mhurhangee/ep-ind-claims huggingface dataset:
A drone for sidewardly communicating with flying drones, the drone comprising: a propeller drive; a circumferential support frame mechanically supporting at least one component of the drone, the circumferential support frame surrounding the propeller drive, the circumferential support frame comprising an outwardly directed circumferential surface; an array of antenna elements arranged along the outwardly directed circumferential surface, the array of antenna elements forming a beamforming antenna for transmitting a spatially directed transmission beam in a sideward direction; and a beam controller being configured to drive a subarray of the array of antenna elements in order to generate the spatially directed transmission beam. a circumferential support frame mechanically supporting at least one component of the drone, the circumferential support frame surrounding the propeller drive, the circumferential support frame comprising an outwardly directed circumferential surface; an array of antenna elements arranged along the outwardly directed circumferential surface, the array of antenna elements forming a beamforming antenna for transmitting a spatially directed transmission beam in a sideward direction; and a beam controller being configured to drive a subarray of the array of antenna elements in order to generate the spatially directed transmission beam.
A solvent-containing coating composition for lacquer coatings, containing or consisting of a) at least one oxidatively drying organic binder, b1) at least one first primary drying agent based on iron, in particular comprising or consisting of at least one complex compound of iron, in particular a complex salt of iron, b2) at least one second primary drying agent based on manganese, in particular comprising or consisting of a complex compound of manganese, in particular a complex salt of manganese, c1) at least one first secondary drying agent, comprising or consisting of at least one organic salt of zirconium and/or strontium, d1) at least one first anti-skinning agent, and d2) at least one second anti-skinning agent, which second anti-skinning agent has a higher vapour pressure than the first anti-skinning agent at 20°C, e) optionally at least one additive, further comprising ligands which are able to complex iron and/or manganese species and are selected from at least one mono-, di-, tri-, tetra-, penta- and/or hexadentate nitrogen donor ligand. a) at least one oxidatively drying organic binder, b1) at least one first primary drying agent based on iron, in particular comprising or consisting of at least one complex compound of iron, in particular a complex salt of iron, b2) at least one second primary drying agent based on manganese, in particular comprising or consisting of a complex compound of manganese, in particular a complex salt of manganese, c1) at least one first secondary drying agent, comprising or consisting of at least one organic salt of zirconium and/or strontium, d1) at least one first anti-skinning agent, and d2) at least one second anti-skinning agent, which second anti-skinning agent has a higher vapour pressure than the first anti-skinning agent at 20°C, e) optionally at least one additive, further comprising ligands which are able to complex iron and/or manganese species and are selected from at least one mono-, di-, tri-, tetra-, penta- and/or hexadentate nitrogen donor ligand.
A method for waterproofing below-grade structures, which comprises: - at least one step of injecting at least one compound (2, 4) adjacent to the surface that is directed toward the outside of a region of soil arranged adjacent to a below-grade structure to be waterproofed; - at least one step of measuring the electrical resistivity of said at least one region of soil subjected to said injection step, said at least one measurement step being adapted to detect the portions of said region of soil that are affected by the injection of said at least one compound (2, 4). - at least one step of injecting at least one compound (2, 4) adjacent to the surface that is directed toward the outside of a region of soil arranged adjacent to a below-grade structure to be waterproofed; - at least one step of measuring the electrical resistivity of said at least one region of soil subjected to said injection step, said at least one measurement step being adapted to detect the portions of said region of soil that are affected by the injection of said at least one compound (2, 4).
A method of forming a first composite structure and a second composite structure, the method comprising: heating an outer mold line surface at a processing temperature; gelling a first composite preform to a gelled state inside the outer mold line surface; removing the gelled first composite preform from the outer mold line surface while maintaining the outer mold line surface at the processing temperature; and gelling a second composite preform to a gelled state inside the outer mold line surface while maintaining the outer mold line surface at the processing temperature, wherein the first composite preform and the second composite preform in the gelled state is sufficiently self-supporting that the gelled composite preform (14; 14') can be extracted from an inner mold line surface of a mandrel. heating an outer mold line surface at a processing temperature; gelling a first composite preform to a gelled state inside the outer mold line surface; removing the gelled first composite preform from the outer mold line surface while maintaining the outer mold line surface at the processing temperature; and gelling a second composite preform to a gelled state inside the outer mold line surface while maintaining the outer mold line surface at the processing temperature, wherein the first composite preform and the second composite preform in the gelled state is sufficiently self-supporting that the gelled composite preform (14; 14') can be extracted from an inner mold line surface of a mandrel.
