mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a wind turbine blade, the method comprises the steps of: - laying up a number of first layers of a first fibre material in a mould, the first layers defining an outer side surface of the wind turbine blade, - arranging a number of core elements of a core material on top of said first number of layers, - further laying up a number of second layers of the first fibre material on top of at least said number of core elements, the second layers defining an inner side surface of the wind turbine blade, - infusing said first fibre material and core elements with a first resin, - substantially curing said first resin to form a sandwich structure of the wind turbine blade, - arranging a number of main laminate components in a corresponding number of recesses formed by said number of core elements, - attaching said main laminate components to the sandwich structure to form a blade shell part of the wind turbine blade, characterised in that - a central core element is arranged between least two side core elements (23a, 23b), wherein said at least two side core elements (23a, 23b) are spaced apart from the central core element in a chordwise direction to form a first recess for receiving a first main laminate component and a second recess for receiving a second main laminate component, and - the central core element has a top side, a bottom side and two opposite edge surfaces, wherein uncured resin is guided from a central inlet along the central core element via an integrated resin flow network in the central core element and, optionally, further into the first and second main laminates (28a, 28b). - laying up a number of first layers of a first fibre material in a mould, the first layers defining an outer side surface of the wind turbine blade, - arranging a number of core elements of a core material on top of said first number of layers, - further laying up a number of second layers of the first fibre material on top of at least said number of core elements, the second layers defining an inner side surface of the wind turbine blade, - infusing said first fibre material and core elements with a first resin, - substantially curing said first resin to form a sandwich structure of the wind turbine blade, - arranging a number of main laminate components in a corresponding number of recesses formed by said number of core elements, - attaching said main laminate components to the sandwich structure to form a blade shell part of the wind turbine blade, characterised in that - a central core element is arranged between least two side core elements (23a, 23b), wherein said at least two side core elements (23a, 23b) are spaced apart from the central core element in a chordwise direction to form a first recess for receiving a first main laminate component and a second recess for receiving a second main laminate component, and - the central core element has a top side, a bottom side and two opposite edge surfaces, wherein uncured resin is guided from a central inlet along the central core element via an integrated resin flow network in the central core element and, optionally, further into the first and second main laminates (28a, 28b).
A wrappable textile sleeve (10, 110, 210), comprising: an elongate, wrappable wall (14, 114, 214) extending along a longitudinal axis between opposite ends (18, 20), said wall (14, 114, 214) having opposite free edges (22, 24) extending lengthwise along said longitudinal axis between said opposite ends (18, 20), said wall (14, 114, 214) being knit from at least one warp yarn (26, 26') extending lengthwise between said opposite ends (18, 20) and a plurality of weft yarns (28, 29) laid-in and fixed in position by said at least one warp yarn (26, 26'), wherein said at least one warp yarn (26, 26') has closed chain stitches looped about said weft yarns (28, 29) or has open chain stitches looped partially about said weft yarns (28, 29), said weft yarns (28, 29) extending circumferentially between said opposite free edges (22, 24), said weft yarns form a plurality of discrete, annular bands (A, B) alternating along said longitudinal axis, wherein the weft yarn of one of said adjacent bands has a first diameter and the weft yarn of the other of said adjacent bands has a second diameter, said first diameter being less than said second diameter.
An agent for use in a method for prevention and/or treatment of an allergic disease selected from pollinosis, allergic rhinitis, allergic conjunctivitis, atopic dermatitis, and asthma, comprising a low-molecular-weight polysulfated hyaluronic acid derivative represented by the following general formula or, or a pharmaceutically acceptable salt thereof as an active ingredient: wherein n represents a number of 0 to 15; X represents the following formula (a) or (b); Y represents the following formula (c), (d) or (e); R's each independently represent a hydrogen atom or an SO 3 H group, provided that SO 3 H groups account for 80 to 100% of the total number of R's; R 1 represents -OH, -OSO 3 H, or -NZ 1 Z 2, wherein Z 1 and Z 2 each independently represent a hydrogen atom, -SO 3 H, an optionally substituted C 1-6 alkyl group, an optionally substituted aryl group, an optionally substituted aralkyl group, or an optionally substituted heteroaryl group, or -NZ 1 Z 2 collectively represents an amino acid residue or a peptide residue; and *'s each represent a bonding site with an oxygen atom; wherein n represents a number of 0 to 15; W represents the following formula (f) or (g); R's each independently represent a hydrogen atom or an SO 3 H group, provided that SO 3 H groups account for 80 to 100% of the total number of R's; R 1 represents -OH, -OSO 3 H, or -NZ 1 Z 2, wherein Z 1 and Z 2 each independently represent a hydrogen atom, -SO 3 H, an optionally substituted C 1-6 alkyl group, an optionally substituted aryl group, an optionally substituted aralkyl group, or an optionally substituted heteroaryl group, or -NZ 1 Z 2 collectively represents an amino acid residue or a peptide residue; and *'s each represent a bonding site with an oxygen atom.
