mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting a downlink multiframe when the frames of multiple subscribers multiplex a half rate channel, characterized by, comprising: setting positions of Slow Associated Control Channel, SACCH, frames and Traffic Channel, TCH, frames of multiple subscribers in a multiframe, wherein the SACCH frame of each subscriber and one or more TCH frames of other subscribers multiplex a same timeslot in which the multiframe is transmitted in a half-rate channel; and transmitting the multiframe in a preset timeslot. setting positions of Slow Associated Control Channel, SACCH, frames and Traffic Channel, TCH, frames of multiple subscribers in a multiframe, wherein the SACCH frame of each subscriber and one or more TCH frames of other subscribers multiplex a same timeslot in which the multiframe is transmitted in a half-rate channel; and transmitting the multiframe in a preset timeslot.
Method for biostabilisation in the earth's crust in hydraulic fracturing, comprising pumping a process fluid into the earth's crust, preferably comprising direct contact of the process fluid with the earth's crust, wherein an undesired microorganism, which is a bacterium preferably selected from the division of firmicutes, actinobacteria, Bacteroidetes or proteobacteria, is inhibited with respect to growth and/or metabolism, wherein the process fluid is a process fluid based on water for use in the earth's crust in hydraulic fracturing, comprising a proppant and a biostabiliser, wherein the biostabiliser is a mixture of at least one resin acid, or a salt, alcohol or aldehyde thereof, and at least one fatty acid, or a salt, alcohol or aldehyde thereof, wherein the fatty acid is selected from the group consisting of capric acid, undecylenic acid, lauric acid, myristic acid, palmitic acid, margaric acid, stearic acid, arachidic acid, behenic acid, lignoceric acid, cerotic acid, palmitoleic acid, oleic acid, elaidic acid, vaccenic acid, icosenoic acid, cetoleic acid, erucic acid, nervonic acid, linoleic acid, linolenic acid, arachidonic acid, eicosapentaenoic acid, clupanodonic acid and docosahexaenoic acid, wherein the total concentration of the resin acids in the process fluid is 0.05 ppm to 5000 ppm and the total concentration of the fatty acids in the process fluid is 0.05 ppm to 5000 ppm.
A method for reducing NOx emissions in a gas turbine in which a flow of primary air and a flow of fuel are fed into an air fuel mixer equipped at least by a dual annular counter rotating swirler having inner and outer annular chambers (51, 61), said primary air flow being fed into the inner and outer annular chambers (51, 61), wherein the method comprises the step of centripetally injecting the flow of fuel only into the inner annular chamber of the swirler via an injection point located in the inner annular chamber adjacent to the outer annular chamber and the outer chamber is deprived of any fuel injecting element.
Jounce bumper assembly for use in a suspension system for an automotive vehicle, comprising: - a jounce bumper having a longitudinal axis, a bottom portion and a tip portion spaced apart from the bottom portion in the axial direction, wherein the jounce bumper is resiliently deformable between an uncompressed basic state and an axially compressed state, - a support member for supporting the jounce bumper, the support member having a wall section which is arranged around the bottom portion and resiliently deformable with the jounce bumper in the axial and radial direction (120, 122), and - at least one stiffening element associated to the wall section and configured to locally limit the radial deformation of the support member, wherein the wall section of the support member has a rim portion and the stiffening element is arranged proximal to the rim portion, wherein the support member has a stop shoulder extending radial inwardly and/or radial outwardly from the rim portion, characterized in that the stiffening element has a sleeve portion extending in the axial direction, in particular circumferentially around the jounce bumper and/or the wall section, and a stop portion extending parallel to the stop shoulder. - a jounce bumper having a longitudinal axis, a bottom portion and a tip portion spaced apart from the bottom portion in the axial direction, wherein the jounce bumper is resiliently deformable between an uncompressed basic state and an axially compressed state, - a support member for supporting the jounce bumper, the support member having a wall section which is arranged around the bottom portion and resiliently deformable with the jounce bumper in the axial and radial direction (120, 122), and - at least one stiffening element associated to the wall section and configured to locally limit the radial deformation of the support member, wherein the wall section of the support member has a rim portion and the stiffening element is arranged proximal to the rim portion, wherein the support member has a stop shoulder extending radial inwardly and/or radial outwardly from the rim portion, characterized in that the stiffening element has a sleeve portion extending in the axial direction, in particular circumferentially around the jounce bumper and/or the wall section, and a stop portion extending parallel to the stop shoulder.
