mhurhangee/ep-ind-claims huggingface dataset:
A rotary three-phase transformer comprising a first portion and a second portion that are movable in rotation relative to each other about an axis A, the second portion surrounding the first portion around the axis A, or vice-versa and the first portion comprising a first body of ferromagnetic material and coils (34, 35, 36, 37, 38, 39), the second portion comprising a second body of ferromagnetic material and coils (40, 41, 42, 43, 44, 45); · the first body comprising a first annular slot of axis A, a second annular slot of axis A, a third annular slot of axis A, and a fourth annular slot of axis A; characterized in that the coils of the first portion comprise a first toroidal coil of axis A in the first slot, a second toroidal coil of axis A in the second slot, a third toroidal coil of axis A in the second slot, a fourth toroidal coil of axis A in the third slot, a fifth toroidal coil of axis A in the third slot, and a sixth toroidal coil of axis A in the fourth slot; · the first coil and the second coil being connected in series and presenting respective winding directions that, for a current (I ap) flowing in the first coil and in the second coil, correspond to two magnetic potentials of opposite directions (Pa, -Pa); · the third coil and the fourth coil being connected in series and presenting respective winding directions that, for a current (I bp) flowing in the third coil and the fourth coil, correspond to two magnetic potentials of opposite directions (Pb, -Pb); and · the fifth coil and the sixth coil being connected in series and presenting respective winding directions that, for a current (I cp) flowing in the third coil and the sixth coil, correspond to two magnetic potentials of opposite directions (Pc, -Pc). · the first body comprising a first annular slot of axis A, a second annular slot of axis A, a third annular slot of axis A, and a fourth annular slot of axis A; characterized in that the coils of the first portion comprise a first toroidal coil of axis A in the first slot, a second toroidal coil of axis A in the second slot, a third toroidal coil of axis A in the second slot, a fourth toroidal coil of axis A in the third slot, a fifth toroidal coil of axis A in the third slot, and a sixth toroidal coil of axis A in the fourth slot; · the first coil and the second coil being connected in series and presenting respective winding directions that, for a current (I ap) flowing in the first coil and in the second coil, correspond to two magnetic potentials of opposite directions (Pa, -Pa); · the third coil and the fourth coil being connected in series and presenting respective winding directions that, for a current (I bp) flowing in the third coil and the fourth coil, correspond to two magnetic potentials of opposite directions (Pb, -Pb); and · the fifth coil and the sixth coil being connected in series and presenting respective winding directions that, for a current (I cp) flowing in the third coil and the sixth coil, correspond to two magnetic potentials of opposite directions (Pc, -Pc).
Lighting system having one or more light source and a control device for adjusting lighting parameters of the light sources during operation, the control device being set up to adjust the lighting parameters as a function of time in accordance with a plurality of predetermined courses of the lighting parameters, characterised in that the control device is further set up to receive a one-dimensional user input and to switch from a current course from the plurality of courses corresponding to the one-dimensional user input to another course of the plurality of predetermined courses, wherein the control device is further set up to change the current course of the light parameters in accordance with further input values, and wherein the control device is further set up to determine the further input values and/or to receive them from external sensors, wherein the further input values are initially calculated together with a manipulated variable entered by a user via an input means into a single variable, which then serves as a one-dimensional user input for the lighting system.
A soil cleaning method, wherein, a pre-treatment step of mixing a dehydrating agent in soil (A, B, C, D, E, F) to reduce a water content of the soil (A, B, C, D, E, F) to 10 mass% or less is performed; a dry classification step is carried out to classify the soil, whose water content is reduced to 10 mass% or less in the pre-treatment step, into gravel, coarse soil, and fine soil, under a condition that a classification point of the gravel and the coarse soil is set as 2 mm and a classification point of the coarse soil and the fine soil out of the soil in a particle size class of less than 2 mm is set as 75 μm to 150 μm, and thereafter, a magnetic separation step of separating and removing a contaminant being chromium, arsenic, fluorine, lead, zinc, copper, or oil in the soil in the particle size class of less than 2 mm, as magnetically attracted matter is performed.
