mhurhangee/ep-ind-claims huggingface dataset:
A web transport apparatus transporting a sheet web by using multiple rollers, comprising: a driving roller transporting the web; an angle adjustable roller disposed adjacent upstream of the driving roller in a transportation direction, provided with a shaft adjustable in a shaft direction; imaging means for picking up an image of the web transported on the angle adjustable roller; alignment adjusting means for adjusting the angle of the shaft of the angle adjustable roller; and a controller; characterized by the controller comprising: image analyzing means for detecting a linear pattern of a waveform generated on the web to find a sign of wrinkling in the web from the image picked up by the imaging means, and for analyzing an entering direction of the linear pattern into the angle adjustable roller; and shaft angle control means for adjusting the shaft of the angle adjustable roller such that the shaft direction is perpendicular to the entering direction of the linear pattern analyzed by means of the image analyzing means, and for controlling the alignment adjusting means, whereby the web is not wrinkled. a driving roller transporting the web; an angle adjustable roller disposed adjacent upstream of the driving roller in a transportation direction, provided with a shaft adjustable in a shaft direction; imaging means for picking up an image of the web transported on the angle adjustable roller; alignment adjusting means for adjusting the angle of the shaft of the angle adjustable roller; and a controller; characterized by the controller comprising: image analyzing means for detecting a linear pattern of a waveform generated on the web to find a sign of wrinkling in the web from the image picked up by the imaging means, and for analyzing an entering direction of the linear pattern into the angle adjustable roller; and shaft angle control means for adjusting the shaft of the angle adjustable roller such that the shaft direction is perpendicular to the entering direction of the linear pattern analyzed by means of the image analyzing means, and for controlling the alignment adjusting means, whereby the web is not wrinkled. image analyzing means for detecting a linear pattern of a waveform generated on the web to find a sign of wrinkling in the web from the image picked up by the imaging means, and for analyzing an entering direction of the linear pattern into the angle adjustable roller; and shaft angle control means for adjusting the shaft of the angle adjustable roller such that the shaft direction is perpendicular to the entering direction of the linear pattern analyzed by means of the image analyzing means, and for controlling the alignment adjusting means, whereby the web is not wrinkled.
Method for mounting an engine module in a support comprising a first structure and a second structure that is offset relative to the first structure, method intended for positioning at least a specified part of the engine module relative to an element of the second structure by means of an isostatic suspension connecting the engine module to said first structure by means of first connecting rods (10a, 10b, 10c, 10d), and to said second structure by means of second connecting rods (10e, 10f), the length of said first and second connecting rods being defined in advance, method wherein the length of at least two (10c, 10f) of said first and second connecting rods is adjusted relative to the previously defined length thereof, in order to position said specified part of the engine module relative to said element of the second structure in said support.
A stent (200, 300, 400, 900, 1000) comprising: a plurality of cylindrical rings (210, 310, 910, 1010) coupled together to form a tube having a longitudinal axis and a circumference, wherein the tube includes a radially compressed configuration having a first diameter and a locked-out configuration having a second diameter larger than the first diameter, wherein each cylindrical ring includes, a first arm (230a, 330, 430, 530, 630, 730, 830, 1230) extending generally circumferentially when the tube is in locked-out expanded configuration, a second arm (230b, 332, 432, 532, 632, 732 832, 1232) extending generally circumferentially when the tube is in the locked-out configuration, and an elbow (234, 334, 434, 534, 634, 734, 834, 1234) coupling the first arm and the second arm, a gap (236, 436, 536, 636, 736, 836, 1236) disposed between an end surface of the first arm and an end surface of the second arm, wherein an angle between the first arm and the second arm is less than 180 degrees and the gap is open when the stent is in the radially compressed configuration and the angle is more than 180 degrees and the gap is closed when the stent is in the locked-out configuration. a plurality of cylindrical rings (210, 310, 910, 1010) coupled together to form a tube having a longitudinal axis and a circumference, wherein the tube includes a radially compressed configuration having a first diameter