they share an interior compartment.
A mechanical assembly comprising a first part provided with a cylindrical cavity; • a second part having at least one cylindrical portion engaged in the cylindrical cavity of the first part, a gap separating the cylindrical portion and the wall of the cylindrical cavity so as to allow relative movement in rotation between the first and second parts (33, 34); and • a lubricant distribution network (37, 38) configured for feeding said gap with a fluid lubricant so as to form a fluid bearing; wherein a first surface selected from the inside surface of the cylindrical cavity of the first part and the outside surface of the cylindrical portion of the second part is provided with at least first and second lubricant admission orifices (39a,39b) that are spaced apart from each other by not less than 120° about the main axis of the first surface; and the mechanical assembly being characterized in that the first surface also presents at least one first circumferential groove extending circumferentially from the vicinity of the first lubricant admission orifice over at least 100° and in the direction of relative rotation of the second of said surfaces relative to the first surface, the upstream end of the circumferential groove being disjoint from the first lubricant admission orifice in such a manner that said first lubricant admission orifice does not open out into the bottom of said circumferential groove, and a second circumferential groove extending circumferentially in the direction of relative rotation of the second of said surfaces relative to the first surface, from the vicinity of the second lubricant admission orifice over at least 100°, wherein the second lubricant admission orifice does not open out into the bottom of the second groove. • a second part having at least one cylindrical portion engaged in the cylindrical cavity of the first part, a gap separating the cylindrical portion and the wall of the cylindrical cavity so as to allow relative movement in rotation between the first and second parts (33, 34); and • a lubricant distribution network (37, 38) configured for feeding said gap with a fluid lubricant so as to form a fluid bearing;
A centrifugal separator comprising a separation disc, the separation disc being of metal material and adapted to be compressed in a stack of separation discs inside a centrifugal rotor for separating a liquid mixture, the separation disc having a truncated conical shape with an inner surface and an outer surface and a plurality of spacing members (4, 5) extending a certain height above at least one of the inner surface and the outer surface for providing interspaces between mutually adjacent separation discs in the stack, wherein the separation disc is provided with distribution holes for feeding and distributing the liquid mixture into the interspaces in the stack of separation discs, characterized in that the thickness of the separation disc is less than 0.4 mm, wherein at least some of the spacing members (4, 5) are of such small size that each one of the small-sized spacing members has a width which is less than 2 mm along the surface (2, 3) of the separation disc, the surface (3, 4) of the separation disc being configured with a distribution pattern of the small-sized spacing members (4, 5), in such a way as to provide equidistant interspaces in the compressed disc stack, and wherein the small-sized spacing members (4, 5) are distributed on the surface of the separation disc at a mutual distance in the range of 10 - 60 mm from each other.
A materials handling system, the system comprising: an agitation portion comprising one or more agitators, the agitators arranged and disposed to mix colored particles into a substantially uniform distribution; a processing portion comprising a receiving portion arranged and disposed to receive the substantially uniform distribution of the colored particles to form a product with a predetermined pattern, characterized in that the processing portion includes two calendering rolls to form the product, wherein the agitation portion includes a grid arranged and disposed downstream of the agitator and wherein the predetermined pattern is a long-grained or striated color pattern. an agitation portion comprising one or more agitators, the agitators arranged and disposed to mix colored particles into a substantially uniform distribution; a processing portion comprising a receiving portion arranged and disposed to receive the substantially uniform distribution of the colored particles to form a product with a predetermined pattern, characterized in that the processing portion includes two calendering rolls to form the product, wherein the agitation portion includes a grid arranged and disposed downstream of the agitator and wherein the predetermined pattern is a long-grained or striated color pattern.
Seeder element for agricultural machine, comprising a seed-distributing element and a tamping device, the tamping device being positioned behind an outlet of the seed-distributing element in a direction of advance at work of the seeder element, the tamping device comprising an adjustment device and a tamping element, the tamping element being configured to exert a tamping force (F RD, F RN, F RL) on the ground in at least one work position of the adjustment device, the tamping element comprising a tamping wheel moving at the bottom of the furrow, characterised in that the at least one work position of the adjustment device is configured for a load-relieving position in which the adjustment device exerts, on the tamping element, a load-relieving stress (F D) that counters the weight of the tamping element. the tamping device comprising an adjustment device and a tamping element, the tamping element being configured to exert a tamping force (F RD, F RN, F RL) on the ground in at least one work position of the adjustment device, the tamping element comprising a tamping wheel moving at the bottom of the furrow, characterised in that the at least one work position of the adjustment device is configured for a load-relieving position in which the adjustment device exerts, on the tamping element, a load-relieving stress (F D) that counters the weight of the tamping element.
