mhurhangee/ep-ind-claims huggingface dataset:
A method of reducing cured linewidth of a green part produced by stereolithography, comprising: determining a first relationship between an overcure depth and a cured linewidth for a single exposure cure; determining a second relationship between the overcure depth and the cured linewidth for a multiple exposure cure; selecting an overcure depth where the cured linewidth in the second relationship is less than the cured linewidth in the first relationship; and providing a multiple exposure cure of a photo-polymerizable resin to reach the selected overcure depth. determining a first relationship between an overcure depth and a cured linewidth for a single exposure cure; determining a second relationship between the overcure depth and the cured linewidth for a multiple exposure cure; selecting an overcure depth where the cured linewidth in the second relationship is less than the cured linewidth in the first relationship; and providing a multiple exposure cure of a photo-polymerizable resin to reach the selected overcure depth.
A luminaire, comprising: a lampshade of a cylindrical structure and a heat sink of a cylindrical structure, the heat sink being arranged inside the lampshade; and a light source assembly comprising a soft substrate and LED light sources, wherein the LED light sources are arranged on the soft substrate, one surface, facing away from the LED light sources, of the soft substrate is attached to an outer wall of the heat sink and is wrapped around the outer wall of the heat sink, and the LED light sources are separated from an inner wall of the lampshade by a threshold distance; wherein a plurality of rows of LED light sources are arranged on the soft substrate on a periphery of the heat sink along a length direction of the heat sink, characterized in that the LED light sources in the same row are arranged in a wave shape along the length direction of the heat sink. a lampshade of a cylindrical structure and a heat sink of a cylindrical structure, the heat sink being arranged inside the lampshade; and a light source assembly comprising a soft substrate and LED light sources, wherein the LED light sources are arranged on the soft substrate, one surface, facing away from the LED light sources, of the soft substrate is attached to an outer wall of the heat sink and is wrapped around the outer wall of the heat sink, and the LED light sources are separated from an inner wall of the lampshade by a threshold distance; wherein a plurality of rows of LED light sources are arranged on the soft substrate on a periphery of the heat sink along a length direction of the heat sink, characterized in that the LED light sources in the same row are arranged in a wave shape along the length direction of the heat sink.
A resin pellet comprising respective components in a first (5A1, 5B1, 5C1) and a second compartmentalized zone, (5A2, 5B2, 5C2) wherein the first compartmentalized zone (5A1, 5B1, 5C1) and the second compartmentalized zone (5A2, 5B2, 5C2) are configured in a side-by-side configuration whereby neither zone surrounds the other zone in any plane of the pellet, said pellet being characterized in that it comprises an oxygen sensitive component present in the first compartmentalized zone, (5A1, 5B1, 5C1) an oxygen inert component present in the second compartmentalized zone (5A2, 5B2, 5C2) and a reaction promoter, said oxygen sensitive component becoming reactive to oxygen when in the presence of the promoter which is any compound that initiates and possibly catalyzes the reaction of the oxygen sensitive component with oxygen, and said oxygen inert component being a component which does not become reactive with oxygen when placed in contact with the promoter at levels that make the oxygen sensitive component an oxygen reactive component.
