mhurhangee/ep-ind-claims huggingface dataset:
A multi-waveguide optical structure, comprising: multiple waveguides (300, 402a, 402b, 402c, 500) stacked to intercept light passing sequentially through each waveguide (300, 402a, 402b, 402c, 500), each waveguide (300, 402a, 402b, 402c, 500) associated with a differing color and a differing depth of plane, each waveguide (300, 402a, 402b, 402c, 500) comprising: a first adhesive layer (304, 504), a substrate (102, 306, 506) having a first index of refraction, a first patterned layer (150, 302, 502) positioned such that the first adhesive layer (304, 504) is between the first patterned layer (150, 302, 502) and the substrate (102, 306, 506), the first adhesive layer (304, 504) providing adhesion between the first patterned layer (150, 302, 502) and the substrate (102, 306, 506), the first patterned layer (150, 302, 502) having a second index of refraction less than the first index of refraction, the first patterned layer (150, 302, 502) defining a diffraction grating, wherein a field of view associated with the waveguide (300, 402a, 402b, 402c, 500) is based on the first and the second indices of refraction, a second adhesive layer (310, 510) positioned such that the substrate (102, 306, 506) is between the first adhesive layer (304, 504) and the second adhesive layer (310, 510), and an anti-reflective layer (308, 508) positioned between the substrate (102, 306, 506) and the second adhesive layer (310, 510). a first adhesive layer (304, 504), a substrate (102, 306, 506) having a first index of refraction, a first patterned layer (150, 302, 502) positioned such that the first adhesive layer (304, 504) is between the first patterned layer (150, 302, 502) and the substrate (102, 306, 506), the first adhesive layer (304, 504) providing adhesion between the first patterned layer (150, 302, 502) and the substrate (102, 306, 506), the first patterned layer (150, 302, 502) having a second index of refraction less than the first index of refraction, the first patterned layer (150, 302, 502) defining a diffraction grating, wherein a field of view associated with the waveguide (300, 402a, 402b, 402c, 500) is based on the first and the second indices of refraction, a second adhesive layer (310, 510) positioned such that the substrate (102, 306, 506) is between the first adhesive layer (304, 504) and the second adhesive layer (310, 510), and an anti-reflective layer (308, 508) positioned between the substrate (102, 306, 506) and the second adhesive layer (310, 510).
A frame structure for a multi-level container handling and storage facility constructed by an array of basic structures comprising: at least two rows of spaced support columns, the spaced support columns in each row joined by at least one horizontal beam to form spaced adjacent beams at an intermediate level; wherein the spaced support columns are spaced at a distance allowing storage of at least one container therebetween below the intermediate level; and wherein the spaced adjacent beams are spaced at a distance matching the dimension of a container allowing storage of at least one container thereon above the intermediate level; characterized in that; the frame structure further comprises at least two rows of spaced location columns extending above the intermediate level, wherein spaced location columns in adjacent rows are spaced at a distance allowing storage of at least one container therebetween above the intermediate level; wherein at least one overhead bridge crane is mounted on runways in between each rows of support columns or location columns at each intermediate level to allow transport of containers below each respective intermediate level and below a vertically adjacent intermediate level therebelow. at least two rows of spaced support columns, the spaced support columns in each row joined by at least one horizontal beam to form spaced adjacent beams at an intermediate level; wherein the spaced support columns are spaced at a distance allowing storage of at least one container therebetween below the intermediate level; and wherein the spaced adjacent beams are spaced at a distance matching the dimension of a container allowing storage of at least one container thereon above the intermediate level; characterized in that; the frame structure further comprises at least two rows of spaced location columns extending above the intermediate level, wherein spaced location columns in adjacent rows are spaced at a distance allowing storage of at least one container therebetween above the intermediate level; wherein at least one overhead bridge crane is mounted on runways in between each rows of support columns or location columns at each intermediate level to allow transport of containers below each respective intermediate level and below a vertically adjacent intermediate level therebelow.
A method of reducing interference caused in a neighbouring cell (eNB B) by an aerial vehicle (Drone_A, Drone_B) in a mobile communications system, the method comprising the aerial vehicle steering radio transmissions of the aerial vehicle when the aerial vehicle is airborne to compensate for a tilt of the aerial vehicle such that a direction of the radio transmissions is adjusted to be directed vertically downward and the aerial vehicle adapting a beam width (BW_A, BW_B) of the radio transmissions characterized in that the beam width is adapted using a measure of an altitude (Alt_A, Alt_B) of the aerial vehicle above ground such that a footprint of the beam on the ground is controlled in relation to a cell size of a base station (eNB A) communicating with the aerial vehicle.
