mhurhangee/ep-ind-claims huggingface dataset:
Electrical/electronic control equipment for heating metallic workpieces comprising the following parts: an adjustable power driver, a heating and data acquisition controller, a power transformer; the adjustable power driver contains a rectifier which converts "AC" energy into "DC", a filter, a changeover circuit, a microprocessor control unit and optionally a "DC" or "AC" output; the data acquisition and heating controller contains inputs, sensors processing unit, digital/analog outputs characterised in that said changeover circuit being a network of IGBT or Insulated Gate Bipolar Transistor power transistors operable by a Pulse Width Modulation or PWM control method, said transistors switching on and off the "DC", obtaining a variable frequency and voltage output and said IGBT or Insulated Gate Bipolar Transistor power transistors firing controlled by the microprocessor control unit; said data acquisition and heating controller containing an HMI or Human Machine Interface and standard "Ethernet IP" communication; said power transformer having a secondary winding and a primary winding each one having respective input and output connected to the adjustable power driver converting the voltage and current values into heat; and said power transformer containing extruded cavities for the circulation of cooled water in its secondary core. an adjustable power driver, a heating and data acquisition controller, a power transformer; the adjustable power driver contains a rectifier which converts "AC" energy into "DC", a filter, a changeover circuit, a microprocessor control unit and optionally a "DC" or "AC" output; the data acquisition and heating controller contains inputs, sensors processing unit, digital/analog outputs characterised in that said changeover circuit being a network of IGBT or Insulated Gate Bipolar Transistor power transistors operable by a Pulse Width Modulation or PWM control method, said transistors switching on and off the "DC", obtaining a variable frequency and voltage output and said IGBT or Insulated Gate Bipolar Transistor power transistors firing controlled by the microprocessor control unit; said data acquisition and heating controller containing an HMI or Human Machine Interface and standard "Ethernet IP" communication; said power transformer having a secondary winding and a primary winding each one having respective input and output connected to the adjustable power driver converting the voltage and current values into heat; and said power transformer containing extruded cavities for the circulation of cooled water in its secondary core.
A vibratory flow meter for correcting for an entrained phase-related measurement error in a two-phase flow of a flow material, comprising a flow meter assembly including a driver and with the vibratory flow meter being configured to generate a vibrational response for the flow material and further comprising meter electronics being configured to measure a two-phase density of the two-phase flow using the vibrational response, coupled to the flow meter assembly and receiving the vibrational response from pickoff sensors (105, 105') having pickoff voltages, with the vibratory flow meter being characterized by: the meter electronics being configured to calculate a computed drive power needed by the driver of the flow meter assembly, and calculate a density compensation factor using a liquid density of a liquid component of the two-phase flow, an entrained phase density of an entrained component, the measured two-phase density, and the computed drive power; the meter electronics being configured to add the density compensation factor to the measured two-phase density to provide a compensated two-phase density that corrects for the entrained phase-related measurement error. the meter electronics being configured to calculate a computed drive power needed by the driver of the flow meter assembly, and calculate a density compensation factor using a liquid density of a liquid component of the two-phase flow, an entrained phase density of an entrained component, the measured two-phase density, and the computed drive power; the meter electronics being configured to add the density compensation factor to the measured two-phase density to provide a compensated two-phase density that corrects for the entrained phase-related measurement error.
A method, comprising: providing a plurality of data streams in respective subchannels; modulating a first data stream of the plurality of data streams at least partially with a different modulation constellation than a second data stream of the plurality of data streams; and transmitting the first and second data streams using a same radio resource to user terminals using different subchannels of the radio resource, wherein the radio resource is a frequency, a timeslot, or a combination thereof, and wherein a first and a second subchannel use mutually orthogonal training sequence pairs such that the first and the second subchannels use different training sequences, and wherein signal power provided for a first subchannel is larger than signal power provided for a second subchannel. providing a plurality of data streams in respective subchannels; modulating a first data stream of the plurality of data streams at least partially with a different modulation constellation than a second data stream of the plurality of data streams; and transmitting the first and second data streams using a same radio resource to user terminals using different subchannels of the radio resource, wherein the radio resource is a frequency, a timeslot, or a combination thereof, and wherein a first and a second subchannel use mutually orthogonal training sequence pairs such that the first and the second subchannels use different training sequences, and wherein signal power provided for a first subchannel is larger than signal power provided for a second subchannel.
