mhurhangee/ep-ind-claims huggingface dataset:
Moulding unit for forming a thermoplastic container by blow-moulding, notably by stretch-blow-moulding, of a preform, the moulding unit comprising: - two half-moulds which are transversely mobile relative to a fixed support between a closed-together position for moulding and a separated position for extracting the finished container; - a mould bottom which is vertically mobile between a lowered position for extracting the finished container and a raised position for moulding a base of the container, the mould bottom being able to be moved between the two half-moulds in the closed-together moulding position over an oriented travel, referred to as boxing travel, extending from an initial intermediate boxing position as far as its raised moulding position; - a carriage which carries the mould bottom and which is mounted with the ability to move in the fixed support; - first actuating means for moving the carriage relative to its fixed support between a lowered position of the mould bottom and its intermediate initial boxing position; - second actuating means comprising at least one cylinder housing a piston sliding vertically and capable of pushing the mould bottom over its boxing travel through the pressurising of a lower working chamber of the cylinder; characterized in that the mould bottom is carried fixedly by the carriage, the cylinder being fixed with respect to the fixed support. - two half-moulds which are transversely mobile relative to a fixed support between a closed-together position for moulding and a separated position for extracting the finished container; - a mould bottom which is vertically mobile between a lowered position for extracting the finished container and a raised position for moulding a base of the container, the mould bottom being able to be moved between the two half-moulds in the closed-together moulding position over an oriented travel, referred to as boxing travel, extending from an initial intermediate boxing position as far as its raised moulding position; - a carriage which carries the mould bottom and which is mounted with the ability to move in the fixed support; - first actuating means for moving the carriage relative to its fixed support between a lowered position of the mould bottom and its intermediate initial boxing position; - second actuating means comprising at least one cylinder housing a piston sliding vertically and capable of pushing the mould bottom over its boxing travel through the pressurising of a lower working chamber of the cylinder;
A light emitter (30, 110), comprising: a support structure comprising a planar supporting surface, said structure further comprising a thermally conductive heat spreader, the heat spreader including a reflective surface at least covering substantially all of the supporting surface not covered by the light source; a solid state light source comprising a light emitting diode, LED, held on said supporting surface, with said support structure facilitating heat flow away from said LED; and an encapsulant (40, 120) positioned on said supporting surface surrounding said LED, said encapsulant being capable of expanding and contracting in response to a change in temperature and constrained only by said planar supporting surface; wherein said encapsulant (40, 120) is shaped around its base to provide an angled surface (42, 122) that reflects sideways directed light emitted from the LED by total internal reflection towards the top of said encapsulant; wherein the encapsulant (40, 120) is shaped on its top surface as a dome; and wherein said angled surface (42, 122) and said dome surface are adjacent. a support structure comprising a planar supporting surface, said structure further comprising a thermally conductive heat spreader, the heat spreader including a reflective surface at least covering substantially all of the supporting surface not covered by the light source; a solid state light source comprising a light emitting diode, LED, held on said supporting surface, with said support structure facilitating heat flow away from said LED; and an encapsulant (40, 120) positioned on said supporting surface surrounding said LED, said encapsulant being capable of expanding and contracting in response to a change in temperature and constrained only by said planar supporting surface; wherein said encapsulant (40, 120) is shaped around its base to provide an angled surface (42, 122) that reflects sideways directed light emitted from the LED by total internal reflection towards the top of said encapsulant; wherein the encapsulant (40, 120) is shaped on its top surface as a dome; and wherein said angled surface (42, 122) and said dome surface are adjacent.