A coating booth for elements to be coated, comprising a passage between opposing vertical sides (107a, 107b, 108a, 108b) and through which said elements to be coated are conveyed, an entrance at one end of the passage and an exit at the other end of the passage, a conveyor line for supporting said elements to be coated and configured to convey said elements from the entrance to the exit along a straight pathway, and a suction system, wherein: the opposing sides (107a, 107b, 108a, 108b) of the channel are symmetrical about the pathway; sets of spray guns (103a, 103b, 104a, 104b) for spraying coating powder at the elements are positioned symmetrically either side of said straight pathway; and the suction system comprises vertical suction inlets (109a, 109b) mounted opposite one another on each opposing vertical side of the passage, the suction system being configured to provide equal amounts of suction through each of the opposing vertical suction inlets, characterised in that each vertical suction inlet (109a, 109b) is divided into an upper and lower portion located on either side of a suction source, each vertical suction inlet further comprising one or more moveable flaps configured to divert an amount of suction force from the suction source to either the upper or lower portion of each vertical suction inlet (109a, 109b). a conveyor line for supporting said elements to be coated and configured to convey said elements from the entrance to the exit along a straight pathway, and a suction system, the opposing sides (107a, 107b, 108a, 108b) of the channel are symmetrical about the pathway; sets of spray guns (103a, 103b, 104a, 104b) for spraying coating powder at the elements are positioned symmetrically either side of said straight pathway; and the suction system comprises vertical suction inlets (109a, 109b) mounted opposite one another on each opposing vertical side of the passage, the suction system being configured to provide equal amounts of suction through each of the opposing vertical suction inlets, characterised in that each vertical suction inlet (109a, 109b) is divided into an upper and lower portion located on either side of a suction source, each vertical suction inlet further comprising one or more moveable flaps configured to divert an amount of suction force from the suction source to either the upper or lower portion of each vertical suction inlet (109a, 109b).
An ophthalmologic microscope comprising: an illuminating optical system for illuminating a subject's eye; an observation optical system that comprises an observation optical system for left eye and an observation optical system for right eye to observe the subject's eye illuminated by the illuminating optical system; an objective lens through which an optical axis of the observation optical system for left eye (O-400L) and an optical axis of the observation optical system for right eye (O-400R) of the observation optical system commonly penetrate; and an OCT optical system comprising a light path of a measuring light for testing the subject's eye by Optical Coherence Tomography and a deflection optical element configured to scan the measuring light, wherein the observation optical system, the objective lens, and the OCT optical system are placed in such a way that the optical axis of the OCT optical system (O-500) does not penetrate through the objective lens through which the optical axis of the observation optical system (O-400) penetrates, it further comprises, aside from the objective lens, an objective lens for OCT through which the optical axis of the OCT optical system (O-500) penetrates, and the deflection optical element and the objective lens for OCT are in a substantially optically conjugate positional relation, characterized in that the illuminating optical system, and the observation optical system are accommodated in an ophthalmologic microscope body, and the OCT optical system is accommodated in a function expansion unit, and ophthalmologic microscope body and the function expansion unit are detachably coupled by a joint. an illuminating optical system for illuminating a subject's eye; an observation optical system that comprises an observation optical system for left eye and an observation optical system for right eye to observe the subject's eye illuminated by the illuminating optical system; an objective lens through which an optical axis of the observation optical system for left eye (O-400L) and an optical axis of the observation optical system for right eye (O-400R) of the observation optical system commonly penetrate; and an OCT optical system comprising a light path of a measuring light for testing the subject's eye by Optical Coherence Tomography and a deflection optical element configured to scan the measuring light, wherein the observation optical system, the objective lens, and the OCT optical system are placed in such a way that the optical axis of the OCT optical system (O-500) does not penetrate through the objective lens through which the optical axis of the observation optical system (O-400) penetrates, it further comprises, aside from the objective lens, an objective lens for OCT through which the optical axis of the OCT optical system (O-500) penetrates, and the deflection optical element and the objective lens for OCT are in a substantially optically conjugate positional relation,