An airbridge for making connections on a superconducting chip, wherein: - the airbridge comprises a strip of superconductive material between a first superconductive area and a second superconductive area separated from said first superconductive area by a discontinuity, - a first end of said strip comprises a first planar end portion attached to and parallel with said first superconductive area, - a second end of said strip comprises a second planar end portion attached to and parallel with said second superconductive area, - said strip comprises a middle portion between said first and second planar end portions, and - said middle portion forms a bend away from a plane defined by the surfaces of the first and second superconductive areas, leaving an empty space between said middle portion and said plane, - a first separation line separates the first planar end portion from the middle portion, - a second separation line separates the second planar end portion from the middle portion, and characterized in that - at least one of said first and second separation lines is directed otherwise than at a right angle against the longitudinal direction of the strip across said strip. - the airbridge comprises a strip of superconductive material between a first superconductive area and a second superconductive area separated from said first superconductive area by a discontinuity, - a first end of said strip comprises a first planar end portion attached to and parallel with said first superconductive area, - a second end of said strip comprises a second planar end portion attached to and parallel with said second superconductive area, - said strip comprises a middle portion between said first and second planar end portions, and - said middle portion forms a bend away from a plane defined by the surfaces of the first and second superconductive areas, leaving an empty space between said middle portion and said plane, - a first separation line separates the first planar end portion from the middle portion, - a second separation line separates the second planar end portion from the middle portion, and characterized in that - at least one of said first and second separation lines is directed otherwise than at a right angle against the longitudinal direction of the strip across said strip.
A computer implemented method of generating an electrophysiology map of a portion of a patient's anatomy, comprising: receiving an electrophysiology map comprising a plurality of electrophysiology data points, each electrophysiology data point including an electrophysiological signal having a signal morphology; defining a template electrophysiological signal having a template morphology; defining an unwanted electrophysiological signal having an unwanted morphology; comparing the signal morphology of an electrophysiological signal of an electrophysiology data point within the electrophysiology map to both the template morphology of the template electrophysiological signal and the unwanted morphology of the unwanted electrophysiological signal; and removing the electrophysiology data point from the electrophysiology map when the signal morphology of the electrophysiological signal of the electrophysiology data point is more similar to the unwanted morphology of the unwanted electrophysiological signal than to the template morphology of the template electrophysiological signal. receiving an electrophysiology map comprising a plurality of electrophysiology data points, each electrophysiology data point including an electrophysiological signal having a signal morphology; defining a template electrophysiological signal having a template morphology; defining an unwanted electrophysiological signal having an unwanted morphology; comparing the signal morphology of an electrophysiological signal of an electrophysiology data point within the electrophysiology map to both the template morphology of the template electrophysiological signal and the unwanted morphology of the unwanted electrophysiological signal; and removing the electrophysiology data point from the electrophysiology map when the signal morphology of the electrophysiological signal of the electrophysiology data point is more similar to the unwanted morphology of the unwanted electrophysiological signal than to the template morphology of the template electrophysiological signal.
A process for manufacturing thin, strong porous articles comprising subjecting a lubricated vinylidene fluoride copolymer including from 50 mol% to 85 mol% to pressure and heat below a melt temperature of said VDF copolymer to form a preform article followed by expansion of said preform article below the melt temperature of said VDF copolymer to form a porous article.
Downpipe and holders for an external construction on the downpipe, in particular for a flashing and/or an insulation layer on the downpipe for a steam power plant, wherein the holders comprise brackets for supporting the external construction, and wherein anchor plates are provided on the brackets, said plates comprising a recess for hanging and anchoring the brackets on projections welded onto the external wall of the downpipe, wherein the projections each comprise a base welded to the external wall and a retaining plate, and the retaining plate protrudes upwards beyond the base and forms, together with the external wall, a gap for receiving one anchor plate in each case, and wherein the anchor plates are formed such that the dead load of the external construction is supported by means of an interlocking connection between the anchor plate anchored on the downpipe in this way and the downpipe.
A molybdenum alloy consisting of: - 1% to 8% by weight of oxides selected from the group consisting of lanthanum oxide, thorium oxide, cerium oxide, yttrium oxide, zirconium oxide and terbium oxide, - 1% to 20% by weight of tungsten, - 72% to 98% by weight of molybdenum, - optionally, at most 1% by weight of one or more further admixtures or impurities. - 1% to 8% by weight of oxides selected from the group consisting of lanthanum oxide, thorium oxide, cerium oxide, yttrium oxide, zirconium oxide and terbium oxide, - 1% to 20% by weight of tungsten, - 72% to 98% by weight of molybdenum, - optionally, at most 1% by weight of one or more further admixtures or impurities.