mhurhangee/ep-ind-claims huggingface dataset:
A method of making a wind turbine blade, the method comprising: providing a mould assembly having first and second mould halves (112, 114), each mould half comprising a mould surface, the mould assembly having an open position in which the mould halves are spaced apart, and a closed position in which the mould halves are brought together; making a first half shell of the wind turbine blade in the first mould half and making a second half shell of the wind turbine blade in the second mould half when the mould assembly is in the open position, each half shell comprising a composite material; characterised by: integrating a metallic lightning receptor component (110, 161) with the first half shell; configuring the mould assembly such that a clearance region is defined between the mould surface of the second mould half and the metallic lightning receptor component (110, 161) when the mould assembly is in the closed position, such that contact between the second mould half and the metallic lightning receptor component is substantially avoided; closing the mould assembly; joining the first and second half shells (106, 108) together; and a metal blade tip is connected to the metallic lightning receptor component or the metallic lightning receptor component is a metal blade tip. providing a mould assembly having first and second mould halves (112, 114), each mould half comprising a mould surface, the mould assembly having an open position in which the mould halves are spaced apart, and a closed position in which the mould halves are brought together; making a first half shell of the wind turbine blade in the first mould half and making a second half shell of the wind turbine blade in the second mould half when the mould assembly is in the open position, each half shell comprising a composite material; characterised by: integrating a metallic lightning receptor component (110, 161) with the first half shell; configuring the mould assembly such that a clearance region is defined between the mould surface of the second mould half and the metallic lightning receptor component (110, 161) when the mould assembly is in the closed position, such that contact between the second mould half and the metallic lightning receptor component is substantially avoided; closing the mould assembly; joining the first and second half shells (106, 108) together; and a metal blade tip is connected to the metallic lightning receptor component or the metallic lightning receptor component is a metal blade tip. integrating a metallic lightning receptor component (110, 161) with the first half shell; configuring the mould assembly such that a clearance region is defined between the mould surface of the second mould half and the metallic lightning receptor component (110, 161) when the mould assembly is in the closed position, such that contact between the second mould half and the metallic lightning receptor component is substantially avoided; closing the mould assembly; joining the first and second half shells (106, 108) together; and a metal blade tip is connected to the metallic lightning receptor component or the metallic lightning receptor component is a metal blade tip.
A collapsible portable shelter comprising: at least a first strut and a second strut, each strut being resiliently flexible, a panel formed of a flexible material coupled with the first strut and the second strut, wherein the first strut is received along a first side of the panel and the second strut is received along a second side of the panel, the second side opposing the first side, the first strut and the second strut each has a first end portion extending beyond a third side of the panel, and a second end portion, and characterised in that the collapsible portable shelter further comprises a ballast member for attachment to at least one of said struts to anchor the panel relative to the ground, wherein in use said first end portion of each of the first strut and second strut is to be received in the ground to resist lateral movement of said first end portions received in the ground, and said second end portions are free of said ground, and wherein, in use, said ballast member, when attached to said struts, applies flex to said struts and the said flex and the force applied to said struts by their location in the ground acts to support and anchor the shelter to the ground when erected, and wherein in use an orientation of the panel with respect to the surface can be readily varied by adjusting the ballast member. at least a first strut and a second strut, each strut being resiliently flexible, a panel formed of a flexible material coupled with the first strut and the second strut, wherein the first strut is received along a first side of the panel and the second strut is received along a second side of the panel, the second side opposing the first side, the first strut and the second strut each has a first end portion extending beyond a third side of the panel, and a second end portion, and characterised in that the collapsible portable shelter further comprises a ballast member for attachment to at least one of said struts to anchor the panel relative to the ground, wherein in use said first end portion of each of the first strut and second strut is to be received in the ground to resist lateral movement of said first end portions received in the ground, and said second end portions are free of said ground, and wherein, in use, said ballast member, when attached to said struts, applies flex to said struts and the said flex and the force applied to said struts by their location in the ground acts to support and anchor the shelter to the ground when erected, and wherein in use an orientation of the panel with respect to the surface can be readily varied by adjusting the ballast member.