Road joint, consisting of a cage and a finger plate which is screwed thereon by means of at least one fastening fitting, characterised in that the screw and a washer of the fastening fitting are inserted into at least one groove in the cage which has a plurality of different widths for receiving the screw head, the washer and the screw shank, in that the screw head is positioned non-rotationally in the groove and in that the tightening torque is applied by means of the nut of the fastening fitting.
A centrifuge device, comprising: a housing having a first port and a vent opening, wherein the housing is configured to rotate about an axis passing through a center of the housing, the housing comprising: a chamber coupled to the first port, wherein a first portion of the chamber has a width that tapers between a first width at a first position and a second width at a second position within the chamber, the first width being greater than the second width, and wherein a second portion of the chamber extends radially from the axis passing through the center of the housing, and a channel coupled to the second position of the chamber and arranged such that a path exists for gas to travel from the channel to the vent opening; and a cover having a second port and configured to provide a wall to seal the chamber. a chamber coupled to the first port, wherein a first portion of the chamber has a width that tapers between a first width at a first position and a second width at a second position within the chamber, the first width being greater than the second width, and wherein a second portion of the chamber extends radially from the axis passing through the center of the housing, and a channel coupled to the second position of the chamber and arranged such that a path exists for gas to travel from the channel to the vent opening; and a cover having a second port and configured to provide a wall to seal the chamber.
An integrated heating airspeed tube, comprising a tube body and a heating component, wherein the tube body is provided with a heating cavity, the heating component is located inside the heating cavity, and the heating component and the tube body are integrally formed, wherein the heating component comprises a heating tube and a heating wire, the heating tube is located in the heating cavity and is integrally formed with the tube body, and the heating wire is inserted into the heating cavity and is electrically connected with the heating tube, and wherein the tube body is further provided with a static pressure air inlet channel and a dynamic pressure air inlet channel that are not communicated with the heating cavity, a dynamic pressure air inlet hole is provided at the end of the tube body, the dynamic pressure air inlet hole is communicated with the dynamic pressure air inlet channel, at least one static pressure air inlet hole is provided on the outer peripheral surface of the tube body, and the static pressure air inlet hole is communicated with the static pressure air inlet channel. wherein the heating component comprises a heating tube and a heating wire, the heating tube is located in the heating cavity and is integrally formed with the tube body, and the heating wire is inserted into the heating cavity and is electrically connected with the heating tube, and wherein the tube body is further provided with a static pressure air inlet channel and a dynamic pressure air inlet channel that are not communicated with the heating cavity, a dynamic pressure air inlet hole is provided at the end of the tube body, the dynamic pressure air inlet hole is communicated with the dynamic pressure air inlet channel, at least one static pressure air inlet hole is provided on the outer peripheral surface of the tube body, and the static pressure air inlet hole is communicated with the static pressure air inlet channel.
