mhurhangee/ep-ind-claims huggingface dataset:
A method for coupling an optical fibre bundle to an optical conversion element, wherein the optical conversion element and the optical fibre bundle are embedded in a transparent potting compound; wherein the optical fibre bundle is introduced into a sleeve from one side; wherein, for introducing the optical fibre cable, the cable sheath is removed at a front end portion so as to expose the optical fibre bundle, and the cable consisting of the cable sheath and the optical fibre bundle is introduced into the sleeve; and wherein the optical conversion element is introduced into the sleeve from another side, which sleeve comprises a section that has a conical shape, with a substantially cylindrical section (5, 7) adjoining said conical section on both ends thereof; and wherein the sleeve is filled with a curable transparent potting compound such that the optical conversion element and the optical fibre bundle are embedded in the potting compound; wherein the optical conversion element is introduced into the sleeve, then the sleeve is filled with the potting compound, then the optical fibre bundle is introduced, and then the potting compound is cured, and such that the optical fibre bundle covered by a sheath is arranged on one side of the conical section and on the opposite side the optical fibre bundle is embedded in the potting compound. wherein the optical fibre bundle is introduced into a sleeve from one side; wherein, for introducing the optical fibre cable, the cable sheath is removed at a front end portion so as to expose the optical fibre bundle, and the cable consisting of the cable sheath and the optical fibre bundle is introduced into the sleeve; and wherein the optical conversion element is introduced into the sleeve from another side, which sleeve comprises a section that has a conical shape, with a substantially cylindrical section (5, 7) adjoining said conical section on both ends thereof; and wherein the sleeve is filled with a curable transparent potting compound such that the optical conversion element and the optical fibre bundle are embedded in the potting compound; wherein the optical conversion element is introduced into the sleeve, then the sleeve is filled with the potting compound, then the optical fibre bundle is introduced, and then the potting compound is cured, and such that the optical fibre bundle covered by a sheath is arranged on one side of the conical section and on the opposite side the optical fibre bundle is embedded in the potting compound.
A method comprising: determining, in a communication device of a first basic service set comprising a group of communication devices of a wireless telecommunication network, a primary channel of a second basic service set different from said first basic service set; causing transmission of channel identification information defining a location of at least one channel of the first basic service set from the communication device to the second basic service set on the determined primary channel of the second basic service set, wherein the determined primary channel of the second basic service set is different from a primary channel of the first basic service set, and wherein the channels are frequency channels. determining, in a communication device of a first basic service set comprising a group of communication devices of a wireless telecommunication network, a primary channel of a second basic service set different from said first basic service set; causing transmission of channel identification information defining a location of at least one channel of the first basic service set from the communication device to the second basic service set on the determined primary channel of the second basic service set, wherein the determined primary channel of the second basic service set is different from a primary channel of the first basic service set, and wherein the channels are frequency channels.
A method of simultaneously measuring n overlay errors in a structure with a number m of periodic patterns (202, 204, 206), the method comprising: illuminating a target with incident radiation, the target having a plurality of diffraction based overlay pads (210, 220, 230), each diffraction based overlay pad having the same number m of periodic patterns (202, 204, 206) as the structure, wherein the target is illuminated with obliquely incident radiation and the target has n+ 1 diffraction based overlay pads (210, 220, 230) or the target is illuminated with normally incident radiation and the target has n+2 diffraction based overlay pads (210, 220, 230), and wherein each diffraction based overlay pad includes a programmed shift between each pair of periodic patterns (202, 204, 206) in the number m of periodic patterns (202, 204, 206); detecting radiation from the target after the incident radiation interacts with the plurality of diffraction based pads; and using the detected radiation from each of the plurality of diffraction based overlay pads (210, 220, 230) to simultaneously determine the n overlay errors based on the programmed shift between each pair of periodic patterns (202, 204, 206), characterised in that n ≥ 2 and m=n+1. illuminating a target with incident radiation, the target having a plurality of diffraction based overlay pads (210, 220, 230), each diffraction based overlay pad having the same number m of periodic patterns (202, 204, 206) as the structure, wherein the target is illuminated with obliquely incident radiation and the target has n+ 1 diffraction based overlay pads (210, 220, 230) or the target is illuminated with normally incident radiation and the target has n+2 diffraction based overlay pads (210, 220, 230), and wherein each diffraction based overlay pad includes a programmed shift between each pair of periodic patterns (202, 204, 206) in the number m of periodic patterns (202, 204, 206); detecting radiation from the target after the incident radiation interacts with the plurality of diffraction based pads; and using the detected radiation from each of the plurality of diffraction based overlay pads (210, 220, 230) to simultaneously determine the n overlay errors based on the programmed shift between each pair of periodic patterns (202, 204, 206),