A firearm with tilting barrel-receiver assembly (20, 30), the firearm comprising: a longitudinal axis; a frame; a barrel-receiver assembly (20, 30) pivotably mounted to a front end of the frame, the barrel-receiver assembly angularly movable as a unit between a tilted open position and a horizontal closed position; and a latching mechanism disposed in the frame, the latching mechanism including a latch comprising a latch hook configured and operable to selectively engage or disengage the barrel-receiver assembly (20, 30), and an rear actuating end projecting rearwards from the frame to actuate the latch; the latch slideably movable in an axial direction in the frame between a locked position in which the barrel-receiver assembly (20, 30) is retained in the closed position, and an unlocked position in which the barrel-receiver assembly is movable to the open position; wherein the barrel-receiver assembly (20, 30) includes a forwardly open locking recess which engages the latch hook when the latch is in the locked position, the latch hook projecting in a rearwards direction on the latch; wherein the frame includes a transversely oriented arcuate pivot surface which is insertably received in a downwardly open elongated mounting slot formed in the barrel-receiver assembly (20, 30) to pivotably mount the barrel-receiver assembly to the frame, the mounting slot being obliquely angled to the longitudinal axis. a longitudinal axis; a frame; a barrel-receiver assembly (20, 30) pivotably mounted to a front end of the frame, the barrel-receiver assembly angularly movable as a unit between a tilted open position and a horizontal closed position; and a latching mechanism disposed in the frame, the latching mechanism including a latch comprising a latch hook configured and operable to selectively engage or disengage the barrel-receiver assembly (20, 30), and an rear actuating end projecting rearwards from the frame to actuate the latch; the latch slideably movable in an axial direction in the frame between a locked position in which the barrel-receiver assembly (20, 30) is retained in the closed position, and an unlocked position in which the barrel-receiver assembly is movable to the open position; wherein the barrel-receiver assembly (20, 30) includes a forwardly open locking recess which engages the latch hook when the latch is in the locked position, the latch hook projecting in a rearwards direction on the latch; wherein the frame includes a transversely oriented arcuate pivot surface which is insertably received in a downwardly open elongated mounting slot formed in the barrel-receiver assembly (20, 30) to pivotably mount the barrel-receiver assembly to the frame, the mounting slot being obliquely angled to the longitudinal axis.
Light signaling device for a vehicle, in particular for a motor vehicle, said device comprising: - a box open at the front, i.e. towards the outside when the device is mounted on a vehicle, - at least one light source arranged inside the box, - a glass corresponding to a wall adapted to close the box, and - at least one light element suitable for diffusing light from said light source, characterized in that the luminous element is overmoulded on a part of the lens to form a one-piece optical element, the part of the lens corresponding to the outer face of the one-piece optical element and the luminous element covering the inner face of the lens part, corresponding to the inner face of the one-piece optical element, in that the one-piece optical element defines a hollow body obtained after bi-material injection molding with a first type of material constituting the glass part and a second identical or different material, constituting the luminous element; said hollow body forming a protuberance towards the outside relative to the rest of the glass wall closing the case, and in that the luminous element is split into two parts obtained (ELU1, ELU2) from the same injection molding process of the same second type of material; each part of the luminous element (ELU1, ELU2) defining the inner face of the hollow body with the exception of the bottom of the hollow body which defines an exit window for the light. - a box open at the front, i.e. towards the outside when the device is mounted on a vehicle, - at least one light source arranged inside the box, - a glass corresponding to a wall adapted to close the box, and - at least one light element suitable for diffusing light from said light source, characterized in that the luminous element is overmoulded on a part of the lens to form a one-piece optical element, the part of the lens corresponding to the outer face of the one-piece optical element and the luminous element covering the inner face of the lens part, corresponding to the inner face of the one-piece optical element, in that the one-piece optical element defines a hollow body obtained after bi-material injection molding with a first type of material constituting the glass part and a second identical or different material, constituting the luminous element; said hollow body forming a protuberance towards the outside relative to the rest of the glass wall closing the case, and in that the luminous element is split into two parts obtained (ELU1, ELU2) from the same injection molding process of the same second type of material; each part of the luminous element (ELU1, ELU2) defining the inner face of the hollow body with the exception of the bottom of the hollow body which defines an exit window for the light.