Process for preparing an etheresterol, preferably a polyetheresterol, by reacting an H-functional starter substance with a cyclic anhydride and an alkylene oxide in the presence of a catalyst, wherein the alkylene oxide in the total amount is added in at least two portions (m3-1) and (m3-2); wherein the catalyst in the total amount is added in at least one portion (m4-2); wherein the portion (m4-2) of the catalyst is added after the first portion (m3-1) of the alkylene oxide; and wherein the addition of the total amount of the catalyst is concluded before the addition of the total amount of the alkylene oxide; and wherein the catalyst is a tertiary amine. wherein the catalyst in the total amount is added in at least one portion (m4-2); wherein the portion (m4-2) of the catalyst is added after the first portion (m3-1) of the alkylene oxide; and wherein the addition of the total amount of the catalyst is concluded before the addition of the total amount of the alkylene oxide; and wherein the catalyst is a tertiary amine.
A detection tag for the detection of the reproductive status of animals, the detection tag comprising: a first surface affixable to the hide of an animal; a second and opposite surface including an abradable material; a first electronic signal transmission means configured to transmit a first electronic signal; and characterised by a second electronic signal transmission means spaced apart from the first electronic signal transmission means and configured to transmit a second electronic signal, the first and second electronic signals having detectably different characteristics; a signal shielding means shielding the signal produced by one of the first and second electronic signal transmission means (403a, 403b) such that only the output from the other of the first and second electronic signal transmission means (403a, 403b) is transmitted from the detection tag; the detection tag being configured such that removal of some or all of the abradable material damages or removes the signal shielding means such that the signal produced by the said one of the first and second electronic signal transmission means (403a, 403b) is no longer shielded and the output from both the first and the second electronic signal transmission means (403a, 403b) is transmitted from the tag. a first surface affixable to the hide of an animal; a second and opposite surface including an abradable material; a first electronic signal transmission means configured to transmit a first electronic signal; and characterised by a second electronic signal transmission means spaced apart from the first electronic signal transmission means and configured to transmit a second electronic signal, the first and second electronic signals having detectably different characteristics; a signal shielding means shielding the signal produced by one of the first and second electronic signal transmission means (403a, 403b) such that only the output from the other of the first and second electronic signal transmission means (403a, 403b) is transmitted from the detection tag; the detection tag being configured such that removal of some or all of the abradable material damages or removes the signal shielding means such that the signal produced by the said one of the first and second electronic signal transmission means (403a, 403b) is no longer shielded and the output from both the first and the second electronic signal transmission means (403a, 403b) is transmitted from the tag.
Hardening accelerator composition obtainable by reaction of a water-soluble calcium compound with a water-soluble silicate compound in the presence of an aqueous solution which contains a water-soluble comb polymer suitable as a plasticizer for hydraulic binders which comb polymer is a copolymer which contains, on the main chain, side chains having ether functions, and acid functions, and has an average molecular weight M w of 20.000 to 70.000 g/mol, to obtain a suspension containing calcium silicate hydrate in finely dispersed form, the molar ratio of calcium to silicon in the calcium silicate hydrate being from 0.6 to 2, and the calcium silicate hydrate particles having a particle diameter smaller than 500 nm, the particle size of the calcium silicate hydrate being measured by analytical ultracentrifugation, wherein a solution of the water-soluble calcium compound and a solution of the water-soluble silicate compound are added separately and simultaneously to an aqueous solution containing a water-soluble comb polymer. which comb polymer is a copolymer which contains, on the main chain, side chains having ether functions, and acid functions, and has an average molecular weight M w of 20.000 to 70.000 g/mol, to obtain a suspension containing calcium silicate hydrate in finely dispersed form, the molar ratio of calcium to silicon in the calcium silicate hydrate being from 0.6 to 2, and the calcium silicate hydrate particles having a particle diameter smaller than 500 nm, the particle size of the calcium silicate hydrate being measured by analytical ultracentrifugation, wherein a solution of the water-soluble calcium compound and a solution of the water-soluble silicate compound are added separately and simultaneously to an aqueous solution containing a water-soluble comb polymer.
A fatty acid decarboxylase comprising at least 40% sequence identity to SEQ ID NO:1 or 2, and an amino acid substitution at a position corresponding to G462 of SEQ ID NO:1, wherein the fatty acid decarboxylase has an improved butyric acid to propane decarboxylase activity compared to a fatty acid decarboxylase comprising SEQ ID NO:1.