A system for combining the voltage output of multiple photovoltaic sources to a load (101,102), the system comprising: a plurality of photovoltaic sources; a set of contacts (81-84,181-184), each of the contacts (81-84,181-184) having one side coupled to the one of the plurality of photovoltaic sources, wherein the other side of the contacts (81-84,181-184) are coupled together to combine the output of the photovoltaic sources to an output interface, the output interface being coupled to the load (101,102); characterized by the system further comprising a set of fuses (51-54,151-154), each having one side coupled to one of the plurality of photovoltaic sources and another side coupled to one of the set of contacts (81-84,181-184) a set of diodes (61-64,161-164), each of the diodes (61-64,161-164) coupled to one fuse of the set of fuses (51-54,151-154) respectively and forming a current path around the set of contacts (81-84,181-184); and a single transistor (70,170) coupled to each of the diodes (61-64,161-164) and the output interface, the transistor (70,170) having an on state completing the flow of current through the diodes (61-64,161-164) around the set of contacts (81-84,181-184) to the load interface. a plurality of photovoltaic sources; a set of contacts (81-84,181-184), each of the contacts (81-84,181-184) having one side coupled to the one of the plurality of photovoltaic sources, wherein the other side of the contacts (81-84,181-184) are coupled together to combine the output of the photovoltaic sources to an output interface, the output interface being coupled to the load (101,102); a set of fuses (51-54,151-154), each having one side coupled to one of the plurality of photovoltaic sources and another side coupled to one of the set of contacts (81-84,181-184) a set of diodes (61-64,161-164), each of the diodes (61-64,161-164) coupled to one fuse of the set of fuses (51-54,151-154) respectively and forming a current path around the set of contacts (81-84,181-184); and a single transistor (70,170) coupled to each of the diodes (61-64,161-164) and the output interface, the transistor (70,170) having an on state completing the flow of current through the diodes (61-64,161-164) around the set of contacts (81-84,181-184) to the load interface.
Method of forming a multi-ply web in a fiber web machine, comprising feeding different pulp suspensions to diffusers (13, 15, 17, 19, 21) of a multi-layer headbox, guiding the different pulp suspensions through the diffusers (13, 15, 17, 19, 21) of the multi-layer headbox to eject them onto a wire of a forming section, the wire forming a closed loop, dewatering the liquid substances to form a filler ply in the form of an at least three-ply web (51, 53, 55), merging the at least three-ply web (51, 52, 55) with a second web (57, 59) formed at a second head box ejecting pulp suspension on a wire of a second forming section, and merging the at least three-ply (51, 53, 55) web with a third web formed at a third head box ejecting pulp suspension on a wire of a third forming section, wherein the third web is arranged on a side of the three-ply web (51, 53, 55) opposite to that where the second web is arranged characterized in that the properties of the stock characteristics of at least at least one surface layer (51, 53) of the at least three-ply web (51, 53, 55) and the properties of the stock characteristics of the second web or the third web correspond to each other. feeding different pulp suspensions to diffusers (13, 15, 17, 19, 21) of a multi-layer headbox, guiding the different pulp suspensions through the diffusers (13, 15, 17, 19, 21) of the multi-layer headbox to eject them onto a wire of a forming section, the wire forming a closed loop, dewatering the liquid substances to form a filler ply in the form of an at least three-ply web (51, 53, 55), merging the at least three-ply web (51, 52, 55) with a second web (57, 59) formed at a second head box ejecting pulp suspension on a wire of a second forming section, and merging the at least three-ply (51, 53, 55) web with a third web formed at a third head box ejecting pulp suspension on a wire of a third forming section, wherein the third web is arranged on a side of the three-ply web (51, 53, 55) opposite to that where the second web is arranged characterized in that the properties of the stock characteristics of at least at least one surface layer (51, 53) of the at least three-ply web (51, 53, 55) and the properties of the stock characteristics of the second web or the third web correspond to each other.
A method for producing a light-emitting display device, comprising: (i) forming a film of a light-transmissive resin material on a substrate having a single-layered structure over which a reflective metal and a semi-transparent member are disposed in at least one of a plurality of pixel regions corresponding to a red, green, and blue such that the light-transmissive resin material is in the optical path between the reflective metal and the semi-transparent member, characterized by: (ii) curing part of the film of the light-transmissive resin material to form a light-transmissive resin layer, the part being in a region including the at least one pixel region, and (iii) developing the light-transmissive resin layer after the curing, to form an optical path length-adjusting layer (3,5). (i) forming a film of a light-transmissive resin material on a substrate having a single-layered structure over which a reflective metal and a semi-transparent member are disposed in at least one of a plurality of pixel regions corresponding to a red, green, and blue such that the light-transmissive resin material is in the optical path between the reflective metal and the semi-transparent member, characterized by: (ii) curing part of the film of the light-transmissive resin material to form a light-transmissive resin layer, the part being in a region including the at least one pixel region, and (iii) developing the light-transmissive resin layer after the curing, to form an optical path length-adjusting layer (3,5).