A compound selected from the group consisting of N-[(3-hydroxypropyl)(methyl)oxido- λ 4 -sulfanylidene]-5-({3-[(3-methyl-2-furoyl)amino]phenyl}ethynyl)nicotinamide, -N-[(3-hydroxypropyl)(methyl)oxido-λ 4 -sulfanylidene]-5-({3-[(3-methyl-2-furoyl)amino]phenyl}ethynyl)nicotinamide, -N-[(3-hydroxypropyl)(methyl)oxido-λ 4 -sulfanylidene]-5-({3-[(3-methyl-2-furoyl)amino]phenyl}ethynyl)nicotinamide, and 6-amino-N-[(3-hydroxypropyl)(methyl)oxido-λ 4 -sulfanylidene]-5-({3-[(3-methyl-2-furoyl)amino]phenyl}ethynyl)nicotinamide; or a pharmaceutically acceptable salt thereof. N-[(3-hydroxypropyl)(methyl)oxido- λ 4 -sulfanylidene]-5-({3-[(3-methyl-2-furoyl)amino]phenyl}ethynyl)nicotinamide, -N-[(3-hydroxypropyl)(methyl)oxido-λ 4 -sulfanylidene]-5-({3-[(3-methyl-2-furoyl)amino]phenyl}ethynyl)nicotinamide, -N-[(3-hydroxypropyl)(methyl)oxido-λ 4 -sulfanylidene]-5-({3-[(3-methyl-2-furoyl)amino]phenyl}ethynyl)nicotinamide, and 6-amino-N-[(3-hydroxypropyl)(methyl)oxido-λ 4 -sulfanylidene]-5-({3-[(3-methyl-2-furoyl)amino]phenyl}ethynyl)nicotinamide; or a pharmaceutically acceptable salt thereof.
An aircraft monitoring system comprising: an aircraft; a fiber optic mesh; optical transmitter system connected to the fiber optic mesh, wherein the optical transmitter system is operable to send optical signals into the fiber optic mesh; optical receiver system connected to fiber optic mesh, wherein the optical receiver system is operable to detect response optical signals occurring in response to the optical signals sent into the fiber optic mesh by the optical transmitter system and generate sensor data from the response optical signals detected; and a computer system in communication with the optical transmitter system and the optical receiver system, wherein the computer system is operable to control the optical transmitter system to send the optical signals into the fiber optic mesh; is operable to receive sensor data from the optical receiver system during operation of the aircraft, and is operable to determine whether a group of nonconformances is present in the aircraft using the sensor data, wherein: fiber optic mesh comprises a film and optical fibers attached or adhered to one side of the film or embedded or integrated within the film; and the optical fibers comprise first optical fibers parallel to each other and second optical fibers parallel to each other, wherein the first optical fibers intersect the second optical fibers, characterized in that: the film is a tape; and the fiber optic mesh covers an exterior surface of the aircraft. an aircraft; a fiber optic mesh; optical transmitter system connected to the fiber optic mesh, wherein the optical transmitter system is operable to send optical signals into the fiber optic mesh; optical receiver system connected to fiber optic mesh, wherein the optical receiver system is operable to detect response optical signals occurring in response to the optical signals sent into the fiber optic mesh by the optical transmitter system and generate sensor data from the response optical signals detected; and a computer system in communication with the optical transmitter system and the optical receiver system, wherein the computer system is operable to control the optical transmitter system to send the optical signals into the fiber optic mesh; is operable to receive sensor data from the optical receiver system during operation of the aircraft, and is operable to determine whether a group of nonconformances is present in the aircraft using the sensor data, wherein: fiber optic mesh comprises a film and optical fibers attached or adhered to one side of the film or embedded or integrated within the film; and the optical fibers comprise first optical fibers parallel to each other and second optical fibers parallel to each other, wherein the first optical fibers intersect the second optical fibers, characterized in that: the film is a tape; and the fiber optic mesh covers an exterior surface of the aircraft. the film is a tape; and the fiber optic mesh covers an exterior surface of the aircraft.
Railway vehicle with a toilet device which is operated with compressed air which is provided via a main container airline of the toilet device, wherein the railway vehicle is additionally provided with an auxiliary airline (HiLL) for operating pneumatic components, characterized in that the auxiliary airline (HiLL) is connected in terms of flow to the toilet device via a bypass valve.
Vacuum cleaner with water container, comprising: a liquid container; which is at least partially filled with water to bind dirt and dust and a suction head, which is arranged in a first position, relative to the liquid container, such that it can be removed from the liquid container and the vacuum cleaner has a positioning element, which can be adjusted such that the suction head can be arranged in a second position relative to the liquid container, wherein the suction head, in the second position relative to the first position, is inclined at a first angle (γ) greater than 0° and the second inclined position is for draining and drying of the suction head. a liquid container; which is at least partially filled with water to bind dirt and dust and a suction head, which is arranged in a first position, relative to the liquid container, such that it can be removed from the liquid container and the vacuum cleaner has a positioning element, which can be adjusted such that the suction head can be arranged in a second position relative to the liquid container, wherein the suction head, in the second position relative to the first position, is inclined at a first angle (γ) greater than 0° and the second inclined position is for draining and drying of the suction head.