A blast cleaning system comprising: a nozzle configured to deliver a pressurized blast cleaning medium, wherein the blast cleaning medium includes a pressurized fluid and water ice particles as the primary blast cleaning component; an input hopper inside a housing (106, 110) having a hatch accessible from above the housing and configured to accept supplied water ice in bulk form through the hatch in the housing from an outside source that is external to the blast cleaning system; a particle sizing module coupled to the hopper and having two opposed crushing teeth assemblies (3, 5) configured to crush the supplied water ice to produce the water ice particles for the pressurized blast cleaning medium; a pressure feeder module configured to mix the water ice particles with the pressurized fluid to form the pressurized blast cleaning medium wherein the pressure feeder module is configured to move the water ice particles from the particle sizing module at atmospheric pressure to a mixing channel that includes the pressurized fluid, wherein the pressure feeder module, particle sizing module and input hopper are all within the housing; a single hose coupling the mixing channel to the nozzle, wherein the mixing channel includes an inlet configured to receive the pressurized fluid and an outlet configured to deliver the pressurized blast cleaning medium to the single hose, wherein the nozzle receives the pressurized fluid only from the single hose. a nozzle configured to deliver a pressurized blast cleaning medium, wherein the blast cleaning medium includes a pressurized fluid and water ice particles as the primary blast cleaning component; an input hopper inside a housing (106, 110) having a hatch accessible from above the housing and configured to accept supplied water ice in bulk form through the hatch in the housing from an outside source that is external to the blast cleaning system; a particle sizing module coupled to the hopper and having two opposed crushing teeth assemblies (3, 5) configured to crush the supplied water ice to produce the water ice particles for the pressurized blast cleaning medium; a pressure feeder module configured to mix the water ice particles with the pressurized fluid to form the pressurized blast cleaning medium wherein the pressure feeder module is configured to move the water ice particles from the particle sizing module at atmospheric pressure to a mixing channel that includes the pressurized fluid, wherein the pressure feeder module, particle sizing module and input hopper are all within the housing; a single hose coupling the mixing channel to the nozzle, wherein the mixing channel includes an inlet configured to receive the pressurized fluid and an outlet configured to deliver the pressurized blast cleaning medium to the single hose, wherein the nozzle receives the pressurized fluid only from the single hose.
A method of controlling the flow of reprocessing fluid through an instrument comprising at least one channel, said method comprising the steps of: operating a pump in fluid communication with a reprocessing fluid source; flowing the reprocessing fluid from the pump through a first fluid circuit comprising a first pressure differential sensor and a first valve, wherein the first fluid circuit is in fluid communication with the pump and a first of the at least one channel; detecting a first pressure differential in the reprocessing fluid flowing into the first valve utilizing the first pressure differential sensor; and modulating the first valve to control the flow rate of reprocessing fluid through the first channel utilizing an output from the first pressure differential sensor; wherein said step of modulating the first valve comprises modulating a first variable valve orifice. operating a pump in fluid communication with a reprocessing fluid source; flowing the reprocessing fluid from the pump through a first fluid circuit comprising a first pressure differential sensor and a first valve, wherein the first fluid circuit is in fluid communication with the pump and a first of the at least one channel; detecting a first pressure differential in the reprocessing fluid flowing into the first valve utilizing the first pressure differential sensor; and modulating the first valve to control the flow rate of reprocessing fluid through the first channel utilizing an output from the first pressure differential sensor; wherein said step of modulating the first valve comprises modulating a first variable valve orifice.
A vibration-type actuator comprising: a vibration body including an electric-mechanical energy conversion element with a lead content of 1000 ppm or less, and an elastic body having a plate portion and protrusions protruding in a direction intersecting with a main surface of the plate portion; and a contact body in contact with the protrusions, wherein the vibration body and the contact body are relatively moved by vibration of the vibration body, characterized in that the vibration-type actuator further comprises a pressure member pressing the vibration body against the contact body and a foamed member arranged between the pressure member and the vibration body, and in that the foamed member contains, as a main skeleton, a siloxane bond including silicon and oxygen, and an average equivalent circle diameter of bubbles contained in the foamed member is greater than 120 μm. a vibration body including an electric-mechanical energy conversion element with a lead content of 1000 ppm or less, and an elastic body having a plate portion and protrusions protruding in a direction intersecting with a main surface of the plate portion; and a contact body in contact with the protrusions, wherein the vibration body and the contact body are relatively moved by vibration of the vibration body, characterized in that the vibration-type actuator further comprises a pressure member pressing the vibration body against the contact body and a foamed member arranged between the pressure member and the vibration body, and in that the foamed member contains, as a main skeleton, a siloxane bond including silicon and oxygen, and an average equivalent circle diameter of bubbles contained in the foamed member is greater than 120 μm.
A tire mold segment for molding an uncured tire, the mold segment comprising: an inner side for contacting the uncured tire, an outer side opposite to the inner side, and a plurality of venting passages for conducting gas from the inner side of the mold segment to the outer side of the mold segment, the venting passages comprising venting slots, wherein each venting slot has an inlet at the inner side of the mold segment, the inlet having a width (w i) from 10 μm to 100 μm and wherein the venting slots taper from the inlets in a direction to the outer side of the mold segment, and wherein the venting slots have outlets essentially opposite to the inlets, and wherein the outlets have a width of at least 5 μm, characterized in that the width of the outlets is at least 10 μm smaller than the width of the inlets. an inner side for contacting the uncured tire, an outer side opposite to the inner side, and a plurality of venting passages for conducting gas from the inner side of the mold segment to the outer side of the mold segment, the venting passages comprising venting slots, wherein each venting slot has an inlet at the inner side of the mold segment, the inlet having a width (w i) from 10 μm to 100 μm and wherein the venting slots taper from the inlets in a direction to the outer side of the mold segment, and wherein the venting slots have outlets essentially opposite to the inlets, and wherein the outlets have a width of at least 5 μm, characterized in that the width of the outlets is at least 10 μm smaller than the width of the inlets.