A compound wherein the compound comprises an anilide moiety according to formula: wherein W is C, or N, if W = N, R 3 is dispensed with; X and Y are independently selected from C and N; Z is N, or O; if Z = O, R 5 is dispensed with; R 1 is selected from -CH 2 -aryl; -CH 2 -(hetero)aryl; -CH 2 -CH 2 -aryl; -CH 2 -CH 2 -(hetero)aryl; -N(R 2)-CH2-aryl; and -N(R 2)-CH2-heteroaryl R 2 is H, or Me; R 3 and R 4 are independently selected from H, F, Cl and Me; R 5 is H; R 8 is one or more substituents selected from H, F and methoxy, preferably two F or two methoxy substituents; R 9 is H, or alkyl; R 10 is selected from alkyl, aminoalkyl, morpholinalkyl, acetyl, tosyl, and benzyl; R 11 is H, NH 2, or aminobenzyl; and the pharmaceutically acceptable salts, solvates and optical isomers thereof. W is C, or N, if W = N, R 3 is dispensed with; X and Y are independently selected from C and N; Z is N, or O; if Z = O, R 5 is dispensed with; R 1 is selected from -CH 2 -aryl; -CH 2 -(hetero)aryl; -CH 2 -CH 2 -aryl; -CH 2 -CH 2 -(hetero)aryl; -N(R 2)-CH2-aryl; and -N(R 2)-CH2-heteroaryl R 2 is H, or Me; R 3 and R 4 are independently selected from H, F, Cl and Me; R 5 is H; R 8 is one or more substituents selected from H, F and methoxy, preferably two F or two methoxy substituents; R 9 is H, or alkyl; R 10 is selected from alkyl, aminoalkyl, morpholinalkyl, acetyl, tosyl, and benzyl; R 11 is H, NH 2, or aminobenzyl;
Apparatus for cleaning bulk material, comprising a container for receiving the bulk material, comprising a filling opening which is arranged in an upper region of the container, comprising at least one stirring device which is arranged in the interior of the container and such that it can rotate with respect to the container, and at least one discharge device via which the bulk material can be removed from the container, wherein this discharge device is arranged below the filling opening, and wherein at least one feed is provided, via which a cleaning liquid can be introduced into the container, wherein this feed is arranged above the discharge device characterised in that the stirring device is designed in such a way that the bulk material can be circulated within the container in a horizontal plane and in an upper region of the container there are no stirring blades provided, wherein the container has an polygonal cross section and inside the container is a filter device which substantially retains the bulk material.
An insertion device for inserting a non-rotationally symmetrical hook-shaped fastener, having a fastener head with a hook-shaped part and a bolt portion connected to the fastener head, into a workpiece, in particular a wooden workpiece, having a device housing which has a receiving space for receiving the fastener, a movable sliding device by means of which the fastener can be transferred from an ejection position, in which the fastener is arranged in the receiving space, into an insertion position in the workpiece, and an anti-rotation device for limiting rotation of the fastener about a longitudinal axis of the fastener when the fastener is transferred from the ejection position into the insertion position, characterised in that a slide of the sliding device has an anti-rotation means which can be brought into engagement with the fastener, in particular the fastener head. a device housing which has a receiving space for receiving the fastener, a movable sliding device by means of which the fastener can be transferred from an ejection position, in which the fastener is arranged in the receiving space, into an insertion position in the workpiece, and an anti-rotation device for limiting rotation of the fastener about a longitudinal axis of the fastener when the fastener is transferred from the ejection position into the insertion position, characterised in that a slide of the sliding device has an anti-rotation means which can be brought into engagement with the fastener, in particular the fastener head.
A computer-implemented method, comprising: determining, from a QR code image that comprises first-type pixels and second-type pixels, centers of candidate position detection patterns in the QR code image based on a predetermined pixel detection rule, wherein the predetermined pixel detection rule comprises that a consecutive arrangement ratio of the first-type pixels, the second-type pixels, and the first-type pixels satisfies a predetermined ratio; identifying the candidate position detection patterns based on the centers of the candidate position detection patterns; determining, from the candidate position detection patterns, a set of patterns that satisfies a QR code image positioning rule; and using the set of patterns as position detection patterns of the QR code image. determining, from a QR code image that comprises first-type pixels and second-type pixels, centers of candidate position detection patterns in the QR code image based on a predetermined pixel detection rule, wherein the predetermined pixel detection rule comprises that a consecutive arrangement ratio of the first-type pixels, the second-type pixels, and the first-type pixels satisfies a predetermined ratio; identifying the candidate position detection patterns based on the centers of the candidate position detection patterns; determining, from the candidate position detection patterns, a set of patterns that satisfies a QR code image positioning rule; and using the set of patterns as position detection patterns of the QR code image.
A system for reducing combustion dynamics in a combustor, comprising: an end cap that extends radially across at least a portion of the combustor, wherein the end cap comprises an upstream surface axially separated from a downstream surface; a shroud that circumferentially surrounds at least a portion of the end cap to partially define a fuel plenum and an air plenum between the upstream surface and the downstream surface; a horizontal barrier that extends radially between the upstream surface and the downstream surface to axially separate the fuel plenum from the air plenum; a combustion chamber downstream of the end cap; a plurality of tubes that extend from the upstream surface through the horizontal barrier and the downstream surface of the end cap, one or more of the plurality of tubes having a fuel port defined between the upstream surface and the horizontal barrier, each fuel port providing fluid communication through the respective tubes from the fuel plenum, wherein each tube provides fluid communication through the end cap to the combustion chamber; and means for reducing combustion dynamics in the combustor, the means comprising a fluid boundary extending across a first set of the plurality of tubes, wherein the fluid boundary is positioned upstream from the fuel port. an end cap that extends radially across at least a portion of the combustor, wherein the end cap comprises an upstream surface axially separated from a downstream surface; a shroud that circumferentially surrounds at least a portion of the end cap to partially define a fuel plenum and an air plenum between the upstream surface and the downstream surface; a horizontal barrier that extends radially between the upstream surface and the downstream surface to axially separate the fuel plenum from the air plenum; a combustion chamber downstream of the end cap; a plurality of tubes that extend from the upstream surface through the horizontal barrier and the downstream surface of the end cap, one or more of the plurality of tubes having a fuel port defined between the upstream surface and the horizontal barrier, each fuel port providing fluid communication through the respective tubes from the fuel plenum, wherein each tube provides fluid communication through the end cap to the combustion chamber; and means for reducing combustion dynamics in the combustor, the means comprising a fluid boundary extending across a first set of the plurality of tubes, wherein the fluid boundary is positioned upstream from the fuel port.