A method for the determining of structures and/or geometry of an object such as a workpiece in a coordinate measuring device by a tactile, optical measuring method, whereby the position of a touching form element extending from a probe extension (10, 18) or at least of a first mark extending from the probe extension and associated with the latter is determined in the X- and Y-direction of the coordinate measuring device by a first sensor with an optically laterally measuring method and the position of the touching form element or at least of the first mark associated with the latter is determined in at least one Z direction of the coordinate measuring device perpendicular to the X- and Y-direction with at least one distance sensor (5, 15), characterized in that in order to fasten the probe extension (10, 18) in a holder at least one flexible connecting element is used that is passed through by the beam path of the first sensor in the direction of the beam, wherein the at least one flexible connecting element is transparent or is arranged in a strongly defocused manner relative to the first sensor, and that in the X-, Y-direction position of the touching form element or of the first mark and for measuring in the Z-direction the position of a mark is determined, which is arranged at a distance from the touching form element and/or the first mark.
Intermediate composite element ( 2, 200, 201, 202) comprising: - at least one molded portion (3, 300, 301, 310) comprising an assembly of reinforcing fibers embedded in a thermoset polymer matrix, - at least one dry stack (4, 400, 401, 410) of layers of reinforcing fibers, comprising at least one porous polymeric layer inserted between two successive layers of reinforcing fibers, the molded portion (3, 300, 301, 310) being affixed to the surface of the stack and bonded thereto, the intermediate composite element is such that the thermoset polymer partially penetrates the thickness of the dry stack (4, 400, 401, 410) from the surface of the dry stack (4, 400, 401, 410) to which the molded portion (3, 300, 301, 310) is affixed, thereby providing the bond between the dry stack (4, 400, 401, 410) and the molded portion (3, 300, 301, 310). - at least one molded portion (3, 300, 301, 310) comprising an assembly of reinforcing fibers embedded in a thermoset polymer matrix, - at least one dry stack (4, 400, 401, 410) of layers of reinforcing fibers, comprising at least one porous polymeric layer inserted between two successive layers of reinforcing fibers, the molded portion (3, 300, 301, 310) being affixed to the surface of the stack and bonded thereto, the intermediate composite element is such that the thermoset polymer partially penetrates the thickness of the dry stack (4, 400, 401, 410) from the surface of the dry stack (4, 400, 401, 410) to which the molded portion (3, 300, 301, 310) is affixed, thereby providing the bond between the dry stack (4, 400, 401, 410) and the molded portion (3, 300, 301, 310).
A multi-sensor assembly operable in characterizing a metallic structure, the multi-sensor assembly comprising: a housing comprising (i) at least one electrically conductive coil configured for operation as at least one electromagnetic acoustic transducer (EMAT) sensor and at least one eddy current sensor and (ii) at least one magnetic flux leakage sensor, wherein the at least one electrically conductive coil and the at least one MFL sensor are configured in the housing such that when the housing is disposed adjacent to or in contact with the metallic structure, the at least one coil and the MFL sensor are operable to acquire EMAT, EC, and MFL signals from a localized region of the metallic structure corresponding to the portion of the housing disposed adjacent to or in contact with the metallic structure; and at least one deflection sensor configured to generate a signal representative of the spatial position of the housing in response to the topography of the metallic structure; wherein said signal representative of the spatial position of the housing is capable of being used to correct or compensate at least one of (i) at least one of the acquired EMAT, EC, and MFL signals, and (ii) at least one spatial position associated with at least one of the acquired EMAT, EC, and MFL signals. a housing comprising (i) at least one electrically conductive coil configured for operation as at least one electromagnetic acoustic transducer (EMAT) sensor and at least one eddy current sensor and (ii) at least one magnetic flux leakage sensor, wherein the at least one electrically conductive coil and the at least one MFL sensor are configured in the housing such that when the housing is disposed adjacent to or in contact with the metallic structure, the at least one coil and the MFL sensor are operable to acquire EMAT, EC, and MFL signals from a localized region of the metallic structure corresponding to the portion of the housing disposed adjacent to or in contact with the metallic structure; and at least one deflection sensor configured to generate a signal representative of the spatial position of the housing in response to the topography of the metallic structure; wherein said signal representative of the spatial position of the housing is capable of being used to correct or compensate at least one of (i) at least one of the acquired EMAT, EC, and MFL signals, and (ii) at least one spatial position associated with at least one of the acquired EMAT, EC, and MFL signals.