and a locked-out configuration having a second diameter larger than the first diameter, wherein each cylindrical ring includes, a first arm (230a, 330, 430, 530, 630, 730, 830, 1230) extending generally circumferentially when the tube is in locked-out expanded configuration, a second arm (230b, 332, 432, 532, 632, 732 832, 1232) extending generally circumferentially when the tube is in the locked-out configuration, and an elbow (234, 334, 434, 534, 634, 734, 834, 1234) coupling the first arm and the second arm, a gap (236, 436, 536, 636, 736, 836, 1236) disposed between an end surface of the first arm and an end surface of the second arm, a first arm (230a, 330, 430, 530, 630, 730, 830, 1230) extending generally circumferentially when the tube is in locked-out expanded configuration, a second arm (230b, 332, 432, 532, 632, 732 832, 1232) extending generally circumferentially when the tube is in the locked-out configuration, and an elbow (234, 334, 434, 534, 634, 734, 834, 1234) coupling the first arm and the second arm, a gap (236, 436, 536, 636, 736, 836, 1236) disposed between an end surface of the first arm and an end surface of the second arm, wherein an angle between the first arm and the second arm is less than 180 degrees and the gap is open when the stent is in the radially compressed configuration and the angle is more than 180 degrees and the gap is closed when the stent is in the locked-out configuration.
A vacuum insulating glass intermediate assembly, comprising: first and second substantially parallel spaced-apart glass substrates, wherein the first and second substrates each include one or more edge portions to be sealed; and a glass frit provided at least partially between the first and second glass substrates for sealing said one or more edge portions to be sealed, wherein the glass frit has a glass redox (FeO/Fe 2 O 3) that is higher than a glass redox (FeO/Fe 2 O 3) of the first and second substrates. first and second substantially parallel spaced-apart glass substrates, wherein the first and second substrates each include one or more edge portions to be sealed; and a glass frit provided at least partially between the first and second glass substrates for sealing said one or more edge portions to be sealed, wherein the glass frit has a glass redox (FeO/Fe 2 O 3) that is higher than a glass redox (FeO/Fe 2 O 3) of the first and second substrates.
- A method of synchronising a plurality of optronic systems (20, 22, 24), the optronic systems (20, 22, 24) operating simultaneously on one and the same scene, each optronic system (20, 22, 24) being intended to emit and / or receive light from a target of the scene and each optronic system comprising a module for generating a synchronization signal comprising an internal precision clock and a proper synchronisation module of the internal clock with a reference time signal, the internal clock being able to deliver an internal clock signal, the method comprising the following steps: - reception of a first reference time signal (H tra) and generation of a second reference time signal (H ref) from the first reference time signal (H tra) by each proper synchronisation module, the first reference time signal (H tra) being independent of the optronic systems and emanating from an item of equipment different from the optronic systems, and - synchronisation of the internal clock of each optronic system with the second reference time signal (H ref) by the proper synchronisation module, the method comprising in addition for each optronic system (20, 22, 24) a step of compensating for a phase shift ( φ C) induced by the propagation time of light between the illuminated target and the optronic system (20, 22, 24) operating on the scene. - reception of a first reference time signal (H tra) and generation of a second reference time signal (H ref) from the first reference time signal (H tra) by each proper synchronisation module, the first reference time signal (H tra) being independent of the optronic systems and emanating from an item of equipment different from the optronic systems, and - synchronisation of the internal clock of each optronic system with the second reference time signal (H ref) by the proper synchronisation module,
An aggregate coating installation for producing asphalt from fresh aggregate and recycled fresh asphalt aggregates, the installation comprising a first drying drum for drying by gas circulation in the first drum, and a second drying drum for drying by gas circulation in the second drum, the second drum being separate from the first drum, the installation being configured to supply the second drum with at least one fraction of recycled fresh asphalt aggregates, the second drum being fluidly connected in series with the first drum for the circulation, in the second drum, of gas having previously circulated in the first drum, characterized in that the installation comprises a recirculation circuit configured to reinject, into the first drum, gases having circulated in the second drum.