A method for cleaning the membrane of a nebulizer device having an aerosol generator comprising a transducer body having a vibrating membrane at its downstream end, the membrane having pores; the method comprising: • providing a refillable container for use with the nebulizer device, the container having an opening and being fillable with a cleaning liquid, wherein the opening is sized and shaped to fit onto the transducer body; • filling cleaning liquid into the container; and • placing the container onto the transducer body so that the container is held in place on the nebulizer device and the membrane is immersed in the liquid inside the container. • providing a refillable container for use with the nebulizer device, the container having an opening and being fillable with a cleaning liquid, wherein the opening is sized and shaped to fit onto the transducer body; • filling cleaning liquid into the container; and • placing the container onto the transducer body so that the container is held in place on the nebulizer device and the membrane is immersed in the liquid inside the container.
Air deflector assembly for mounting on a roof of a motor vehicle having a driver cab with a substantially vertical rear wall, the assembly including: a support frame mountable to a roof of the driver cab; a deflector panel adjustably supported by the support frame; and a positioning mechanism permitting the deflector panel to be moved between a retracted position and a selected one of several deflecting positions, wherein a forward edge of the deflector panel is pivotally mounted to the support frame; wherein the positioning mechanism comprises: a lever having a first lever end and a second lever end, the first lever end being pivotally arranged on the support frame; a link having a first link end and a second link end, the first link end being pivotally linked to the deflector panel; a hinge member pivotally connecting the lever and the link to one another; and a linear actuator having first and second pivotal connecting ends (77, 101) being arranged for altering an angle defined between the lever, the link, and the hinge member, and characterized in that one of the hinge member and a pivotal attachment of the second pivotal connecting end of the linear actuator is associated with a location on one of the lever and the link intermediate of the respective first and second lever end or the first and second link end (65, 66). a support frame mountable to a roof of the driver cab; a deflector panel adjustably supported by the support frame; and a positioning mechanism permitting the deflector panel to be moved between a retracted position and a selected one of several deflecting positions, a lever having a first lever end and a second lever end, the first lever end being pivotally arranged on the support frame; a link having a first link end and a second link end, the first link end being pivotally linked to the deflector panel; a hinge member pivotally connecting the lever and the link to one another; and a linear actuator having first and second pivotal connecting ends (77, 101) being arranged for altering an angle defined between the lever, the link, and the hinge member, and
A method of producing a ceramic article, the method comprising: heating solid silicon monoxide to provide gaseous silicon monoxide; and exposing a structure having a free-carbon-containing material to the gaseous silicon monoxide to convert free carbon of the free-carbon-containing material to silicon carbide; wherein the solid silicon monoxide is provided as a particulate dispersed in a preceramic polymer in a coating on at least a portion of the structure; said method further including converting the preceramic polymer to a ceramic material. heating solid silicon monoxide to provide gaseous silicon monoxide; and exposing a structure having a free-carbon-containing material to the gaseous silicon monoxide to convert free carbon of the free-carbon-containing material to silicon carbide; wherein the solid silicon monoxide is provided as a particulate dispersed in a preceramic polymer in a coating on at least a portion of the structure; said method further including converting the preceramic polymer to a ceramic material.