Use of a decorated sheet in a method for producing a decorative laminate, comprising the steps of: - attaching the decorated sheet to a carrier plate; and - applying a top layer onto the decorated sheet, wherein the decorated sheet is produced according to a method comprising the steps of: - providing an unprinted nonwoven fabric made of cellulose fibers; - impregnating the nonwoven fabric with an aqueous dispersion of a polymer cross-linkable by UV radiation; - removing the aqueous dispersion medium from the impregnated nonwoven fabric by drying; - printing a decoration onto one side of the dried impregnated nonwoven fabric; - curing the polymer in the nonwoven fabric by cross-linking by means of UV irradiation, such that the decoration is printed onto the impregnated and dried nonwoven fabric prior to the curing of the polymer in the nonwoven fabric by cross-linking by means of UV radiation. - attaching the decorated sheet to a carrier plate; and - applying a top layer onto the decorated sheet, - providing an unprinted nonwoven fabric made of cellulose fibers; - impregnating the nonwoven fabric with an aqueous dispersion of a polymer cross-linkable by UV radiation; - removing the aqueous dispersion medium from the impregnated nonwoven fabric by drying; - printing a decoration onto one side of the dried impregnated nonwoven fabric; - curing the polymer in the nonwoven fabric by cross-linking by means of UV irradiation,
An arrangement for wavefront analysis comprising: a radiation source that emits an electromagnetic wavefront of electromagnetic radiation to be analyzed; a two-dimensional detector unit (4, 4a, 4b, 4c) measuring with spatial resolution for detecting the electromagnetic wavefront; an electronic evaluation unit (5, 7) connected to the detector unit (4, 4a, 4b, 4c), characterized in that the arrangement comprises at least one beam guidance unit for guiding the electromagnetic radiation that is designed to be only diffractive and/or reflective and that has a plurality of openings (3a, 3b, 3c), the detector unit (4, 4a, 4b, 4c) being arranged behind the openings (3a, 3b, 3c) of the beam guidance unit in the direction of propagation of the electromagnetic radiation for detecting a diffraction pattern of the electromagnetic radiation diffracted at the openings (3a, 3b, 3c) and being formed of a plurality of detectors (4a, 4b, 4c), each of which is assigned to one of the openings (3a, 3b, 3c) so as to register the complete diffraction pattern of the measurement light diffracted at the openings, the electronic evaluation unit (5, 7) being configured to analyze the complete diffraction pattern of the measurement light of the electromagnetic wavefront diffracted at the openings (3a, 3b, 3c). a radiation source that emits an electromagnetic wavefront of electromagnetic radiation to be analyzed; a two-dimensional detector unit (4, 4a, 4b, 4c) measuring with spatial resolution for detecting the electromagnetic wavefront; an electronic evaluation unit (5, 7) connected to the detector unit (4, 4a, 4b, 4c), characterized in that the arrangement comprises at least one beam guidance unit for guiding the electromagnetic radiation that is designed to be only diffractive and/or reflective and that has a plurality of openings (3a, 3b, 3c), the detector unit (4, 4a, 4b, 4c) being arranged behind the openings (3a, 3b, 3c) of the beam guidance unit in the direction of propagation of the electromagnetic radiation for detecting a diffraction pattern of the electromagnetic radiation diffracted at the openings (3a, 3b, 3c) and being formed of a plurality of detectors (4a, 4b, 4c), each of which is assigned to one of the openings (3a, 3b, 3c) so as to register the complete diffraction pattern of the measurement light diffracted at the openings, the electronic evaluation unit (5, 7) being configured to analyze the complete diffraction pattern of the measurement light of the electromagnetic wavefront diffracted at the openings (3a, 3b, 3c).