A method for generating a digital 3D representation of at least a part of an intraoral cavity, the method comprising: - recording a plurality of views containing surface data representing at least the geometry of surface points of the part of the intraoral cavity using an intraoral scanner; - determining a weight for each surface point at least partly based on scores that are measures of belief of that surface point representing a particular type of surface; - executing a stitching algorithm that performs weighted stitching of the surface points in said plurality of views to generate the digital 3D representation based on the determined weights; - wherein the scores for the surface points are found by at least one score-finding algorithm that takes as input at least the geometry part of the surface data for that surface point and surface data for points in a neighbourhood of that surface point; characterised in that the scanner also supplies some certainty information of measured surface data for the recorded views, and said certainty information at least partly modifies the scores. - recording a plurality of views containing surface data representing at least the geometry of surface points of the part of the intraoral cavity using an intraoral scanner; - determining a weight for each surface point at least partly based on scores that are measures of belief of that surface point representing a particular type of surface; - executing a stitching algorithm that performs weighted stitching of the surface points in said plurality of views to generate the digital 3D representation based on the determined weights; - wherein the scores for the surface points are found by at least one score-finding algorithm that takes as input at least the geometry part of the surface data for that surface point and surface data for points in a neighbourhood of that surface point;
Rewinder for the production of paper logs, comprising means (R1, R2, R3, RC) adapted to guide and transversely pre-cut a paper web along a predetermined path, means (R4, R5, R6) adapted to wind a predetermined amount of the paper web on a core in a winding station, and a threading mechanism for threading the web along said path, characterized in that the threading mechanism comprises a dragging unit provided with dragging means (102, 103) adapted to engage the web to drag it along said path with a predetermined feed direction and at least one dragging member adapted to engage a respective flap of the web in a dragging step preceding the production of the logs, and said dragging unit is located downstream of said winding station with respect to said feed direction of the paper web and is provided with release means adapted to release said flap of the web from the dragging member, the release means being arranged downstream of the dragging means (102, 103) so as to intercept the flap of the web and disengage it from the dragging member while the web is fed along said direction by the dragging means (102, 103).
A prostate specific antigen activatable agent represented by Formula II: or a salt thereof, wherein: R 1 is -(C 1-6 alkylene)-methoxypolyethylene glycol or -(C 1-6 alkylene)-N(R*)C -(C 1-6 alkylene)-N(-(C 1-6 alkylene)-methoxypolyethylene glycol)C -(C 1-6 alkylene)-methoxypolyethylene glycol; R* is hydrogen or unsubstituted C 1-6 alkyl; F represents independently for each occurrence the following structural formula: wherein: R 2 represents independently for each occurrence hydrogen or unsubstituted C 1-6 alkyl, or two adjacent occurrences of R 2 are taken together with the atoms to which they are attached to form a 5- or 6-membered carbocylic ring; R 3 is hydrogen or unsubstituted C 1-6 alkyl, or R 3 and an adjacent occurrence of R 2 are taken together with the atoms to which they are attached to form a 5- or 6-membered carbocylic ring; R 4 is hydrogen or unsubstituted C 1-6 alkyl; R 5 represents independently for each occurrence unsubstituted C 1-6 alkyl-SO 3 - M +, or unsubstituted C 1-6 alkyl-SO 3 H; M is a monovalent cation or absent; n is 1, 2, or 3; X is C(CH 3) 2 or C(CH 2 CH 3) 2; and the PSA-cleavable oligopeptide is one of the following: wherein ψ is a covalent bond to R 1. R 1 is -(C 1-6 alkylene)-methoxypolyethylene glycol or -(C 1-6 alkylene)-N(R*)C -(C 1-6 alkylene)-N(-(C 1-6 alkylene)-methoxypolyethylene glycol)C -(C 1-6 alkylene)-methoxypolyethylene glycol; R* is hydrogen or unsubstituted C 1-6 alkyl; F represents independently for each occurrence the following structural formula: wherein: R 2 represents independently for each occurrence hydrogen or unsubstituted C 1-6 alkyl, or two adjacent occurrences of R 2 are taken together with the atoms to which they are attached to form a 5- or 6-membered carbocylic ring; R 3 is hydrogen or unsubstituted C 1-6 alkyl, or R 3 and an adjacent occurrence of R 2 are taken together with the atoms to which they are attached to form a 5- or 6-membered carbocylic ring; R 4 is hydrogen or unsubstituted C 1-6 alkyl; R 5 represents independently for each occurrence unsubstituted C 1-6 alkyl-SO 3 - M +, or unsubstituted C 1-6 alkyl-SO 3 H; M is a monovalent cation or absent; n is 1, 2, or 3; X is C(CH 3) 2 or C(CH 2 CH 3) 2; and the PSA-cleavable oligopeptide is one of the following: wherein ψ is a covalent bond to R 1. R 2 represents independently for each occurrence hydrogen or unsubstituted C 1-6 alkyl, or two adjacent occurrences of R 2 are taken together with the atoms to which they are attached to form a 5- or 6-membered carbocylic ring; R 3 is hydrogen or unsubstituted C 1-6 alkyl, or R 3 and an adjacent occurrence of R 2 are taken together with the atoms to which they are attached to form a 5- or 6-membered carbocylic ring; R 4 is hydrogen or unsubstituted C 1-6 alkyl; R 5 represents independently for each occurrence unsubstituted C 1-6 alkyl-SO 3 - M +, or unsubstituted C 1-6 alkyl-SO 3 H; M is a monovalent cation or absent; n is 1, 2, or 3; X is C(CH 3) 2 or C(CH 2 CH 3) 2; and the PSA-cleavable oligopeptide is one of the following: wherein ψ is a covalent bond to R 1.