A method for manufacturing an apparatus (100, 200, 300, 400) for the processing of single molecules, said method comprising the following steps: a) providing a processing layer (PL, PL1, PL2); b) depositing a self-assembling resist (155, 355, 356, 357, 455, 456) on said processing layer and letting it self-assemble into a pattern of two phases (155a, 155b, 355a, 355b, 356a, 356b, 357a, 357b, 455a, 455b, 456a, 456b); c) removing selectively one phase (155a, 355a, 356a, 357a, 455a, 456a) of the self-assembling resist; d) generating at least one aperture (A, A1, A2, A3) in the processing layer (PL, PL1, PL2) through the mask of the remaining self-assembling resist (155b, 355b, 356b, 357b, 455b, 456b) wherein the apparatus comprises an electrical circuit adapted to sense electrical signals which occur when a molecule or different portions of a molecule pass through the aperture (A, A1, A2, A3). a) providing a processing layer (PL, PL1, PL2); b) depositing a self-assembling resist (155, 355, 356, 357, 455, 456) on said processing layer and letting it self-assemble into a pattern of two phases (155a, 155b, 355a, 355b, 356a, 356b, 357a, 357b, 455a, 455b, 456a, 456b); c) removing selectively one phase (155a, 355a, 356a, 357a, 455a, 456a) of the self-assembling resist; d) generating at least one aperture (A, A1, A2, A3) in the processing layer (PL, PL1, PL2) through the mask of the remaining self-assembling resist (155b, 355b, 356b, 357b, 455b, 456b)
A projection system for projecting a tape measure onto a surface, comprising: a projection apparatus embodied in a housing, the projection apparatus comprising: a processor in data communication with a networking device, at least one input/output device, and computer memory, the computer memory comprising a program having machine readable instructions that, when effected by processor, perform the following steps: (a) determining an edge of a surface to be measured; (b) projecting an initial image of a tape measure onto the surface, the initial image being based on a predetermined set of conditions; (c) determining a substantially perpendicular distance D1 between the projection apparatus and the surface; (d) determining a distance D2 between the projection apparatus and the edge of the surface; (e) calibrating the initial image based on the distances D1 and D2 determined in steps (c) and (d); and (f) projecting an updated image of a tape measure onto the surface, wherein the projection system further comprises a reference device in communication with the projection apparatus over a network, the reference device being placeable at the edge of the surface wherein the projection apparatus is adapted to receive a signal from the reference device to determine the distance D2. a processor in data communication with a networking device, at least one input/output device, and computer memory, the computer memory comprising a program having machine readable instructions that, when effected by processor, perform the following steps: (a) determining an edge of a surface to be measured; (b) projecting an initial image of a tape measure onto the surface, the initial image being based on a predetermined set of conditions; (c) determining a substantially perpendicular distance D1 between the projection apparatus and the surface; (d) determining a distance D2 between the projection apparatus and the edge of the surface; (e) calibrating the initial image based on the distances D1 and D2 determined in steps (c) and (d); and (f) projecting an updated image of a tape measure onto the surface, (a) determining an edge of a surface to be measured; (b) projecting an initial image of a tape measure onto the surface, the initial image being based on a predetermined set of conditions; (c) determining a substantially perpendicular distance D1 between the projection apparatus and the surface; (d) determining a distance D2 between the projection apparatus and the edge of the surface; (e) calibrating the initial image based on the distances D1 and D2 determined in steps (c) and (d); and (f) projecting an updated image of a tape measure onto the surface, wherein the projection system further comprises a reference device in communication with the projection apparatus over a network, the reference device being placeable at the edge of the surface wherein the projection apparatus is adapted to receive a signal from the reference device to determine the distance D2.
Kitchen appliance comprising a stirring unit (5, 6) and a pot, wherein an insert pot is provided, which can be inserted in the pot such that an interspace remains between the pot and the insert pot, wherein the stirring unit (5, 6) has a tool for blending and/or chopping that is located in the interspace when the insert pot is inserted, wherein a scraper is provided, the kitchen appliance being arranged such that the scraper can be moved relative to the insert pot, characterized in that the relative movement between the scraper and the insert pot is carried out by means of the stirring unit (5, 6).
Multifunctional thermal and acoustic insulation system for an aircraft, the system adapted to be received between an inner surface of an aircraft primary structure, such as an aircraft fuselage structure (2, 9), and a surface of a panel arrangement delimiting an aircraft cabin, the surface facing away from the aircraft cabin, and comprising: - a multilayer structure having a thermal and acoustic damping performance and comprising, in a stacked arrangement, o a continuous first outer layer, o a core layer and o a continuous second outer layer, wherein the core layer is received between the first and second outer layers (5, 6) so that the first and second outer layers (5, 6) cover the core layer at least on opposite sides thereof, and - a plurality of functional components (12, 13, 16, 17, 18, 19) formed integrally and non-exchangeably with the multilayer structure, wherein functions of the functional components (12, 13, 16, 17, 18, 19) are related to at least one of the thermal and the acoustic damping performance of the multilayer structure and wherein the functional components (12, 13, 16, 17, 18, 19) are provided on a first outer layer side of the core layer and/or on a second outer layer side of the core layer, wherein the multilayer structure comprises two or more modular panel-like blanket sections (21, 22) of the stacked layer arrangement and the functional components (12, 13, 16, 17, 18, 19) are integrated in each modular panel-like blanket section (21, 22); characterized in that functional components (12, 