Shaft bearing for mounting a spinning rotor of a rotor spinning machine, comprising a double-row rolling bearing which has two rows of rolling elements (20a, 20b) which roll on the outside on outer raceways of two separate outer rings (5a, 5b) which are arranged at a distance from one another along a longitudinal axis direction of a shaft, in particular of a rotor shaft, and the outer rings (5a, 5b) are in turn resiliently displaceably borne in a shaft bearing housing, characterized in that the two rows of rolling elements (20a, 20b) roll on the inside, without an inner ring, on two inner bearing tracks arranged at a distance from one other on the rotor shaft. the outer rings (5a, 5b) are in turn resiliently displaceably borne in a shaft bearing housing, characterized in that the two rows of rolling elements (20a, 20b) roll on the inside, without an inner ring, on two inner bearing tracks arranged at a distance from one other on the rotor shaft.
A high-temperature superconducting coil comprising: an oxide superconducting wire comprising: a tape-shaped substrate, an intermediate layer being stacked on the substrate, an oxide superconducting layer being stacked on the intermediate layer, and a metal stabilized layer being stacked on the oxide superconducting layer; a coil main body being formed by winding the oxide superconducting wire in a coil shape; and an impregnating resin layer being formed of an impregnating resin of which a thermal shrinkage rate indicating a rate of change of a length when cooling is performed from 293 K to 140 K is greater than or equal to -0.517%, the impregnating resin layer covering the coil main body. an oxide superconducting wire comprising: a tape-shaped substrate, an intermediate layer being stacked on the substrate, an oxide superconducting layer being stacked on the intermediate layer, and a metal stabilized layer being stacked on the oxide superconducting layer; a tape-shaped substrate, an intermediate layer being stacked on the substrate, an oxide superconducting layer being stacked on the intermediate layer, and a metal stabilized layer being stacked on the oxide superconducting layer; a coil main body being formed by winding the oxide superconducting wire in a coil shape; and an impregnating resin layer being formed of an impregnating resin of which a thermal shrinkage rate indicating a rate of change of a length when cooling is performed from 293 K to 140 K is greater than or equal to -0.517%, the impregnating resin layer covering the coil main body.
A subcutaneous implantable lead comprising: a coil disposed along a portion of the lead; and a lead tip coupled to a distal end of the lead and comprising at least one component (84, 86) that is movable relative to the distal end of the lead and configured to anchor the lead tip in subcutaneous tissue; wherein the lead tip comprises: a head defining a leading end opposite a trailing end that is coupled to the distal end of the lead; at least one arm (84, 86) coupled to the head and comprising a first end attached to the head and a second end that is movable relative to the head; a body coupled to the head, the body disposed along the central longitudinal axis of the head, the second end movable along the body relative to the head; and wherein the body comprises a waist defined by a bulge extending radially from the body, the second end of the arm configured to engage the waist and move a central portion (114, 116) of the arm laterally away from the body to anchor the lead tip in subcutaneous tissue. a coil disposed along a portion of the lead; and a lead tip coupled to a distal end of the lead and comprising at least one component (84, 86) that is movable relative to the distal end of the lead and configured to anchor the lead tip in subcutaneous tissue; wherein the lead tip comprises: a head defining a leading end opposite a trailing end that is coupled to the distal end of the lead; at least one arm (84, 86) coupled to the head and comprising a first end attached to the head and a second end that is movable relative to the head; a body coupled to the head, the body disposed along the central longitudinal axis of the head, the second end movable along the body relative to the head; and wherein the body comprises a waist defined by a bulge extending radially from the body, the second end of the arm configured to engage the waist and move a central portion (114, 116) of the arm laterally away from the body to anchor the lead tip in subcutaneous tissue. a head defining a leading end opposite a trailing end that is coupled to the distal end of the lead; at least one arm (84, 86) coupled to the head and comprising a first end attached to the head and a second end that is movable relative to the head; a body coupled to the head, the body disposed along the central longitudinal axis of the head, the second end movable along the body relative to the head; and wherein the body comprises a waist defined by a bulge extending radially from the body, the second end of the arm configured to engage the waist and move a central portion (114, 116) of the arm laterally away from the body to anchor the lead tip in subcutaneous tissue.