Hinge for mounting a door on a piece of furniture, comprising: - a hinge arm fixable to a fixed part of the piece of furniture; - a box fixable to a door of the piece of furniture, the box being swingably connected to said hinge arm at a rear longitudinal end of the box and having side walls (18', 18") longitudinally extending on opposite sides of the box starting from said rear end; - spring means for closing the hinge placed centrally in the hinge box; and - a linear-type decelerating device comprising a fluid-type decelerating cylinder and return spring means operatively connected with each other, characterized in that a said decelerating device is arranged inside the box and in that said fluid-type decelerating cylinder and said return spring means extend parallel and spaced apart with each other, said fluid-type decelerating cylinder being arranged in proximity to a first of said side walls of the box and said return spring means being arranged in proximity to the opposite side wall (18") of the box. - a hinge arm fixable to a fixed part of the piece of furniture; - a box fixable to a door of the piece of furniture, the box being swingably connected to said hinge arm at a rear longitudinal end of the box and having side walls (18', 18") longitudinally extending on opposite sides of the box starting from said rear end; - spring means for closing the hinge placed centrally in the hinge box; and - a linear-type decelerating device comprising a fluid-type decelerating cylinder and return spring means operatively connected with each other, characterized in that a said decelerating device is arranged inside the box and in that said fluid-type decelerating cylinder and said return spring means extend parallel and spaced apart with each other, said fluid-type decelerating cylinder being arranged in proximity to a first of said side walls of the box and said return spring means being arranged in proximity to the opposite side wall (18") of the box.
A racket comprising a grommet, a frame, and a string, wherein the grommet includes: a base; and a pipe that rises from the base and through which the string is passed, and the frame includes: a grommet groove in which the base is accommodated; and a small groove recessed from the grommet groove characterized in that the base is spaced apart from a bottom of the small groove. the grommet includes: a base; and a pipe that rises from the base and through which the string is passed, and a base; and a pipe that rises from the base and through which the string is passed, and the frame includes: a grommet groove in which the base is accommodated; and a small groove recessed from the grommet groove characterized in that a grommet groove in which the base is accommodated; and a small groove recessed from the grommet groove characterized in that the base is spaced apart from a bottom of the small groove.
A spectrophotometric device, wherein the spectrophotometric device comprises a base plate comprising a first surface to accommodate a sample thereon; a rotatable plate comprising a second surface corresponding to and spaced a certain distance apart from the first surface, rotating by a hinge provided at a side of the base plate; a test beam radiator connected to the first surface through a first beam guide to radiate a test beam to the sample accommodated on a beam path between the first and second surfaces (11, 21); and a spectrophotometer connected to the second surface through a second beam guide to analyze spectroscopic properties of the sample by analyzing a characteristic beam having passed through the sample accommodated on the beam path, the spectrophotometric device comprising a state determiner provided near the beam path to determine whether the sample accommodated between the first and second surfaces (11, 21) is in a state in which analysis of optical properties is enabled, wherein the state determiner comprises a beam transmitter for radiating a transmission beam to the beam path to determine a state of the sample between the first and second surfaces (11, 21); and a beam receiver for receiving at least a portion of the transmission beam having passed through the beam path, wherein the beam transmitter and the beam receiver face each other in a direction perpendicular to the beam path formed between the first and second surfaces (11, 21), and are movable in a lengthwise direction of the beam path. a base plate comprising a first surface to accommodate a sample thereon; a rotatable plate comprising a second surface corresponding to and spaced a certain distance apart from the first surface, rotating by a hinge provided at a side of the base plate; a test beam radiator connected to the first surface through a first beam guide to radiate a test beam to the sample accommodated on a beam path between the first and second surfaces (11, 21); and a spectrophotometer connected to the second surface through a second beam guide to analyze spectroscopic properties of the sample by analyzing a characteristic beam having passed through the sample accommodated on the beam path, the spectrophotometric device comprising a state determiner provided near the beam path to determine whether the sample accommodated between the first and second surfaces (11, 21) is in a state in which analysis of optical properties is enabled, wherein the state determiner comprises a beam transmitter for radiating a transmission beam to the beam path to determine a state of the sample between the first and second surfaces (11, 21); and a beam receiver for receiving at least a portion of the transmission beam having passed through the beam path, wherein the beam transmitter and the beam receiver face each other in a direction perpendicular to the beam path formed between the first and second surfaces (11, 21), and are movable in a lengthwise direction of the beam path.