An electric toothbrush brush head detachably attached to a handle of an electric toothbrush, the handle comprising a vibrating drive shaft extending from the handle, the electric toothbrush brush head comprising: a brush head main body comprising a receiving cavity along a first direction (X') receiving at least a part of the drive shaft, wherein the first direction (X') is along an end of the brush head main body connected to the handle toward another end of the brush head main body away from the handle, the receiving cavity comprises a cavity wall and an abutment wall integrally formed with the cavity wall, and when the electric toothbrush brush head is in an assembled state, the abutment wall abuts at least a part of the drive shaft under an external force; and an elastic member positioned corresponding to the abutment wall, wherein the elastic member abuts the abutment wall along an outer surface of the cavity wall toward an inner surface of the cavity wall so as to provide the abutment wall with the external force to abut the drive shaft, and the elastic member is in a shape of a curved sheet, characterized in that, the elastic member consists of a first curved surface portion, two second curved surface portions, and two flat surface portions, the two second curved surface portions are respectively located at two ends of the first curved surface portion, the two flat surface portions are respectively located at two ends of the two second curved surface portions away from the first curved surface portion, and the first curved surface portion and the second curved surface portions are arc-shaped. a brush head main body comprising a receiving cavity along a first direction (X') receiving at least a part of the drive shaft, wherein the first direction (X') is along an end of the brush head main body connected to the handle toward another end of the brush head main body away from the handle, the receiving cavity comprises a cavity wall and an abutment wall integrally formed with the cavity wall, and when the electric toothbrush brush head is in an assembled state, the abutment wall abuts at least a part of the drive shaft under an external force; and an elastic member positioned corresponding to the abutment wall, wherein the elastic member abuts the abutment wall along an outer surface of the cavity wall toward an inner surface of the cavity wall so as to provide the abutment wall with the external force to abut the drive shaft, and the elastic member is in a shape of a curved sheet, characterized in that, the elastic member consists of a first curved surface portion, two second curved surface portions, and two flat surface portions, the two second curved surface portions are respectively located at two ends of the first curved surface portion, the two flat surface portions are respectively located at two ends of the two second curved surface portions away from the first curved surface portion, and the first curved surface portion and the second curved surface portions are arc-shaped.
An elongate embolectomy device (500, 600, 500', 600', 500") biased to transition from a radially constrained configuration to a radially expanded configuration, the embolectomy device (500, 600, 500', 600', 500") comprising: a plurality of elongate clot engaging structures (100, 200), each clot engaging structure comprising a plurality of interconnected struts (150, 250) forming an open cell pattern, and having a proximal active portion (540, 640, 540', 640') and a distal protective portion (580, 600, 500', 600' 500"), wherein, when the embolectomy device (500, 600, 500', 600', 500") is in the radially expanded configuration, the active portion (540, 640, 540', 640') of each clot engaging structure (100, 200) has a semi-tubular arcuate profile, including a convex face and a concave face facing opposite the convex face, the clot engaging structures (100, 200) being longitudinally disposed relative to each other in a back-to-back arcuate configuration such that the concave faces of the active portions (540, 640, 540', 640') are facing radially outward, and the convex faces of the active portions (540, 640, 540', 640') are facing radially inward, and the protective portion (580, 680, 680') of each clot engaging structure (100, 200) has a semi-tubular arcuate profile, including a convex face and an concave face facing opposite the convex face, wherein the convex faces of the protective portions (580, 680, 680') are facing radially outward, and the concave faces of the protective portions are facing radially inward, respectively, relative to the longitudinal axis of the embolectomy device. a plurality of elongate clot engaging structures (100, 200), each clot engaging structure comprising a plurality of interconnected struts (150, 250) forming an open cell pattern, and having a proximal active portion (540, 640, 540', 640') and a distal protective portion (580, 600, 500', 600' 500"), wherein, when the embolectomy device (500, 600, 500', 600', 500") is in the radially expanded configuration, the active portion (540, 640, 540', 640') of each clot engaging structure (100, 200) has a semi-tubular arcuate profile, including a convex face and a concave face facing opposite the convex face, the clot engaging structures (100, 200) being longitudinally disposed relative to each other in a back-to-back arcuate configuration such that the concave faces of the active portions (540, 640, 540', 640') are facing radially outward, and the convex faces of the active portions (540, 640, 540', 640') are facing radially inward, and the protective portion (580, 680, 680') of each clot engaging structure (100, 200) has a semi-tubular arcuate profile, including a convex face and an concave face facing opposite the convex face, wherein the convex faces of the protective portions (580, 680, 680') are facing radially outward, and the concave faces of the protective portions are facing radially inward, respectively, relative to the longitudinal axis of the embolectomy device.