A method of treating a gaseous mixture, comprising CO 2, H 2, H 2 S, optionally CO, and optionally one or more additional combustible components, to obtain an H 2 or H 2 and CO product stream (H 2 /CO product stream) and a CO 2 product stream, the method comprising: separating the gaseous mixture to provide the H 2 /CO product stream and a CO 2 enriched stream, the CO 2 enriched stream containing at least one combustible component selected from H 2 S, H 2, CO and any additional combustible components present in the gaseous mixture; obtaining a support fuel stream comprising one or more combustible components, wherein said support fuel stream is a gaseous stream derived from the production of the gaseous mixture, is a portion of the gaseous mixture, is separated from the gaseous mixture in addition to the H 2 /CO product stream and CO 2 enriched stream, is a portion of the H 2 /CO product, or is derived from the H 2 /CO product; combusting the support fuel stream, in the presence of sufficient O 2 to combust all or substantially all of the combustible component(s) present in said support fuel stream, to form a stable flame to act as the ignition source for combustion of the combustible component(s) present in the CO 2 enriched stream; contacting the CO 2 enriched stream, said flame and sufficient O 2 to combust all or substantially all of the combustible component(s) present in said CO 2 enriched stream and form a combustion effluent comprising CO 2 and the combustion product(s) of the combustible component(s) of the support fuel and CO 2 enriched streams; and forming the CO 2 product stream from said combustion effluent. separating the gaseous mixture to provide the H 2 /CO product stream and a CO 2 enriched stream, the CO 2 enriched stream containing at least one combustible component selected from H 2 S, H 2, CO and any additional combustible components present in the gaseous mixture; obtaining a support fuel stream comprising one or more combustible components, wherein said support fuel stream is a gaseous stream derived from the production of the gaseous mixture, is a portion of the gaseous mixture, is separated from the gaseous mixture in addition to the H 2 /CO product stream and CO 2 enriched stream, is a portion of the H 2 /CO product, or is derived from the H 2 /CO product; combusting the support fuel stream, in the presence of sufficient O 2 to combust all or substantially all of the combustible component(s) present in said support fuel stream, to form a stable flame to act as the ignition source for combustion of the combustible component(s) present in the CO 2 enriched stream; contacting the CO 2 enriched stream, said flame and sufficient O 2 to combust all or substantially all of the combustible component(s) present in said CO 2 enriched stream and form a combustion effluent comprising CO 2 and the combustion product(s) of the combustible component(s) of the support fuel and CO 2 enriched streams; and forming the CO 2 product stream from said combustion effluent.
A method of preparing a composition, comprising (a) a micronised insoluble organic UV absorber selected from the compounds of formula which method comprises grinding the insoluble organic UV absorber, in coarse particle form, in a grinding apparatus, in the presence of a grinding aid selected from the groups (b 1) Sodium Lauroyl Lactylate and (b 2) Isocetyl isostearate, and/or glycol oleate. (b 1) Sodium Lauroyl Lactylate and (b 2) Isocetyl isostearate, and/or glycol oleate.
A printed three-dimensional phantom for use in an imaging technique based on an interaction of said printed three-dimensional phantom with an electromagnetic radiation, wherein said printed three-dimensional phantom comprises a plurality of volume elements, and wherein each of said volume elements has a volume, a spatial position, and an interaction intensity with the electromagnetic radiation such that interaction intensities of two neighbouring volume elements are distinguishable by means of the imaging technique, wherein said printed three-dimensional phantom comprises a plurality of first volume elements, and a plurality of second volume elements, wherein said first volume elements comprise a supporting material, wherein said second volume elements comprise the supporting material and a contrast material, wherein the supporting material is arranged in layers imprinted with distributions of the contrast material, and wherein by means of said contrast material said second volume elements exhibit a higher interaction intensity with said electromagnetic radiation than said first volume elements.