13, 16, 17, 18, 19) of two adjacent modular panel-like blanket sections (21, 22) are interconnectable via interconnecting points at adjacent edges (23, 24) of the modular panel-like blanket sections (21, 22) to allow joint control of said interconnected functional components (12, 13, 16, 17, 18, 19) of the two adjacent modular panel-like blanket sections (21, 22), and wherein the system further comprises a control unit for said joint control of said interconnected functional components (12, 13, 16, 17, 18, 19) of two adjacent modular panel-like blanket sections (21, 22) so that provision of a separate control unit for each modular panel-like section is avoided. - a multilayer structure having a thermal and acoustic damping performance and comprising, in a stacked arrangement, o a continuous first outer layer, o a core layer and o a continuous second outer layer, wherein the core layer is received between the first and second outer layers (5, 6) so that the first and second outer layers (5, 6) cover the core layer at least on opposite sides thereof, and o a continuous first outer layer, o a core layer and o a continuous second outer layer, - a plurality of functional components (12, 13, 16, 17, 18, 19) formed integrally and non-exchangeably with the multilayer structure, wherein functions of the functional components (12, 13, 16, 17, 18, 19) are related to at least one of the thermal and the acoustic damping performance of the multilayer structure and wherein the functional components (12, 13, 16, 17, 18, 19) are provided on a first outer layer side of the core layer and/or on a second outer layer side of the core layer,
A torque distributor system for distributing the torque coming from a power generator of a vehicle to a plurality of axles (2a, 2b, 2c, 2d) of said vehicle, said distributor system comprising a casing adapted to define a space configured to house a transmission, said casing defining a plurality of openings (9, 10, 11, 12, 13, 14) configured to house respective power take offs (15, 16, 17, 18, 19, 20) connected to each other by said transmission, a first power take off of said power take offs 15, 16, 17, 18, 19, 20) being connectable to said power generator and at least a second of said power take-offs (15, 16, 17, 18, 19, 20) being connectable to one or more of said axles (2a, 2b, 2c, 2d), wherein said transmission comprises a differential mechanism operatively interposed between said first and said second power take-off (15, 19), said second power take-off comprising a pair of connecting shafts (44, 45) connected to respective outputs of said differential mechanism, said system comprising a third power take-off connectable to a third axle of said vehicle, said third power take-off being operatively connected to a gear train of said mechanism differential and a fourth power take-off, said transmission comprising a further differential mechanism operatively interposed between said first and fourth power take-offs (15, 16). said distributor system comprising a casing adapted to define a space configured to house a transmission, said casing defining a plurality of openings (9, 10, 11, 12, 13, 14) configured to house respective power take offs (15, 16, 17, 18, 19, 20) connected to each other by said transmission, a first power take off of said power take offs 15, 16, 17, 18, 19, 20) being connectable to said power generator and at least a second of said power take-offs (15, 16, 17, 18, 19, 20) being connectable to one or more of said axles (2a, 2b, 2c, 2d), wherein said transmission comprises a differential mechanism operatively interposed between said first and said second power take-off (15, 19), said second power take-off comprising a pair of connecting shafts (44, 45) connected to respective outputs of said differential mechanism, said system comprising a third power take-off connectable to a third axle of said vehicle, said third power take-off being operatively connected to a gear train of said mechanism differential and a fourth power take-off, said transmission comprising a further differential mechanism operatively interposed between said first and fourth power take-offs (15, 16).
A scanning electron microscope comprising: a sample chamber; an electron source; an electron beam focusing column for directing electrons from the electron source toward the sample; a sample cell within the sample chamber for receiving a sample, the cell sufficiently enclosed to maintain a gas pressure different from that in the sample chamber; a gas inlet connecting the sample cell to a source of a gas; and at least one pressure limiting aperture, positioned between the electron source and the sample, for maintaining a lower pressure in the electron beam column than at the sample; characterised by a first stage (148, 342) for moving the sample cell and aligning the sample cell with the at least one pressure limiting aperture; a second stage (108, 344) positioned within the sample cell for moving the sample and aligning the sample with the electron beam; and a detector (122, 206, 340) positioned within the sample cell and apart from the second sample stage for detecting electrons emitted from the sample, the electrons emitted from the sample comprising an electron current, the electron current being amplified by a gas ionization cascade to produce an amplified imaging signal for forming an image of the sample. a sample chamber; an electron source; an electron beam focusing column for directing electrons from the electron source toward the sample; a sample cell within the sample chamber for receiving a sample, the cell sufficiently enclosed to maintain a gas pressure different from that in the sample chamber; a gas inlet connecting the sample cell to a source of a gas; and at least one pressure limiting aperture, positioned between the electron source and the sample, for maintaining a lower pressure in the electron beam column than at the sample; characterised by a first stage (148, 342) for moving the sample cell and aligning the sample cell with the at least one pressure limiting aperture; a second stage (108, 344) positioned within the sample cell for moving the sample and aligning the sample with the electron beam; and a detector (122, 206, 340) positioned within the sample cell and apart from the second sample stage for detecting electrons emitted from the sample, the electrons emitted from the sample comprising an electron current, the electron current being amplified by a gas ionization cascade to produce an amplified imaging signal for forming an image of the sample.
