mhurhangee/ep-ind-claims huggingface dataset:
Ironing device comprising an ironing board held by a support for arranging the board in a plurality of orientations in which the board serves as a support for a garment to be ironed in order to enable it to be treated by means of a smoothing and/or ironing tool, said support comprising a first hinge device for pivoting the board about a first horizontal pivot pin and a second hinge device for pivoting the board about a second pivot pin parallel to the first pivot pin, the pivoting of the board about the first pivot pin being able to take place independently of the pivoting of the board about the second pivot pin, the first pivot pin being arranged between the upper end and the lower end of the board when the board is in a vertical position, the second pivot pin being located below the lower end of the board, the second hinge device being held by at least one mast which extends vertically from a baseplate, the first hinge device being held by a frame which connects the second hinge device to the first hinge device, characterised in that the board comprises a front panel defining a front face of the board and a rear panel defining a rear face of the board, the frame extending at least partially into a space provided between the front panel and the rear panel.
A system for setting up communication between a Signal Equipment Room (SER, 102) and wayside devices, the system comprising: a master controller configured to receive a first analog command signal from the Signal Equipment Room (SER,102) over a first power line, wherein the master controller is configured to generate a digital command signal based on the first analog command signal; and a plurality of slave controllers configured to receive the digital command signal from the master controller over a second power line, wherein each of the plurality of slave controllers is configured to generate a second analog command signal based on the digital command signal, wherein each of the plurality of slave controllers is further configured to send the second analog command signal to a corresponding wayside device over a respective third power line, and characterised in that the second power line comprises a lower core power cable than the first and the third power line. a master controller configured to receive a first analog command signal from the Signal Equipment Room (SER,102) over a first power line, wherein the master controller is configured to generate a digital command signal based on the first analog command signal; and a plurality of slave controllers configured to receive the digital command signal from the master controller over a second power line, wherein each of the plurality of slave controllers is configured to generate a second analog command signal based on the digital command signal, wherein each of the plurality of slave controllers is further configured to send the second analog command signal to a corresponding wayside device over a respective third power line, and characterised in that the second power line comprises a lower core power cable than the first and the third power line.
A rotary compressor having two cylinders (6a, 6b) in which two compression elements (4a, 4b) having rolling pistons (8a, 8b) in the cylinders (6a, 6b) are placed in adjacent to each other while sandwiching a partition plate therebetween, a crankshaft which is rotated by an electrical element is inserted into a through hole of the partition plate, if the crankshaft rotates, the rolling pistons (8a, 8b) inserted into crankshaft eccentric portions (7a, 7b) eccentrically rotates, and the two cylinders (6a, 6b) compress operating fluid in the cylinders (6a, 6b) by the eccentric rotation of the rolling pistons (8a, 8b) in a hermetic container, an inner diameter φDc of the through hole is greater than an outer diameter φDb of one of the crankshaft eccentric portions (7a, 7b) and smaller than an outer diameter φDa of the other crankshaft eccentric portion (7a, 7b), characterized in that lubricating oil in a storing portion of a bottom of the hermetic container is supplied from a lower end of the crankshaft to the through hole through an interior of the crankshaft, and a region surrounded by the partition plate, the rolling pistons (8a, 8b) and the crankshaft is filled with the lubricating oil, and capacity of a compression chamber (11a, 11b) of one of the compression elements (4a, 4b) which compresses by the one crankshaft eccentric portion (7a, 7b) is set smaller than capacity of a compression chamber of the other compression element (4b, 4a). a crankshaft which is rotated by an electrical element is inserted into a through hole of the partition plate, if the crankshaft rotates, the rolling pistons (8a, 8b) inserted into crankshaft eccentric portions (7a, 7b) eccentrically rotates, and the two cylinders (6a, 6b) compress operating fluid in the cylinders (6a, 6b) by the eccentric rotation of the rolling pistons (8a, 8b) in a hermetic container, an inner diameter φDc of the through hole is greater than an outer diameter φDb of one of the crankshaft eccentric portions (7a, 7b) and smaller than an outer diameter φDa of the other crankshaft eccentric portion (7a, 7b), characterized in that lubricating oil in a storing portion of a bottom of the hermetic container is supplied from a lower end of the crankshaft to the through hole through an interior of the crankshaft, and a region surrounded by the partition plate, the rolling pistons (8a, 8b) and the crankshaft is filled with the lubricating oil, and capacity of a compression chamber (11a, 11b) of one of the compression elements (4a, 4b) which compresses by the one crankshaft eccentric portion (7a, 7b) is set smaller than capacity of a compression chamber of the other compression element (4b, 4a).