An anatomical mapping system comprising a mapping catheter having a distal end carrying a three-dimensional multiple electrode structure carrying a plurality of mapping electrodes, and a processing system electrically coupled to the electrodes, characterized by the processing system configured to: determine a cycle length, CL, of each activation signal received from the electrodes; estimate an action potential duration, APD, and diastolic interval, DI, for each cycle length, CL, wherein an initial estimate of APD and DI for each cycle length is random or based on a priori information; generate a two-dimensional restitution dataset which pairs each estimated action potential duration, APD, with an estimated diastolic interval, from a directly preceding cycle length, pDI iteratively optimize each estimated action potential duration, APD, and corresponding diastolic interval, DI, to maximize a functional association between the estimated action potential duration, APD, and estimated diastolic interval, from the preceding cycle length, pDI and generate an action potential duration, APD, restitution curve based on the restitution dataset corresponding to the maximized functional association, and the anatomical mapping system comprising an output display device to which the generated APD restitution curve is output. determine a cycle length, CL, of each activation signal received from the electrodes; estimate an action potential duration, APD, and diastolic interval, DI, for each cycle length, CL, wherein an initial estimate of APD and DI for each cycle length is random or based on a priori information; generate a two-dimensional restitution dataset which pairs each estimated action potential duration, APD, with an estimated diastolic interval, from a directly preceding cycle length, pDI iteratively optimize each estimated action potential duration, APD, and corresponding diastolic interval, DI, to maximize a functional association between the estimated action potential duration, APD, and estimated diastolic interval, from the preceding cycle length, pDI and generate an action potential duration, APD, restitution curve based on the restitution dataset corresponding to the maximized functional association, and the anatomical mapping system comprising an output display device to which the generated APD restitution curve is output.
A test kit for testing a device under test, in the following also referred to as DUT, comprising: a socket structure, for containing the DUT, wherein the DUT comprises an antenna and radiates a RF signal; and a reflector comprising a lower surface, wherein the RF signal emitted from the antenna of the DUT is reflected by the reflector and a reflected RF signal is received by the antenna of the DUT; wherein the socket structure comprises a socket housing, wherein the test kit further comprises a plunge structure detachable from the socket structure, and wherein the plunge structure comprises a pressing member, characterized in that the socket structure further comprises a guide plate mounted within the socket housing, and a socket base secured to the socket housing, and the plunge structure further comprises a nest, wherein the guide plate comprises a heat sink, a recessed area at a bottom portion of the guide plate for mounting a surface-mounted device, in the following also referred to as SMD, connector of the DUT, and further comprises a first through hole and a second through hole at the bottom portion of the guide plate, wherein the second through hole accommodates the heat sink, wherein the pressing member is coupled to an upper side of the nest, and wherein the reflector is coupled to a lower side of the nest. a socket structure, for containing the DUT, wherein the DUT comprises an antenna and radiates a RF signal; and a reflector comprising a lower surface, wherein the RF signal emitted from the antenna of the DUT is reflected by the reflector and a reflected RF signal is received by the antenna of the DUT; wherein the socket structure comprises a socket housing, wherein the test kit further comprises a plunge structure detachable from the socket structure, and wherein the plunge structure comprises a pressing member, characterized in that the socket structure further comprises a guide plate mounted within the socket housing, and a socket base secured to the socket housing, and the plunge structure further comprises a nest, wherein the guide plate comprises a heat sink, a recessed area at a bottom portion of the guide plate for mounting a surface-mounted device, in the following also referred to as SMD, connector of the DUT, and further comprises a first through hole and a second through hole at the bottom portion of the guide plate, wherein the second through hole accommodates the heat sink, wherein the pressing member is coupled to an upper side of the nest, and wherein the reflector is coupled to a lower side of the nest.
Microorganism oil composition enriched in polyunsaturated fatty acids, characterized in that it has: - a saturated fatty acid content less than or equal to 40 mg/g of composition, - a content of omega-3 polyunsaturated fatty acids greater than or equal to 500 mg/g of composition, and in that it comprises, relative to the total amount of monoglycerides, diglycerides, triglycerides and ethyl esters of fatty acids: - an amount of triglycerides of between 40 and 67%, - an amount of diglycerides between 10 and 35%, - an amount of monoglycerides between 1 and 5%. - a saturated fatty acid content less than or equal to 40 mg/g of composition, - a content of omega-3 polyunsaturated fatty acids greater than or equal to 500 mg/g of composition, - an amount of triglycerides of between 40 and 67%, - an amount of diglycerides between 10 and 35%, - an amount of monoglycerides between 1 and 5%.