A two-dimensional hydrogen boride-containing sheet, comprising: a two-dimensional network that consists of n (n ≥ 4), wherein in a X-ray photoelectron spectroscopy, a spectrum showing a peak attributable to B1s of a negatively charged boron at 188 eV and no peak attributable to magnesium is obtained, and in an electron energy loss spectroscopy, a spectrum showing a peak attributable to sp2 structure of boron at 191 eV is obtained. in a X-ray photoelectron spectroscopy, a spectrum showing a peak attributable to B1s of a negatively charged boron at 188 eV and no peak attributable to magnesium is obtained, and in an electron energy loss spectroscopy, a spectrum showing a peak attributable to sp2 structure of boron at 191 eV is obtained.
A glazing system for a building comprising a glazing panel, a support and an attachment assembly for attaching the glazing panel to the support, the attachment assembly comprising a mounting secured to the support and a glazing fitting (13, 33) secured to the glazing panel, the mounting comprising a mounting member and the glazing fitting comprising a hook portion (19, 35), the mounting being connected to the glazing fitting by a connection between the hook portion and the mounting member, characterised in that the attachment assembly further comprises a compressible shock absorber that allows the attachment assembly to move relative to the support upon applying an impact to the glazing panel, thereby improving the impact resistance of the glazing panel, and wherein the mounting is secured to the support by a securing member that passes through a bore in the support, and the shock absorber surrounds the securing member, further wherein the shock absorber is located in the bore in the support.
A piston for an internal combustion engine, the piston comprising: - a first groove arranged on an outer circumference of the piston to receive a first scraper ring; - a second groove arranged on the outer circumference of the piston to receive a second scraper ring, wherein the second groove is arranged closer to a piston crown of the piston than the first groove; and - a drain channel arranged adjacent to the second groove and extending inwardly from the second groove into the piston. - a first groove arranged on an outer circumference of the piston to receive a first scraper ring; - a second groove arranged on the outer circumference of the piston to receive a second scraper ring, wherein the second groove is arranged closer to a piston crown of the piston than the first groove; and - a drain channel arranged adjacent to the second groove and extending inwardly from the second groove into the piston.
A computer-assisted method of providing control data for an additive manufacturing apparatus for the manufacturing of a three-dimensional object, wherein the object is manufactured using the additive manufacturing apparatus by applying a building material layer upon layer and solidifying the building material by supplying radiation energy to locations in each layer associated with the cross-section of the object in this layer by scanning these locations with at least one radiation impact region according to a set of energy exposure parameter values along a number of solidification paths, the method of providing control data comprising: a first step of accessing computer-based model data of at least a portion of the object to be manufactured, a second step of generating at least one data model of a region of a building material layer to be selectively solidified for the manufacturing of the at least one object portion, wherein in the data model a solidification of the building material by moving at least one radiation impact region along at least one solidification path is specified, wherein it is specified that during a change of a velocity vector of the movement of a radiation impact region on the building material along the solidification path, at least once at least one value of an energy exposure parameter from the set of energy exposure parameter values is changed, wherein by changing at least one value of an energy exposure parameter the intensity distribution within a bundle of beams serving for the supply of the radiation energy to the radiation impact region is changed, and a third step of providing control data corresponding to the at least one data model generated in the second step for generating a control data set for the additive manufacturing apparatus. a first step of accessing computer-based model data of at least a portion of the object to be manufactured, a second step of generating at least one data model of a region of a building material layer to be selectively solidified for the manufacturing of the at least one object portion, wherein in the data model a solidification of the building material by moving at least one radiation impact region along at least one solidification path is specified, wherein it is specified that during a change of a velocity vector of the movement of a radiation impact region on the building material along the solidification path, at least once at least one value of an energy exposure parameter from the set of energy exposure parameter values is changed, wherein by changing at least one value of an energy exposure parameter the intensity distribution within a bundle of beams serving for the supply of the radiation energy to the radiation impact region is changed, and a third step of providing control data corresponding to the at least one data model generated in the second step for generating a control data set for the additive manufacturing apparatus.