A mountable collar or frame for a hinged skylight, hatch and/or flue apparatus, comprising a frame housing or mountable housing, which is manufactured from sheet metal, has insulation and can be arranged on a roof surface, preferably on a flat roof, the frame housing or mountable housing being composed of shaped sheet metal strips to form a rectangular housing, and the individual shaped sheet metal strips having a horizontal roof leg, which can be laid on the roof surface and to which is adjoined a diagonally angled housing leg, at the upper end of which a support is provided for the skylight, characterised in that the support is formed from a downwardly open U, and, in order to form a thermally isolated support for the skylight, hatch or flue apparatus, a plastic, hollow profile is provided on the support for the skylight of the shaped sheet metal strip, which hollow profile can be clipped or latched on the support in a self-retaining manner.
A displacement detecting device comprising: a scale having a scale pattern with a certain arrangement pitch; an optical system configured to form an optical image of the scale pattern, wherein the optical system comprises a light source, and a lens configured to form an optical image of the scale pattern; and a light-receiving element array having a plurality of light-receiving elements which is configured so as to be movable relative to the scale and which is configured to detect the image of the scale pattern and to output a light/dark signal obtained from the scale pattern image; characterised in that it further comprises a distortion compensation circuit configured to correct the light/dark signal which is output from the light-receiving element array by eliminating distortion caused by the optical system by changing positions of the respective light-receiving elements virtually on the basis of pieces of position information of the respective light-receiving elements and a distortion table obtained from distortion information of the optical system; and a position analyzing circuit configured to analyze a position of the scale using the corrected light/dark signal, wherein the distortion compensation circuit is configured to correct the light/dark signal which is output from the light-receiving element array by eliminating distortion caused by the lens. a scale having a scale pattern with a certain arrangement pitch; an optical system configured to form an optical image of the scale pattern, wherein the optical system comprises a light source, and a lens configured to form an optical image of the scale pattern; and a light-receiving element array having a plurality of light-receiving elements which is configured so as to be movable relative to the scale and which is configured to detect the image of the scale pattern and to output a light/dark signal obtained from the scale pattern image; characterised in that it further comprises a distortion compensation circuit configured to correct the light/dark signal which is output from the light-receiving element array by eliminating distortion caused by the optical system by changing positions of the respective light-receiving elements virtually on the basis of pieces of position information of the respective light-receiving elements and a distortion table obtained from distortion information of the optical system; and a position analyzing circuit configured to analyze a position of the scale using the corrected light/dark signal, wherein the distortion compensation circuit is configured to correct the light/dark signal which is output from the light-receiving element array by eliminating distortion caused by the lens.
A tracheostomy tube introducer adapted for insertion within the bore of a tracheostomy tube, the introducer having a tapering patient end adapted to extend beyond the patient end of the tracheostomy tube and a machine end adapted to extend beyond the machine end of the tube to provide a machine end portion by which the introducer can be gripped when inserted in the tube, characterised in that at least a part of the introducer is provided with an S shape with a patient end region curved in one sense and a machine end region forming a smoothly continuous curve with the patient end region but in the opposite sense, that the introducer has a bore extending along a part of the length of the introducer and opening towards the machine end through a side opening, and in that the introducer has the side opening on the outside of the curve of the machine end region
A closure device for a product dispenser, comprising a cylindrical container neck, which surrounds a container opening to the container interior, and comprising a cap-like closure element, which is fastened to the container neck in a releasable manner by means of a screwing/locking connection in order to close the container opening, the closure device comprising the following elements: - at least one slotted guide formed on the contained neck and having an axial inlet opening, which at least one slotted guide interacts with an associated protrusion on the closure element, - at least one stop in the circumferential direction formed on the container neck, which at least one stop interacts with an associated counter stop on the closure element, - at least one ramp formed on the container neck and having an axial undercut, which at least one ramp interacts with an associated, radially elastically deformable locking protrusion on the closure element, characterized in that three ramps distributed unevenly over the container neck circumference are provided on the container neck, and that the ramps are positioned on the container neck circumference at β = 320-0°, 90-130°, and 190-230°, β = 0° describing the discharging direction in the installed state of the closure element. - at least one slotted guide formed on the contained neck and having an axial inlet opening, which at least one slotted guide interacts with an associated protrusion on the closure element, - at least one stop in the circumferential direction formed on the container neck, which at least one stop interacts with an associated counter stop on the closure element, - at least one ramp formed on the container neck and having an axial undercut, which at least one ramp interacts with an associated, radially elastically deformable locking protrusion on the closure element, characterized in that three ramps distributed unevenly over the container neck circumference are provided on the container neck, and that the ramps are positioned on the container neck circumference at β = 320-0°, 90-130°, and 190-230°, β = 0° describing the discharging direction in the installed state of the closure element.