A gas turbine engine component comprising: an airfoil having a leading edge, a trailing edge, and pressure and suction side walls (74, 72) extending from the leading edge to the trailing edge, and wherein the airfoil extends from a base to a tip that defines a distal end surface of the airfoil, and wherein the airfoil is defined by a length extending in a direction from the leading edge to the trailing edge; and a shelf formed in the tip, the shelf extending from the pressure side wall, around the leading edge, to the suction side wall, and wherein the shelf defines a bottom surface that is spaced radially inwardly of the distal end surface, and including a shelf wall surface extending from the distal end surface to the bottom surface, and wherein a distance between the shelf wall surface and an outer surface of the pressure side wall varies along the length of the airfoil; wherein the shelf wall surface extends along the pressure side wall, around the leading edge, and terminates at an outer surface adjacent the upstream end of the suction side wall such that the shelf extends a greater distance along the pressure side wall than along the suction side wall an airfoil having a leading edge, a trailing edge, and pressure and suction side walls (74, 72) extending from the leading edge to the trailing edge, and wherein the airfoil extends from a base to a tip that defines a distal end surface of the airfoil, and wherein the airfoil is defined by a length extending in a direction from the leading edge to the trailing edge; and a shelf formed in the tip, the shelf extending from the pressure side wall, around the leading edge, to the suction side wall, and wherein the shelf defines a bottom surface that is spaced radially inwardly of the distal end surface, and including a shelf wall surface extending from the distal end surface to the bottom surface, and wherein a distance between the shelf wall surface and an outer surface of the pressure side wall varies along the length of the airfoil; wherein the shelf wall surface extends along the pressure side wall, around the leading edge, and terminates at an outer surface adjacent the upstream end of the suction side wall such that the shelf extends a greater distance along the pressure side wall than along the suction side wall
A mat assembly for use in construction and the like, comprising: a plurality of structural beams fabricated of composite plastics material and disposed in side-by-side arrangement; a plurality of flitch plates disposed between at least some of adjacent pairs of the structural plastic beams; a plurality of fasteners extending crosswise to the structural beams and flitch plates to secure them tightly together, and wherein the flitch plates increase the strength and stiffness of the mat assembly; wherein the beams and the flitch plates have cross holes (26, 28) which are aligned and in which the fasteners are received; characterised in that the cross holes of the flitch plates are elongated in a lengthwise direction of the mat assembly. a plurality of structural beams fabricated of composite plastics material and disposed in side-by-side arrangement; a plurality of flitch plates disposed between at least some of adjacent pairs of the structural plastic beams; a plurality of fasteners extending crosswise to the structural beams and flitch plates to secure them tightly together, and wherein the flitch plates increase the strength and stiffness of the mat assembly; wherein the beams and the flitch plates have cross holes (26, 28) which are aligned and in which the fasteners are received; characterised in that the cross holes of the flitch plates are elongated in a lengthwise direction of the mat assembly.
Intake manifold for a multitubular evaporator of a two-phase heat-transfer fluid type installation, wherein this manifold comprises a diffusion grille and a dispatcher with a generally conical shape centered on an axis and comprising a top and a base fixed to the diffusion grille that is respectively directed towards an upstream side and a downstream side of the dispatcher, wherein this dispatcher is characterized in that it also comprises a member pierced with a frustoconical bore centered on the axis of the dispatcher and which surrounds this dispatcher, and in that the section is the smallest section of the tapered bore and is directed towards the upstream side of the manifold, and in that the top of the dispatcher protrudes upstream from the frustoconical bore of the insert over a non-zero distance (d).
A low friction inlet nozzle for a turbo expander, comprising: • a nozzle cover ring, wherein the nozzle cover ring comprises a face, • a set of nozzle blades, wherein each nozzle blade comprises a nozzle first face and a nozzle second face, • a set of pressure springs, and • a set of axial loading bolts wherein the axial loading bolts are configured to accept all the force which the set of pressure springs induces between the nozzle cover ring and the first face of each one of the nozzle blades, wherein the pressure springs are configured to place a preload on the first face of each one of the nozzle blades, wherein the axial loading bolts are adjustable to reduce said preload by drawing the nozzle cover ring away from the first face of each one of the nozzle blades, thereby reducing the preload to zero, wherein, once the preload is reduced to zero, the axial loading bolts are further adjustable to produce a gap between the nozzle cover ring and the first face of each one of the nozzle blades, thereby locating the first face of each one of the nozzle blades at a predetermined distance away from the face of the nozzle cover ring. • a nozzle cover ring, wherein the nozzle cover ring comprises a face, • a set of nozzle blades, wherein each nozzle blade comprises a nozzle first face and a nozzle second face, • a set of pressure springs, and • a set of axial loading bolts wherein the axial loading bolts are configured to accept all the force which the set of pressure springs induces between the nozzle cover ring and the first face of each one of the nozzle blades, wherein the pressure springs are configured to place a preload on the first face of each one of the nozzle blades, wherein the axial loading bolts are adjustable to reduce said preload by drawing the nozzle cover ring away from the first face of each one of the nozzle blades, thereby reducing the preload to zero, wherein, once the preload is reduced to zero, the axial loading bolts are further adjustable to produce a gap between the nozzle cover ring and the first face of each one of the nozzle blades, thereby locating the first face of each one of the nozzle blades at a predetermined distance away from the face of the nozzle cover ring.