A powered telecommunications device (106, 206, 506, 706), comprising: a powered device port unit (142, 242, 541, 543, 741, 841) configured to negotiate receipt of a level of power from power sourcing equipment (102, 202, 502, 702, 802), the power being received from the power sourcing equipment (102, 202, 502, 702, 802) on multiple pairs of taps (136, 138, 536, 538, 736, 738); a base power load (146, 246, 546, 746, 846) coupled with the powered device port unit (142, 242, 541, 543, 741, 841) and configured to receive power therefrom from at least one pair of the multiple pairs of taps (136, 138, 536, 538, 736, 738); a detection unit (158, 258, 558, 758) configured to detect the presence of an optional power load (186, 286, 586, 786, 886) coupled with the device (106, 206, 506, 706) in addition to the base power load (146, 246, 546, 746, 846); the device (106, 206, 506, 706) configured to establish connectivity between another pair of taps (138, 538, 738) and the optional power load (186, 286, 586, 786, 886) in response to the detection of the presence of the optional power load (186, 286, 586, 786, 886) by the detection unit (158, 258, 558, 758), wherein the another pair of taps (138, 538, 738) are different taps from the at least one pair (136, 536, 736) of the multiple pairs of taps (136, 138, 536, 538, 736, 738); and wherein the device (106, 206, 506, 706) is configured as a remote antenna unit of a distributed antenna system. a powered device port unit (142, 242, 541, 543, 741, 841) configured to negotiate receipt of a level of power from power sourcing equipment (102, 202, 502, 702, 802), the power being received from the power sourcing equipment (102, 202, 502, 702, 802) on multiple pairs of taps (136, 138, 536, 538, 736, 738); a base power load (146, 246, 546, 746, 846) coupled with the powered device port unit (142, 242, 541, 543, 741, 841) and configured to receive power therefrom from at least one pair of the multiple pairs of taps (136, 138, 536, 538, 736, 738); a detection unit (158, 258, 558, 758) configured to detect the presence of an optional power load (186, 286, 586, 786, 886) coupled with the device (106, 206, 506, 706) in addition to the base power load (146, 246, 546, 746, 846); the device (106, 206, 506, 706) configured to establish connectivity between another pair of taps (138, 538, 738) and the optional power load (186, 286, 586, 786, 886) in response to the detection of the presence of the optional power load (186, 286, 586, 786, 886) by the detection unit (158, 258, 558, 758), wherein the another pair of taps (138, 538, 738) are different taps from the at least one pair (136, 536, 736) of the multiple pairs of taps (136, 138, 536, 538, 736, 738); and wherein the device (106, 206, 506, 706) is configured as a remote antenna unit of a distributed antenna system.
Spiral fastening device for furniture panels of the type that use in one of the panels a bolt with one or more annular heads and a spiral pulling member seated in the other panel, the spiral pulling member comprising a plastic casing characterized in that the plastic casing encloses and positions within its interior pressed discs (3, 4) with respective clockwise and anti-clockwise spirals when viewed from their opposed inner faces, said pressed discs (3, 4) being opposed and joined together by a polygonal connecting arbor and fitted into the plastic casing.