A control device for an internal combustion engine comprising: a supercharger (60, 62) having a compressor provided in an intake air passage of the internal combustion engine, EGR means (50, 52, 54) for circulating exhaust gas of the internal combustion engine to the upstream side of the compressor in the intake air passage; an intake air bypass passage for connecting the upstream side of the compressor in the intake air passage to the downstream side of the compressor in the intake air passage; opening/closing means provided in the intake air bypass passage, and EGR amount control means for reducing the amount of exhaust gas circulated to the upstream side of the compressor when the opening/closing means opens the intake air bypass passage to a degree of opening exceeding a predetermined degree of opening of zero or larger, wherein the EGR amount control means includes EGR amount recovery means for, after the amount of exhaust gas has been reduced, increasing the amount of the exhaust gas from the reduced level when a predetermined time period has elapsed, the predetermined time period being equal to or larger than a time period required for the gas which is returned from the downstream side of the compressor to the upstream side of the compressor via the intake air bypass passage by the opening of the intake air bypass passage to pass through the position at which the upstream side of the compressor is connected to an EGR passage in the intake air passage. a supercharger (60, 62) having a compressor provided in an intake air passage of the internal combustion engine, EGR means (50, 52, 54) for circulating exhaust gas of the internal combustion engine to the upstream side of the compressor in the intake air passage; an intake air bypass passage for connecting the upstream side of the compressor in the intake air passage to the downstream side of the compressor in the intake air passage; opening/closing means provided in the intake air bypass passage, and EGR amount control means for reducing the amount of exhaust gas circulated to the upstream side of the compressor when the opening/closing means opens the intake air bypass passage to a degree of opening exceeding a predetermined degree of opening of zero or larger, wherein the EGR amount control means includes EGR amount recovery means for, after the amount of exhaust gas has been reduced, increasing the amount of the exhaust gas from the reduced level when a predetermined time period has elapsed, the predetermined time period being equal to or larger than a time period required for the gas which is returned from the downstream side of the compressor to the upstream side of the compressor via the intake air bypass passage by the opening of the intake air bypass passage to pass through the position at which the upstream side of the compressor is connected to an EGR passage in the intake air passage.
Process for the production of a setting and hardening accelerator for mineral binders, in particular hydraulic binders, comprising the following step: (i) reaction of a calcium compound CV with silica sol SL, where during the reaction the molar Si: Ca ratio is in the range from 0.06 to 0.095, and where the reaction of the calcium compound CV with the silica sol SL in step (i) takes place in the presence of a solvent. (i) reaction of a calcium compound CV with silica sol SL, where during the reaction the molar Si: Ca ratio is in the range from 0.06 to 0.095, and where the reaction of the calcium compound CV with the silica sol SL in step (i) takes place in the presence of a solvent.
An image capture device (300, 700) comprising: a housing (320, 710, 716), the housing having a front side and a back side; a first motor coupled to the housing (320, 710, 716) at a first position between the front side and the back side of the housing, the first motor being configured to horizontally turn the image capture device (300, 700) substantially 270 degrees about a vertical axis; a wide-angle lens (310, 704) within the housing (320, 710, 716) of the image capture device at a second position between the front side and the back side of the housing along the vertical axis, the second position being a no-parallax point, the wide-angle lens (310, 704) having a field of view away from the front side of the housing; an image sensor coupled to the housing (320, 710, 716) of the image capture device (300, 700) and configured to generate image signals from light received by the wide-angle lens (310, 704); a mount coupled to the first motor; a LiDAR coupled to the housing (320, 710, 716) of the image capture device (300, 700) at a third position, the LiDAR configured to generate laser pulses and generate depth signals; a second motor coupled to the housing (320, 710, 716) of the image capture device; and a mirror coupled to the second motor, the second motor configured to rotate the mirror around a horizontal axis, the mirror including an angled surface configured to receive the laser pulses from the LiDAR and direct the laser pulses about the horizontal axis. a housing (320, 710, 716), the housing having a front side and a back side; a first motor coupled to the housing (320, 710, 716) at a first position between the front side and the back side of the housing, the first motor being configured to horizontally turn the image capture device (300, 700) substantially 270 degrees about a vertical axis; a wide-angle lens (310, 704) within the housing (320, 710, 716) of the image capture device at a second position between the front side and the back side of the housing along the vertical axis, the second position being a no-parallax point, the wide-angle lens (310, 704) having a field of view away from the front side of the housing; an image sensor coupled to the housing (320, 710, 716) of the image capture device (300, 700) and configured to generate image signals from light received by the wide-angle lens (310, 704); a mount coupled to the first motor; a LiDAR coupled to the housing (320, 710, 716) of the image capture device (300, 700) at a third position, the LiDAR configured to generate laser pulses and generate depth signals; a second motor coupled to the housing (320, 710, 716) of the image capture device; and a mirror coupled to the second motor, the second motor configured to rotate the mirror around a horizontal axis, the mirror including an angled surface configured to receive the laser pulses from the LiDAR and direct the laser pulses about the horizontal axis.