A diaphragm assembly for use in a turbine, said diaphragm assembly comprising: a diaphragm having a steam path comprising an inner sidewall, an outer sidewall, and a first partition and a second partition extending therebetween, wherein the first partition is spaced apart from the second partition to form a channel through which a fluid can flow; a replacement part disposed in the steam path, characterised in that: the replacement part comprises a first coupon and a second coupon interposed between an inner band and an outer band, the first coupon and the second coupon comprising a contoured shape which sweeps essentially upwardly from a bottom surface to a trailing edge the first coupon and the second coupon aligning with, respectively, the first partition and the second partition; and a first weld and a second weld that secure the inner band to the inner sidewall and the outer band to the outer sidewall, wherein the first weld and the second weld are deposited outside of the channel. a diaphragm having a steam path comprising an inner sidewall, an outer sidewall, and a first partition and a second partition extending therebetween, wherein the first partition is spaced apart from the second partition to form a channel through which a fluid can flow; a replacement part disposed in the steam path, characterised in that: the replacement part comprises a first coupon and a second coupon interposed between an inner band and an outer band, the first coupon and the second coupon comprising a contoured shape which sweeps essentially upwardly from a bottom surface to a trailing edge the first coupon and the second coupon aligning with, respectively, the first partition and the second partition; and a first weld and a second weld that secure the inner band to the inner sidewall and the outer band to the outer sidewall, wherein the first weld and the second weld are deposited outside of the channel.
A telecommunication plug having an open slot in the middle, the open slot being sequentially provided with a spring piece, a circuit board and a cover plate, an end of the plug being provided with an upper cover case and a lower cover case, and the plug further having a plug-in module, a front end of the plug-in module being provided with a slot for inserting the circuit board, and an upper end surface and a lower end surface of the plug-in module being provided with a respective groove for placing cable cores, each groove being provided with a metal connecting piece, an upper end of the metal connecting piece being provided with a broken wire port, and a lower end of the metal connecting piece being inserted into the slot of the plug-in module to be in contact with the circuit board, characterized in that: the cover plate is provided with a metal contact piece, a lower end of the metal contact piece has a contact pin extending downwardly, and the circuit board is provided with a through hole for inserting the contact pin; inner surfaces of the upper cover case and the lower cover case are provided each with a respective line-pressing protruding block corresponding to a respective groove on the plug-in module; and inner surfaces of the upper cover case and the lower cover case are provided each with a locking protruding block for fixing the plug-in module and the circuit board in-betweenon the upper cover case and the lower cover case. the cover plate is provided with a metal contact piece, a lower end of the metal contact piece has a contact pin extending downwardly, and the circuit board is provided with a through hole for inserting the contact pin; inner surfaces of the upper cover case and the lower cover case are provided each with a respective line-pressing protruding block corresponding to a respective groove on the plug-in module; and inner surfaces of the upper cover case and the lower cover case are provided each with a locking protruding block for fixing the plug-in module and the circuit board in-betweenon the upper cover case and the lower cover case.
A method for determining the presence or absence of an antibody or fragment thereof, in a test sample, wherein the antibody or fragment thereof specifically binds to a purified polypeptide consisting of SEQ ID NO: 10 comprising: contacting the test sample with a purified polypeptide comprising SEQ ID NO: 10 under conditions suitable for specific binding of the purified polypeptide to the antibody or fragment thereof; and detecting the presence or absence of specific binding; wherein the presence of specific binding indicates the presence of the antibody or fragment thereof, and wherein the absence of specific binding indicates the absence the antibody or fragment thereof. contacting the test sample with a purified polypeptide comprising SEQ ID NO: 10 under conditions suitable for specific binding of the purified polypeptide to the antibody or fragment thereof; and detecting the presence or absence of specific binding; wherein the presence of specific binding indicates the presence of the antibody or fragment thereof, and wherein the absence of specific binding indicates the absence the antibody or fragment thereof.
A flexible pipe (18; 118) for transporting a cryogenic fluid, having an inner fluid confinement assembly comprising: • an inner corrugated tube having an axis (A-A'), the corrugated tube defining a sealed throughway for circulation of the cryogenic fluid; • a tensile armour arranged around the inner tube; • a heat-insulating assembly arranged around the tensile armour, the pipe (18; 118) comprising a ballast assembly, mounted around the inner assembly; characterized in that the ballast assembly comprises: - a plurality of collars, mounted externally on the inner assembly to form a support layer; - at least one outer armour; - at least one ballast ring engaged around the outer armour. • an inner corrugated tube having an axis (A-A'), the corrugated tube defining a sealed throughway for circulation of the cryogenic fluid; • a tensile armour arranged around the inner tube; • a heat-insulating assembly arranged around the tensile armour, the pipe (18; 118) comprising a ballast assembly, mounted around the inner assembly; characterized in that the ballast assembly comprises: - a plurality of collars, mounted externally on the inner assembly to form a support layer; - at least one outer armour; - at least one ballast ring engaged around the outer armour. - a plurality of collars, mounted externally on the inner assembly to form a support layer; - at least one outer armour; - at least one ballast ring engaged around the outer armour.