A process of preparing a pharmaceutical formulation, the process comprising: (i) mixing a high molecular weight poly(ethylene oxide) homopolymer having an average molecular weight of greater than 5,000,000 with a plasticizer and a therapeutic compound, wherein the plasticizer is a PEO having an average molecular weight of less than 500,000; and (ii) hot-melt extruding the mixture. (i) mixing a high molecular weight poly(ethylene oxide) homopolymer having an average molecular weight of greater than 5,000,000 with a plasticizer and a therapeutic compound, wherein the plasticizer is a PEO having an average molecular weight of less than 500,000; and (ii) hot-melt extruding the mixture.
A device for forming a quasi-neutral beam of ions and electrons, comprising: - a chamber, - a set of means (31, 30, 40, 58) for forming an ion-electron plasma in this chamber; - a means for extracting and accelerating charged particles of the plasma out of the chamber able to form said beam, said extraction and acceleration means comprising a set of at least two grids (51, 54) located at one end of the chamber; - a radiofrequency alternating voltage source (52, 58') adapted for generating a signal, the radiofrequency of which is comprised between the plasma frequency of the ions and the plasma frequency of the electrons, said radiofrequency voltage source (52, 58') being positioned in series with a capacitor and connected, through one of its outlet and via this capacitor, to at least one of the grids of said set of at least two grids (51, 54), at least one other grid of said set of at least two grids (51, 54) either being set to a reference potential, or connected to the other one of the outlets of the radiofrequency voltage source (52, 58'). - a chamber, - a set of means (31, 30, 40, 58) for forming an ion-electron plasma in this chamber; - a means for extracting and accelerating charged particles of the plasma out of the chamber able to form said beam, said extraction and acceleration means comprising a set of at least two grids (51, 54) located at one end of the chamber; - a radiofrequency alternating voltage source (52, 58') adapted for generating a signal, the radiofrequency of which is comprised between the plasma frequency of the ions and the plasma frequency of the electrons, said radiofrequency voltage source (52, 58') being positioned in series with a capacitor and connected, through one of its outlet and via this capacitor, to at least one of the grids of said set of at least two grids (51, 54), at least one other grid of said set of at least two grids (51, 54) either being set to a reference potential, or connected to the other one of the outlets of the radiofrequency voltage source (52, 58').
A nozzle (1400, 1401, 1402, 1403) for a combustor for a gas turbine, the combustor being configured for burning a hydrogen-containing fuel, the nozzle (1400, 1401, 1402, 1403) comprising: a first tube through which the fuel flows and having a fuel injection hole on a front side to inject the fuel therethrough, wherein the first tube includes an accelerating injector whose inner diameter gradually decreases toward a tip, and the fuel injection hole is formed at the tip of the accelerating injector; a second tube surrounding the first tube and having a premixing injection hole through which the fuel and air are mixed and discharged; and a third tube surrounding the second tube and through which the fuel flows; wherein the second tube includes a plurality of fine injection holes to inject the fuel from the third tube to form fine flames, and the fine injection holes are spaced apart from each other in a circumferential direction of the second tube, wherein the second tube includes an injection guide surrounding the accelerating injector and whose inner diameter gradually decreases toward the tip, and wherein the fine injection holes are formed in the injection guide. a first tube through which the fuel flows and having a fuel injection hole on a front side to inject the fuel therethrough, wherein the first tube includes an accelerating injector whose inner diameter gradually decreases toward a tip, and the fuel injection hole is formed at the tip of the accelerating injector; a second tube surrounding the first tube and having a premixing injection hole through which the fuel and air are mixed and discharged; and a third tube surrounding the second tube and through which the fuel flows; wherein the second tube includes a plurality of fine injection holes to inject the fuel from the third tube to form fine flames, and the fine injection holes are spaced apart from each other in a circumferential direction of the second tube, wherein the second tube includes an injection guide surrounding the accelerating injector and whose inner diameter gradually decreases toward the tip, and wherein the fine injection holes are formed in the injection guide.