An electronic device, comprising: a housing, comprising a frame and a buffer structure, wherein the buffer structure is connected to the frame by overmolding; a channel, extended through the housing, wherein the channel is adjacent to the buffer structure and extended along a sidewall of the frame; and a flexible circuit, characterized in that the upper side of the housing comprises a hole through which said flexible circuit can be disposed to enter the channel and can be pulled out from the channel. a housing, comprising a frame and a buffer structure, wherein the buffer structure is connected to the frame by overmolding; a channel, extended through the housing, wherein the channel is adjacent to the buffer structure and extended along a sidewall of the frame; and a flexible circuit, characterized in that the upper side of the housing comprises a hole through which said flexible circuit can be disposed to enter the channel and can be pulled out from the channel.
A method for controlling a cooker, comprising: receiving a first manipulation signal for supplying energy into a cooking chamber using at least one heating source; determining if a second manipulation signal for generating steam supplied to the cooking chamber by an operation of a steam heater and a water supply pump, is inputted before a preset heating start time according to the first manipulation signal has arrived; initiating operation of at least one of a halogen heater, the convection heater, a convection motor, a lamp and a fan motor at the preset heating start time, when it is determined that the second manipulation signal is not inputted before the preset heating start time has arrived; determining if the second manipulation signal is inputted before heating end time has arrived; and initiating operation of a steam heater and a water supply pump at a time to generate steam by heating steam water when it is determined that the second manipulation signal is inputted before the heating end time has arrived. receiving a first manipulation signal for supplying energy into a cooking chamber using at least one heating source; determining if a second manipulation signal for generating steam supplied to the cooking chamber by an operation of a steam heater and a water supply pump, is inputted before a preset heating start time according to the first manipulation signal has arrived; initiating operation of at least one of a halogen heater, the convection heater, a convection motor, a lamp and a fan motor at the preset heating start time, when it is determined that the second manipulation signal is not inputted before the preset heating start time has arrived; determining if the second manipulation signal is inputted before heating end time has arrived; and initiating operation of a steam heater and a water supply pump at a time to generate steam by heating steam water when it is determined that the second manipulation signal is inputted before the heating end time has arrived.
A light absorption material comprising: a compound having a perovskite crystal structure represented by ABX 3 where the A site contains (NH 2) 2 CH +, the B site contains Pb 2+, and the X site contains I -, characterized in that the X site is partially deficient in I -, a ratio of the number of atoms of I to the number of atoms of Pb measured by an X-ray photoelectron spectroscopy is 2.7 or less, or a ratio of the number of atoms of I to the number of atoms of Pb measured by a Rutherford backscattering spectroscopy is 2.9 or less. a compound having a perovskite crystal structure represented by ABX 3 where the A site contains (NH 2) 2 CH +, the B site contains Pb 2+, and the X site contains I -, characterized in that the X site is partially deficient in I -, a ratio of the number of atoms of I to the number of atoms of Pb measured by an X-ray photoelectron spectroscopy is 2.7 or less, or a ratio of the number of atoms of I to the number of atoms of Pb measured by a Rutherford backscattering spectroscopy is 2.9 or less.