An apparatus for performing motor activity comprising an elongated body to be positioned with its main axis of extension substantially vertical, the outer surface of which is adapted to be hit by at least one person with the hands, feet or other parts of the body, said surface at least partly consisting of or covered with a soft or yielding material, the apparatus further comprising a plurality of light sources, first sensor means, second sensor means and a control unit; said apparatus being characterized in that - said plurality of light sources being arranged in angular sectors spaced angularly along the perimeter of the body, housed in respective spaces obtained in the outer surface and positioned flush or recessed relative thereto; - said first sensor means being adapted to detect proximity or contact of a part of the body of the person with the apparatus; - said second sensor means being adapted to detect the position of the person relative to the perimeter or axis of extension of the body of the apparatus; and - said control unit being configured to switch on or off the light sources positioned in a given angular sector of the body of the apparatus as a function of the angular position of the person, relative to the outer perimeter or axis of extension of the body, detected by the second sensor means. - said plurality of light sources being arranged in angular sectors spaced angularly along the perimeter of the body, housed in respective spaces obtained in the outer surface and positioned flush or recessed relative thereto; - said first sensor means being adapted to detect proximity or contact of a part of the body of the person with the apparatus; - said second sensor means being adapted to detect the position of the person relative to the perimeter or axis of extension of the body of the apparatus; and - said control unit being configured to switch on or off the light sources positioned in a given angular sector of the body of the apparatus as a function of the angular position of the person, relative to the outer perimeter or axis of extension of the body, detected by the second sensor means.
An active noise cancellation system for reducing, at a listening position, the power of a noise signal being radiated from a noise source to the listening position, the system comprising: an adaptive filter receiving a reference signal representing the noise signal and comprising an output providing a compensation signal; at least two acoustic actuators radiating the compensation signal or a filtered version thereof to the listening position; and a bass management system being arranged upstream of the acoustic transducers for distributing the compensation signals to the acoustic actuators, the bass management system comprising at least one phase filter that is configured to impose a phase shift to the compensation signal for at least one of the acoustic actuators such that the transfer characteristic from the input of the acoustic actuators to the listening position matches a desired transfer function. an adaptive filter receiving a reference signal representing the noise signal and comprising an output providing a compensation signal; at least two acoustic actuators radiating the compensation signal or a filtered version thereof to the listening position; and a bass management system being arranged upstream of the acoustic transducers for distributing the compensation signals to the acoustic actuators, the bass management system comprising at least one phase filter that is configured to impose a phase shift to the compensation signal for at least one of the acoustic actuators such that the transfer characteristic from the input of the acoustic actuators to the listening position matches a desired transfer function.
A lithotripsy medical device including a mechanical converter assembly comprising: an input to receive a mechanical drive force from a driver resource; a lever stack including multiple levers, the lever stack translating the received drive force into a mechanical output force; and an output, the output configured to apply the mechanical output force produced by the lever stack to a driven element, the lithotripsy medical device further including the driver resource, wherein the lever stack in the mechanical converter assembly translates the mechanical driver force received at the input into the mechanical output force that translationally moves the driven element. an input to receive a mechanical drive force from a driver resource; a lever stack including multiple levers, the lever stack translating the received drive force into a mechanical output force; and an output, the output configured to apply the mechanical output force produced by the lever stack to a driven element, the lithotripsy medical device further including the driver resource, wherein the lever stack in the mechanical converter assembly translates the mechanical driver force received at the input into the mechanical output force that translationally moves the driven element.
A heat exchanger (10; 20) to be used in a magnetic heat pump device, the heat exchanger comprising: an assembly (11, 11B) formed by bundling wires (12, 12B); and a cover layer covering the assembly (11, 11B), wherein each of the wires (12, 12B) is composed of a magnetocaloric material having a magnetocaloric effect, and the cover layer includes a tubular portion surrounding the periphery of the assembly (11, 11B); characterized in that the cover layer further includes a filling portion filling a gap between the outer periphery of the assembly 811, 11B) and the tubular portion. an assembly (11, 11B) formed by bundling wires (12, 12B); and a cover layer covering the assembly (11, 11B), wherein each of the wires (12, 12B) is composed of a magnetocaloric material having a magnetocaloric effect, and the cover layer includes a tubular portion surrounding the periphery of the assembly (11, 11B); characterized in that the cover layer further includes a filling portion filling a gap between the outer periphery of the assembly 811, 11B) and the tubular portion.
Guiding assembly for a land vehicle along at least one guide rail, the guiding assembly being provided with a dynamic control system for contact with the rail, the guiding assembly being formed by at least one roller or at least one pair (11, 14) of guide rollers rolling along the at least one guide rail, the guiding assembly having two different states, a first state in which the at least one roller or the at least one pair (11, 14) of rollers roll(s) over the at least one guiding rail via their web, their rolling surface or their rolling periphery in a normal guiding situation and a second state in which another portion of the guiding assembly, for example, of the roller(s) or a prominent surface of the support of the rollers rolls or rubs on the guide rail or on the roadway in the event of derailing, characterised in that, the vibration characteristics of the rolling periphery of the roller or the rollers in normal rolling contact with the guide rail during the guiding and those of the zone in contact with the guide rail or the roadway in the event of derailing being different, the dynamic control system comprises a vibration sensor which is located close to the at least one roller of the at least one pair (11, 14) of guide rollers and a proximity sensor, and the dynamic control system comprises a unit for processing and analysing signals originating from these sensors (5, 7) or circuits in which they are placed in order to analyse them and to permanently determine whether the ones originating from the vibration sensor and the ones originating from the proximity sensor exceed a first and a second warning threshold, respectively, so that, if the two thresholds are exceeded, a derailment warning is transmitted.