A high-voltage circuit breaking method, comprising the following steps: a) Providing an interruption chamber (2, 2a, 2b, 2c, 2d, 2e, 2f, 2g, 2h) filled with an extinguishing agent, said interruption chamber comprising one arcing zone and at least two separable arcing contact pieces (12, 12a, 13, 13a) that are arranged movably relative to one another; b) Separating the at least two arcing contact pieces (12, 12a, 13, 13a) from one another such that an electric arc is generated between said arcing contact pieces (12, 12a, 13, 13a) in the arcing zone; characterized by: c) Interrupting said electric arc in at least three interruption zones (29a, 29b; 29c, 29d; 29e, 29f; 29g, 29h, 29i, 29k), each interruption zone (29a, 29b; 29c, 29d; 29e, 29f; 29g, 29h, 29i, 29k) being an area in the arcing zone where the extinguishing agent flows at about sonic conditions in a flow nozzle of the interruption zone (29a, 29b; 29c, 29d; 29e, 29f; 29g, 29h, 29i, 29k) such that the electric arc is interrupted, wherein two groups of interruption zones are formed, wherein one group has at least one interruption zone (29a, 29b; 29c, 29d; 29e, 29f; 29g, 29h, 29i, 29k), and wherein both groups are separated by an outlet (20a, 20b, 20c, 20d) through which a portion of said extinguishing agent is led out of said arcing zone. a) Providing an interruption chamber (2, 2a, 2b, 2c, 2d, 2e, 2f, 2g, 2h) filled with an extinguishing agent, said interruption chamber comprising one arcing zone and at least two separable arcing contact pieces (12, 12a, 13, 13a) that are arranged movably relative to one another; b) Separating the at least two arcing contact pieces (12, 12a, 13, 13a) from one another such that an electric arc is generated between said arcing contact pieces (12, 12a, 13, 13a) in the arcing zone; c) Interrupting said electric arc in at least three interruption zones (29a, 29b; 29c, 29d; 29e, 29f; 29g, 29h, 29i, 29k), each interruption zone (29a, 29b; 29c, 29d; 29e, 29f; 29g, 29h, 29i, 29k) being an area in the arcing zone where the extinguishing agent flows at about sonic conditions in a flow nozzle of the interruption zone (29a, 29b; 29c, 29d; 29e, 29f; 29g, 29h, 29i, 29k) such that the electric arc is interrupted, wherein two groups of interruption zones are formed, wherein one group has at least one interruption zone (29a, 29b; 29c, 29d; 29e, 29f; 29g, 29h, 29i, 29k), and wherein both groups are separated by an outlet (20a, 20b, 20c, 20d) through which a portion of said extinguishing agent is led out of said arcing zone.
Process for manufacturing guillotine valves which comprise a slide-plate which can slide through the inside of a slot of the body to open or close a circular opening thus controlling the flow of the valve comprising a first step of moulding a monolithic metal body through casting, said body having a circular opening in its central part, characterized in that it further comprises the following steps: - machining a slot in the upper part of the body which internally joins the central hole with said upper part, and - machining the inside of the through-hole of the body and the slot by its inner part using machining tools (8,9) to create a notch for housing an elastomeric seat designed to house the perimeter of the slide-plate which can slide through the inside of the slot of the body to open or close the through-hole thus controlling the flow through the valve. - machining a slot in the upper part of the body which internally joins the central hole with said upper part, and - machining the inside of the through-hole of the body and the slot by its inner part using machining tools (8,9) to create a notch for housing an elastomeric seat designed to house the perimeter of the slide-plate which can slide through the inside of the slot of the body to open or close the through-hole thus controlling the flow through the valve.