A chlorinated polyolefin resin comprising at least a hydroxyl group, carbonyl group, and a methylene group wherein: the chlorinated polyolefin resin exhibits, in infrared spectroscopy spectrum measurement, a peak area ratio A/B × 100 of 10% or higher, a peak area ratio C/B × 100 of 30 to 80%, and a peak area ratio A/C × 100 of 30% or higher, wherein "A" is an area of a peak resulting from hydroxyl groups and is generally the area of a peak at a wavelength of 3,265 cm -1 to 3,616 cm -1, "B" is an area of a peak resulting from methylene groups and is generally the area of a peak at a wavelength of 1,400 cm -1 to 1,500 cm -1, and "C" is an area of a peak resulting from carbonyl groups and is generally the area of a peak at a wavelength of 1,657 cm -1 to 1,845 cm -1, wherein the infrared spectroscopy spectrum is measured by applying a chloroform solution of the resin to a KBr plate, then drying, and measuring its infrared absorption spectrum using an infrared spectrophotometer; and a content of chlorine is 10 to 50% by weight. the chlorinated polyolefin resin exhibits, in infrared spectroscopy spectrum measurement, a peak area ratio A/B × 100 of 10% or higher, a peak area ratio C/B × 100 of 30 to 80%, and a peak area ratio A/C × 100 of 30% or higher, wherein "A" is an area of a peak resulting from hydroxyl groups and is generally the area of a peak at a wavelength of 3,265 cm -1 to 3,616 cm -1, "B" is an area of a peak resulting from methylene groups and is generally the area of a peak at a wavelength of 1,400 cm -1 to 1,500 cm -1, and "C" is an area of a peak resulting from carbonyl groups and is generally the area of a peak at a wavelength of 1,657 cm -1 to 1,845 cm -1, wherein the infrared spectroscopy spectrum is measured by applying a chloroform solution of the resin to a KBr plate, then drying, and measuring its infrared absorption spectrum using an infrared spectrophotometer; and a content of chlorine is 10 to 50% by weight.
A wound dressing (110, 300, 400, 500, 2100, 3400, 3900) comprising: an acquisition distribution layer (3440, 3740, 3940); wherein the acquisition distribution layer (3440, 3740, 3940) is configured to horizontally wick fluid as the fluid is absorbed upward through the wound dressing (110, 300, 400, 500, 2100, 3400, 3900); an absorbent layer (402, 2110, 3430) over the acquisition distribution layer (3440, 3740,3940); a backing layer (2140, 3410) above the absorbent layer (402, 2110, 3430); and characterised in that a fluidic connector (721, 731, 2410, 2420, 3500) connects the backing layer (2140, 3410) to a source of negative pressure. an acquisition distribution layer (3440, 3740, 3940); wherein the acquisition distribution layer (3440, 3740, 3940) is configured to horizontally wick fluid as the fluid is absorbed upward through the wound dressing (110, 300, 400, 500, 2100, 3400, 3900); an absorbent layer (402, 2110, 3430) over the acquisition distribution layer (3440, 3740,3940); a backing layer (2140, 3410) above the absorbent layer (402, 2110, 3430); and characterised in that a fluidic connector (721, 731, 2410, 2420, 3500) connects the backing layer (2140, 3410) to a source of negative pressure.
A fan drive, in particular for a motor vehicle, comprising a drive shaft, a fluid friction clutch and a fan, wherein the fluid friction clutch comprises a drive pulley and a housing having a front housing part and a rear housing part, the housing being mounted on the drive shaft via at least one bearing and wherein air flows to the fluid friction clutch and the fan in the flow direction, characterised in that an air conveyance arrangement is arranged in the flow direction behind the fluid friction clutch, wherein the flow direction is a flow direction of an air flow impacting the front housing part of the clutch, wherein the air conveyance arrangement is connected to the drive shaft in a torque-proof manner.