Device for filling pressurized gas tanks, in particular hydrogen tanks of vehicles, comprising a fluid transfer circuit having an upstream end connected to a plurality of sources (2 to 10) of pressurized fluid and a downstream end comprising at least one dispenser (11, 12, 13) intended to be connected to a tank to be filled, the sources (2 to 10) being connected in parallel to the at least one dispenser (11, 12, 13), each source (2 to 10) comprising a fluid outlet connected to a respective outlet valve (22 to 30), the sources (2 to 10) being connected in parallel in different subgroups to respective transfer lines (35 to 37), i.e. all the sources of a same subgroup are connected in parallel to a dedicated transfer line (35 to 37), each of several subgroups and preferably all subgroups of sources comprising multiple sources, the transfer lines (35 to 37) being connected in parallel to the at least one dispenser (11, 12, 13) and each comprising a respective transfer valve (32 to 34), the at least one dispenser (11, 12, 13) comprising a set of control valve (s), the at least one dispenser (11, 12, 13) and its set of control valve(s) being dimensioned so as to transfer a predetermined maximum filling gas flow, the outlet valves (22 to 30), the transfer lines (35 to 37) and the transfer valves (32 to 34) being dimensioned so as to transfer a maximum transfer gas flow which is smaller than the maximum filling gas flow, the sum of a plurality of maximum transfer gas flows provided by a plurality of outlet valves (22 to 30) and a plurality of transfer lines (35 to 37) being greater than or equal to the maximum filling gas flow.
A system of composite particles for remediation of a contaminated sediment area, the system comprising two or more types of composite particles, each particle type having a core and a coating, characterized in that the coating of a first particle type contains a reactive material comprising at least one reactive composition for complexing, adsorbing or absorbing a contaminant; and the coating of a second particle type contains dormant microbes capable of consuming contaminants complexed or sorbed by the reactive material of the first type of composite particle, wherein the first particle type does not contain microbes; and, optionally, nutrients, micronutrients, buffers or other adjunctive materials.
A method comprising, at a mobile station: determining a measurement value based, at least in part, on a signal from at least one sensor on said mobile station; selectively downloading a context parameter map from a server based, at least in part, on expected energy consumption and accuracy of a particular sensor of said mobile station, wherein measurements from said particular sensor correspond to one or more parameters included in said context parameter map, estimating a location of said mobile station based, at least in part, on an association of said measurement value with said context parameter map. determining a measurement value based, at least in part, on a signal from at least one sensor on said mobile station; selectively downloading a context parameter map from a server based, at least in part, on expected energy consumption and accuracy of a particular sensor of said mobile station, wherein measurements from said particular sensor correspond to one or more parameters included in said context parameter map, estimating a location of said mobile station based, at least in part, on an association of said measurement value with said context parameter map.
An apparatus for use with a tool assembly in operations of tightening or loosening threaded fasteners about an axis including: a lower clamp assembly; an upper clamp assembly; a reaction adaptor assembly including a force transmitting element to substantially negate reaction turning forces of the tool assembly during the operations; and a spring assembly formed between the upper clamp assembly and the reaction adaptor assembly wherein the lower clamp assembly is non-rotatably connectable about the axis; the upper clamp assembly is rotatably connectable about the axis and the lower clamp assembly; the reaction adaptor assembly is non-rotatably connectable to and vertically positionable from the upper clamp assembly by the spring assembly; and the tool assembly is non-rotatably connectable to the reaction adaptor assembly and rotatably connectable to the fasteners. a lower clamp assembly; an upper clamp assembly; a reaction adaptor assembly including a force transmitting element to substantially negate reaction turning forces of the tool assembly during the operations; and a spring assembly formed between the upper clamp assembly and the reaction adaptor assembly wherein the lower clamp assembly is non-rotatably connectable about the axis; the upper clamp assembly is rotatably connectable about the axis and the lower clamp assembly; the reaction adaptor assembly is non-rotatably connectable to and vertically positionable from the upper clamp assembly by the spring assembly; and the tool assembly is non-rotatably connectable to the reaction adaptor assembly and rotatably connectable to the fasteners.