A user equipment, UE, comprising: a display configured to render a portion of a 360-degree video; a processor configured to generate metadata including information related to at least one viewport of the UE, the viewport being the portion of the 360-degree video displayed and viewed by a user; and a communication unit configured to transmit the metadata including flag information, to a server or another UE, wherein in case that the flag information is set to a first value, the flag information indicates that viewport coordinates for a frame of the 360-degree video is copied from viewport coordinates of a previous frame of the frame, and in case that the flag information is set to a second value, the flag information indicates that viewport coordinates for the frame is linearly interpolated from viewport coordinates of previous and next frames in which the viewport coordinates is transmitted. a display configured to render a portion of a 360-degree video; a processor configured to generate metadata including information related to at least one viewport of the UE, the viewport being the portion of the 360-degree video displayed and viewed by a user; and a communication unit configured to transmit the metadata including flag information, to a server or another UE, wherein in case that the flag information is set to a first value, the flag information indicates that viewport coordinates for a frame of the 360-degree video is copied from viewport coordinates of a previous frame of the frame, and in case that the flag information is set to a second value, the flag information indicates that viewport coordinates for the frame is linearly interpolated from viewport coordinates of previous and next frames in which the viewport coordinates is transmitted.
Method for detecting fires in railway vehicles, comprising: - Sucking-in of compartment air in a railway vehicle by means of at least two suctioning devices (10a, 10b) operated separately from one another in a respective control area, - whereupon of a first suctioning device a suction pipe branches off into a first control area and a suction pipe branches off into a second control area and of a second suctioning device a suction pipe branches off into the first control area and a suction pipe branches off into the second control area, - separate evaluation of monitoring parameters in the respective suctioning devices (10a, 10b), - outputting of a first control signal simultaneous on detection of a monitoring parameter threshold value in at least two suctioning devices (10a, 10b) dedicated to a same control area. - Sucking-in of compartment air in a railway vehicle by means of at least two suctioning devices (10a, 10b) operated separately from one another in a respective control area, - whereupon of a first suctioning device a suction pipe branches off into a first control area and a suction pipe branches off into a second control area and of a second suctioning device a suction pipe branches off into the first control area and a suction pipe branches off into the second control area, - separate evaluation of monitoring parameters in the respective suctioning devices (10a, 10b), - outputting of a first control signal simultaneous on detection of a monitoring parameter threshold value in at least two suctioning devices (10a, 10b) dedicated to a same control area.
A sealed system for an appliance, comprising: a linear compressor comprising a casing extending along an axial direction from a first end portion to a second end portion, the casing comprising a cylinder assembly defining a chamber proximal to the second end portion, and a piston slidably received within the chamber of the cylinder assembly; a shell defining an internal volume enclosing the linear compressor and lubrication oil therein; a condenser in downstream fluid communication with the linear compressor to receive a compressed refrigerant therefrom; an oil outlet conduit extending through the shell to the casing of the linear compressor; and a heat exchanger spaced apart from the internal volume in fluid communication with the oil outlet conduit to receive lubrication oil from the linear compressor, characterized in that the casing further defines an oil reservoir, an oil exhaust, and a gas vent, the oil reservoir positioned radially outward from the chamber of the cylinder assembly to selectively direct lubrication oil thereto, the oil exhaust extending from the oil reservoir to the oil outlet conduit, the gas vent extending from the oil reservoir to the internal volume in fluid parallel with the oil exhaust. a linear compressor comprising a casing extending along an axial direction from a first end portion to a second end portion, the casing comprising a cylinder assembly defining a chamber proximal to the second end portion, and a piston slidably received within the chamber of the cylinder assembly; a casing extending along an axial direction from a first end portion to a second end portion, the casing comprising a cylinder assembly defining a chamber proximal to the second end portion, and a piston slidably received within the chamber of the cylinder assembly; a shell defining an internal volume enclosing the linear compressor and lubrication oil therein; a condenser in downstream fluid communication with the linear compressor to receive a compressed refrigerant therefrom; an oil outlet conduit extending through the shell to the casing of the linear compressor; and a heat exchanger spaced apart from the internal volume in fluid communication with the oil outlet conduit to receive lubrication oil from the linear compressor, characterized in that the casing further defines an oil reservoir, an oil exhaust, and a gas vent, the oil reservoir positioned radially outward from the chamber of the cylinder assembly to selectively direct lubrication oil thereto, the oil exhaust extending from the oil reservoir to the oil outlet conduit, the gas vent extending from the oil reservoir to the internal volume in fluid parallel with the oil exhaust.
Process for manufacturing at least one compound of formula: CF 3 -CX n -CHX n in which X independently represents a hydrogen, fluorine or chlorine atom, Z independently represents a hydrogen or fluorine atom and n = 0 or 1, comprising at least one step during which at least one compound of formula: CX 2 -CX m -CH m XY in which X and Y independently represent a hydrogen, fluorine or chlorine atom and m = 0 or 1, reacts with HF in the gaseous phase in the presence of a fluorination catalyst, characterized in that the catalyst is based on chromium oxyfluoride containing at least nickel as cometal and at least one rare-earth metal.