A heart pump comprising: a catheter assembly comprising a proximal end, a distal end, and an elongate body extending therebetween; an impeller assembly coupled with the elongate body and comprising an impeller shaft and an impeller disposed on the impeller shaft; a bearing disposed between a proximal end of the impeller shaft and the distal end of the catheter assembly; and an infusant inflow port disposed distal of the bearing and configured to direct infusant radially inwardly toward the impeller shaft, wherein an infusant inflow channel is provided to convey infusant from the proximal end of the elongate body to the infusant inflow port, the infusant inflow channel being disposed at a radial position spaced from a central longitudinal axis of the elongate body, an outer surface of the impeller shaft being disposed between the radial position of the infusant inflow channel and the central longitudinal axis, and wherein the bearing is a first bearing and the heart pump further comprises a second bearing disposed distally of the first bearing, characterised in that the first bearing has a length greater than a length of the second bearing. a catheter assembly comprising a proximal end, a distal end, and an elongate body extending therebetween; an impeller assembly coupled with the elongate body and comprising an impeller shaft and an impeller disposed on the impeller shaft; a bearing disposed between a proximal end of the impeller shaft and the distal end of the catheter assembly; and an infusant inflow port disposed distal of the bearing and configured to direct infusant radially inwardly toward the impeller shaft, wherein an infusant inflow channel is provided to convey infusant from the proximal end of the elongate body to the infusant inflow port, the infusant inflow channel being disposed at a radial position spaced from a central longitudinal axis of the elongate body, an outer surface of the impeller shaft being disposed between the radial position of the infusant inflow channel and the central longitudinal axis, and wherein the bearing is a first bearing and the heart pump further comprises a second bearing disposed distally of the first bearing, characterised in that the first bearing has a length greater than a length of the second bearing.
An electromagnetic wave detection device (10, 10A, 10B, 10C, 40, 60) comprising: a support body (11, 41) having one surface to be irradiated with an electromagnetic wave of wavelength λ; at least one electromagnetic wave detection element (20, 20A, 71) provided on said support body (11, 41) and configured to detect the electromagnetic wave of wavelength λ; and two waveguide structures (31, 31A, 31B, 51) each of which is supported on said support body (11, 41), has a first aperture opened to a side of said one surface of said support body (11, 41), and forms a waveguide that narrows in a direction away from said one surface, wherein said two waveguide structures (31, 31A, 31B, 51) are arranged to sandwich said at least one electromagnetic wave detection element (20, 20A, 71) when viewed from a direction perpendicular to said one surface of said support body (11, 41), characterized in that a distance L1 between the first apertures in said two waveguide structures (31, 31A, 31B, 51) satisfies a relationship of L1<(λ/2). a support body (11, 41) having one surface to be irradiated with an electromagnetic wave of wavelength λ; at least one electromagnetic wave detection element (20, 20A, 71) provided on said support body (11, 41) and configured to detect the electromagnetic wave of wavelength λ; and two waveguide structures (31, 31A, 31B, 51) each of which is supported on said support body (11, 41), has a first aperture opened to a side of said one surface of said support body (11, 41), and forms a waveguide that narrows in a direction away from said one surface, wherein said two waveguide structures (31, 31A, 31B, 51) are arranged to sandwich said at least one electromagnetic wave detection element (20, 20A, 71) when viewed from a direction perpendicular to said one surface of said support body (11, 41), characterized in that a distance L1 between the first apertures in said two waveguide structures (31, 31A, 31B, 51) satisfies a relationship of L1<(λ/2).
An aircraft comprising a gas turbine engine, a fuselage and at least one wing extending from the fuselage; the gas turbine engine having a nacelle attached to the at least one wing, a fan received within the nacelle; and an engine core received within the nacelle; and the nacelle having a longitudinal centre line, an inboard end defined as an end proximate a fuselage, an outboard end defined as an end that is azimuthally opposite to the inboard end, a leading edge, a trailing edge, and a nacelle length (L nac) defined as an axial distance between the leading edge and the trailing edge; wherein an azimuthal angle (θ) is defined about the longitudinal centre line, and wherein the nacelle length (L nac) varies azimuthally; the aircraft being characterised in that the nacelle length (L nac) decreases azimuthally at the leading edge of the nacelle from the inboard end of the nacelle to the outboard end of the nacelle. the gas turbine engine having a nacelle attached to the at least one wing, a fan received within the nacelle; and an engine core received within the nacelle; and the nacelle having a longitudinal centre line, an inboard end defined as an end proximate a fuselage, an outboard end defined as an end that is azimuthally opposite to the inboard end, a leading edge, a trailing edge, and a nacelle length (L nac) defined as an axial distance between the leading edge and the trailing edge; wherein an azimuthal angle (θ) is defined about the longitudinal centre line, and wherein the nacelle length (L nac) varies azimuthally; the aircraft being characterised in that the nacelle length (L nac) decreases azimuthally at the leading edge of the nacelle from the inboard end of the nacelle to the outboard end of the nacelle.