A weld line-detecting method when fillet welding by an industrial robots including a welding torch is taught, the weld line-detecting method being characterized by the steps of: a first moving step of moving the welding torch toward a welding object, an angle sensor having a contactor being attached on the welding torch; a transmitting step of transmitting angle information to the industrial robot, the angle information being obtained when the contactor is in contact with the welding object; a second moving step of making the industrial robot move the welding torch based on the angle information so that an angle of the contactor becomes zero; a repeating step of moving the welding torch toward a fillet part along a surface of the welding object by repeating the first moving step, the transmitting step, and the second moving step; and a detecting step of, when the contactor arrives at the fillet part of the welding object, making the industrial robot detect that the contactor arrives at a position to be welded on a weld line by transmitting, to the industrial robot, information indicating that the contactor is pressed in an axial direction of the contactor. a first moving step of moving the welding torch toward a welding object, an angle sensor having a contactor being attached on the welding torch; a transmitting step of transmitting angle information to the industrial robot, the angle information being obtained when the contactor is in contact with the welding object; a second moving step of making the industrial robot move the welding torch based on the angle information so that an angle of the contactor becomes zero; a repeating step of moving the welding torch toward a fillet part along a surface of the welding object by repeating the first moving step, the transmitting step, and the second moving step; and a detecting step of, when the contactor arrives at the fillet part of the welding object, making the industrial robot detect that the contactor arrives at a position to be welded on a weld line by transmitting, to the industrial robot, information indicating that the contactor is pressed in an axial direction of the contactor.
Positioning device of portal design, having two linear guides (FX1, FX2) that are arranged parallel to one another on a base and hold a first cross member and a second cross member so as to be movable in a first direction, wherein a Y-carriage having a functional element is held on the first cross member so as to be movable in a second direction, and wherein a position measuring device (Mxy, Mz, AKz2, Mxyl, AKxy1) for detecting the position of the Y-carriage relative to the second cross member is arranged on the second cross member and on the Y-carriage, wherein the functional element is held so as to be movable in a third direction with respect to the Y-carriage by means of a Z-carriage, wherein a further position measuring device (AKxy2, AKxy2', Mxy2, Mxy2') for detecting the position of the functional element relative to the Y-carriage is arranged on the Y-carriage and on the functional element, and wherein the further position measuring device (AKxy2, AKxy2', Mxy2, Mxy2') allows the displacement of the functional element in the first and second direction (X, Y) relative to the Y-carriage to be detected.
A structure for producing castings, which comprises an organic fiber, an inorganic fiber, inorganic particles and a thermosetting resin, wherein the inorganic fiber is carbon fiber wherein the content of the carbon fiber is from 1 to 70 wt.%, based on the structure for producing castings, and the thermosetting resin is at least one thermosetting resin selected from the group consisting of phenol resin having an actual carbon ratio of 25% or more after thermal decomposition, epoxy resin and furan resin.
A process for the preparation of Levothyroxine Sodium comprising the steps of: a. Reacting 3,5-Diiodotyrosine dihydrate with aqueous copper sulphate solution to give 3, 5-diiodo L-Tyrosine copper complex; b. Coupling reaction between 3, 5-diiodo L-Tyrosine copper complex and novel Bis (p-anisyl) iodonium iodide in the presence of Diisopropylamine or other organic bases in n-Butanol or other alcoholic solvents to obtain 2-Amino-3-(3,5-diiodo-4-(4-methoxy phenoxy)phenyl)propanoic acid; c. Demethylation of 2-Amino-3-(3,5-diiodo-4-(4-methoxyphenoxy)phenyl)propanoic acid using a mixture of Acetic acid and Hydroiodic acid to obtain 3,5-diiodothyronine; d. Iodinizing 3,5-diiodothyronine with methanolic or alcoholic monomethylamine and Iodine to obtain Levothyroxine; e. Converting Levothyroxine to Levothyroxine Sodium in the presence of sodium hydroxide and n-butanol or other alcoholic solvents a. Reacting 3,5-Diiodotyrosine dihydrate with aqueous copper sulphate solution to give 3, 5-diiodo L-Tyrosine copper complex; b. Coupling reaction between 3, 5-diiodo L-Tyrosine copper complex and novel Bis (p-anisyl) iodonium iodide in the presence of Diisopropylamine or other organic bases in n-Butanol or other alcoholic solvents to obtain 2-Amino-3-(3,5-diiodo-4-(4-methoxy phenoxy)phenyl)propanoic acid; c. Demethylation of 2-Amino-3-(3,5-diiodo-4-(4-methoxyphenoxy)phenyl)propanoic acid using a mixture of Acetic acid and Hydroiodic acid to obtain 3,5-diiodothyronine; d. Iodinizing 3,5-diiodothyronine with methanolic or alcoholic monomethylamine and Iodine to obtain Levothyroxine; e. Converting Levothyroxine to Levothyroxine Sodium in the presence of sodium hydroxide and n-butanol or other alcoholic solvents