A polypeptide for use in a method of treatment for reducing iron overload, wherein said polypeptide comprises a sequence of 20 amino acids having: - at least 50% identity with the sequence SEQ ID NO: 1, - cysteine residues at positions 2, 5, 6, 8, 9, 14, 17, and 18, and wherein the polypeptide is able to reduce iron absorption. - at least 50% identity with the sequence SEQ ID NO: 1, - cysteine residues at positions 2, 5, 6, 8, 9, 14, 17, and 18, and
An optical laminate comprising: a transparent substrate, a resin coating provided on at least one surface of the transparent substrate; an adhesion layer provided on a surface of the resin coating; and an optical layer provided on a surface of the adhesion layer on a side opposite to the transparent substrate, wherein, the adhesion layer is formed of a metal material selected from Al or In, the adhesion layer has a thickness of 1 nm or more and 8 nm or less, and the optical layer is an oxide layer. a transparent substrate, a resin coating provided on at least one surface of the transparent substrate; an adhesion layer provided on a surface of the resin coating; and an optical layer provided on a surface of the adhesion layer on a side opposite to the transparent substrate, wherein, the adhesion layer is formed of a metal material selected from Al or In, the adhesion layer has a thickness of 1 nm or more and 8 nm or less, and the optical layer is an oxide layer.
A dry fractionation method for generating a protein concentrate product from a plant-based flour, the method comprising: milling the plant-based flour to generate milled flour; generating a first protein concentrate and a first starch concentrate from the milled flour using a first air classifier; generating a second protein concentrate using the first starch concentrate with a second air classifier; processing the first protein concentrate and the second protein concentrate to generate a protein rich curd; generating a neutral hydrolyzed protein slurry by mixing the protein rich curd with a base, an enzymatic cocktail and water; generating a homogenized protein slurry from the neutral hydrolyzed protein slurry; generating a pasteurized protein slurry by pasteurizing the homogenized protein slurry; generating a cooled protein slurry by cooling the pasteurized protein slurry; and extracting the protein concentrate product from the cooled protein slurry. milling the plant-based flour to generate milled flour; generating a first protein concentrate and a first starch concentrate from the milled flour using a first air classifier; generating a second protein concentrate using the first starch concentrate with a second air classifier; processing the first protein concentrate and the second protein concentrate to generate a protein rich curd; generating a neutral hydrolyzed protein slurry by mixing the protein rich curd with a base, an enzymatic cocktail and water; generating a homogenized protein slurry from the neutral hydrolyzed protein slurry; generating a pasteurized protein slurry by pasteurizing the homogenized protein slurry; generating a cooled protein slurry by cooling the pasteurized protein slurry; and extracting the protein concentrate product from the cooled protein slurry.
A tensioner for a belt drive of an internal combustion engine, said tensioner comprising a pin and a base adapted to be fixed to a crankcase of said engine, an arm hinged about said pin and a spring interposed between said base and said arm, said arm carrying a pulley adapted to cooperate with a drive belt of said belt drive, said tensioner further comprising a damping device adapted to provide a damping of variable value according to a relative rotation angle between said arm and said base, characterized in that said damping device is configured so as to supply a first constant damping value for relative rotation angles between said arm and said base smaller than a predetermined angle (α) and a second constant damping value (D1+D2) greater than the first damping value for relative rotation angles between said arm and said base greater than said predetermined angle (α).
A run-flat tire provided with a sidewall reinforcing layer inside the sidewall, which has an uneven portion on the surface portion of the sidewall, characterized in that the sidewall reinforcing layer has the breaking strength TB (MPa) × break elongation EB (%) of 320 or more at 100°C, and the loss tangent at 100°C, 100°Ctan δ, of 0.06 or less; and the sidewall has a loss tangent at 60°C, 60°Ctan δ, of 0.17 or less, and has the difference between the loss tangent at 60°C and the loss tangent at 75°C, |60°Ctan δ-75°Ctan δ |, of less than 0.05. characterized in that the sidewall reinforcing layer has the breaking strength TB (MPa) × break elongation EB (%) of 320 or more at 100°C, and the loss tangent at 100°C, 100°Ctan δ, of 0.06 or less; and the sidewall has a loss tangent at 60°C, 60°Ctan δ, of 0.17 or less, and has the difference between the loss tangent at 60°C and the loss tangent at 75°C, |60°Ctan δ-75°Ctan δ |, of less than 0.05.
Speaking valve arrangement for fitting and attachment to a tracheostomy cannula, with a through-flow body enclosing a through-flow channel, which has a through-flow body wall that radially encloses the through-flow channel, and which has a suitably designed connecting structure at one end for joining to a proximal end of the tracheostomy cannula, at the end of which structure, located opposite to the connecting structure along the through-flow channel, is arranged a one-way valve, and a valve opening (10, 12) that can be closed by a pressure-relief valve arrangement is arranged along the through-flow channel, spatially separated between the connecting structure and the one-way valve, wherein the valve opening passes completely through the through-flow body wall, and the pressure-relief valve arrangement has at least one elastically deformable valve flap, which in a first state is able to cover the valve opening (10, 12) provided between the connecting structure and the one-way valve on the through-flow body, and in the event of a predefinable overpressure within the flow channel, can be converted into a second state, at least partially releasing the valve opening (10, 12) by an overpressure-driven elastic deformation of the valve flap.