A furcation tube for optical fibers, comprising: a polymer inner jacket; the inner jacket surrounded by a fiber and strength layer of fibers and strength members; and a polymer outer jacket surrounding the fiber and strength layer, characterized in that the fiber and strength layer is provided with strength members and fiber bundles; one of the strength members provided between each of the fiber bundles. a polymer inner jacket; the inner jacket surrounded by a fiber and strength layer of fibers and strength members; and a polymer outer jacket surrounding the fiber and strength layer, characterized in that the fiber and strength layer is provided with strength members and fiber bundles; one of the strength members provided between each of the fiber bundles.
A combustion chamber comprising an upstream end wall, at least one annular wall (40, 42), at least one fuel injector and at least one seal (58, 158, 258), the at least one annular wall (40, 42) being secured to the upstream end wall, the upstream end wall having at least one aperture, each fuel injector being arranged in a corresponding one of the apertures in the upstream end wall, each seal (58, 158, 258) being arranged in a corresponding one of the apertures in the upstream end wall and around the corresponding one of the fuel injectors, each seal (58, 158, 258) having an inner surface facing the corresponding one of the fuel injectors and an outer surface facing away from the corresponding one of the fuel injectors, each seal (58, 158, 258) abutting the corresponding one of the fuel injectors, the downstream end of each seal (58, 158, 258) increasing in diameter in a downstream direction, the upstream end of each seal (58, 158, 258) having a radially extending flange, the downstream end of each seal (58, 158, 258) being positioned axially downstream of the upstream end wall, each seal (58, 158, 258) being located in the corresponding one of the apertures in the upstream end wall such that an annular space is formed between the outer surface of the seal (58, 158, 258) and the upstream end wall, characterised in that each seal (158, 258) having a plurality of thermal conductors extending axially from the radially extending flange to the downstream end of the seal (158, 258).
Optical test bench, comprising an optical system that comprises: - a device for generating a planar light wave, referred to as a collimated light wave (OL col); - a device for diverting the collimated light beam in order provide a light wave, referred to as a test light wave (OL test), the diversion device having an adjustable focal distance; and - an optical or optronic observation system, referred to as a unit to be tested, intended to receive the test light wave (OL test) and to provide an image from the test light wave (OL test); the generation device comprising: - a light source emitting a source light wave (OL source), - a partially transparent screen having a certain pattern, the screen being disposed across the source light wave (OL source) so as to shut off part thereof and to allow another part thereof to pass, referred to as a target light wave (OL target); - a collimator arranged to receive the target light wave (OL target) and to collimate it to provide the collimated light wave (OL col); and a computing device intended to carry out one or more processing operations on the image; characterised in that the optical system further comprises a mirror arranged alongside the unit to be tested so as to receive part of the collimated light wave (OL col) without screening the unit to be tested and oriented perpendicular to the collimated light wave (OL col) so as to reflect it in its direction of arrival, towards the collimator so as to be able to be used for determining the mechanical reference axis of the unit to be tested by auto-collimation. - a device for generating a planar light wave, referred to as a collimated light wave (OL col); - a device for diverting the collimated light beam in order provide a light wave, referred to as a test light wave (OL test), the diversion device having an adjustable focal distance; and - an optical or optronic observation system, referred to as a unit to be tested, intended to receive the test light wave (OL test) and to provide an image from the test light wave (OL test); - a light source emitting a source light wave (OL source), - a partially transparent screen having a certain pattern, the screen being disposed across the source light wave (OL source) so as to shut off part thereof and to allow another part thereof to pass, referred to as a target light wave (OL target); - a collimator arranged to receive the target light wave (OL target) and to collimate it to provide the collimated light wave (OL col); and