A security element for security papers, value documents and the like, having a micro-optical moiré magnification arrangement having - a motif image that consists of a planar periodic or at least locally periodic arrangement of a plurality of micromotif elements, and - a planar periodic or at least locally periodic arrangement of a plurality of microfocusing elements for the moiré-magnified viewing of the micromotif elements of the motif image, the motif image including two or more sub-regions having micromotif elements that differ from each other in their contrast, and the shape of the sub-regions forming a macroscopic piece of image information, in the form of characters, patterns or codes, that is perceptible due to the contrast differences in the micromotif elements, and wherein the contrast differences in the micromotif elements are produced by a variation in the line width and/or the line depth and/or the color of the micromotif elements, wherein the micromotif elements of the sub-regions each exhibit the same shape. - a motif image that consists of a planar periodic or at least locally periodic arrangement of a plurality of micromotif elements, and - a planar periodic or at least locally periodic arrangement of a plurality of microfocusing elements for the moiré-magnified viewing of the micromotif elements of the motif image,
A 3D scanner for recording the 3D topography of an object, the 3D scanner comprising: - an illumination unit configured for providing probe light for illuminating the object, where the probe light comprises a pattern of light rays; - an image sensor for acquiring one or more 2D images of light rays returning from the illuminated object; - an optical system (208, 808) comprising an optical element (214, 814) arranged such that the patterned probe light passes through the optical element when propagating towards the object from the illumination unit along an optical path, and a motorized rotation stage comprising a first part and a second part where the motorized rotation stage is configured for rotating the second part relative to the first part around a rotation axis of the motorized rotation stage, wherein the rotation axis of the motorized rotation stage and the optical path at the optical element are aligned; and - a device (213, 813) for changing the configuration of the optical system between a first and a second configuration by controlling the motorized rotation stage, where the change in configuration comprises a change in orientation of the optical element between a first orientation and a second orientation relative to the optical path of the probe light such that the change of configuration provides a shift in the position of the probe light pattern on the illuminated object; where the optical element is arranged on the second part of the motorized rotation stage with an acute angle relative to the optical path and such that the optical element is rotated around the optical path of the probe light when the second part is rotated around the rotation axis. - an illumination unit configured for providing probe light for illuminating the object, where the probe light comprises a pattern of light rays; - an image sensor for acquiring one or more 2D images of light rays returning from the illuminated object; - an optical system (208, 808) comprising an optical element (214, 814) arranged such that the patterned probe light passes through the optical element when propagating towards the object from the illumination unit along an optical path, and a motorized rotation stage comprising a first part and a second part where the motorized rotation stage is configured for rotating the second part relative to the first part around a rotation axis of the motorized rotation stage, wherein the rotation axis of the motorized rotation stage and the optical path at the optical element are aligned; and - a device (213, 813) for changing the configuration of the optical system between a first and a second configuration by controlling the motorized rotation stage, where the change in configuration comprises a change in orientation of the optical element between a first orientation and a second orientation relative to the optical path of the probe light such that the change of configuration provides a shift in the position of the probe light pattern on the illuminated object;
Hot-transfer adhesive element for sealing and gluing fabrics or other materials produced by screen printing process, characterized in that it comprises: a) flexible film doped with a substance promoting the release of the hot-transfer adhesive element during the application process or the release of at least one object during its application; b) flexible and elastic adhesive layer with a thickness ranging from 80 μm to 200 μm; and c) carrier adhesive, which is a cold adhesive positioned in the edges of the film, wherein the hot-transfer adhesive element further comprises at least one flexible paint layer having a thickness ranging from 100 μm to 150 μm, on which the adhesive layer is printed, and wherein said flexible paint layer is hiding the adhesive layer and containing the object. a) flexible film doped with a substance promoting the release of the hot-transfer adhesive element during the application process or the release of at least one object during its application; b) flexible and elastic adhesive layer with a thickness ranging from 80 μm to 200 μm; and c) carrier adhesive, which is a cold adhesive positioned in the edges of the film,
A method of continuously treating a substance in the form of divided solids, the method comprising the steps of:. introducing the substance into a closed enclosure in which there exists an ozonated atmosphere under pressure, the enclosure being shaped into a coil wound around a central shaft;. conveying the substance in the enclosure with continuous movement between an inlet of the enclosure and an outlet of the enclosure in such a manner that the substance is located continuously in the ozonated atmosphere while it is being conveyed in the enclosure, the substance being conveyed by vibration means (3, 6) causing the enclosure to vibrate; and. unloading the substance from the enclosure via the outlet after a single passage of the substance through the enclosure.. introducing the substance into a closed enclosure in which there exists an ozonated atmosphere under pressure, the enclosure being shaped into a coil wound around a central shaft;. conveying the substance in the enclosure with continuous movement between an inlet of the enclosure and an outlet of the enclosure in such a manner that the substance is located continuously in the ozonated atmosphere while it is being conveyed in the enclosure, the substance being conveyed by vibration means (3, 6) causing the enclosure to vibrate; and. unloading the substance from the enclosure via the outlet after a single passage of the substance through the enclosure.