mhurhangee/ep-ind-claims huggingface dataset:
A transfer device (900, 1000), comprising: a housing having a first internal section (910, 1050), a second internal section (920, 1060), first and second open ends, and a base structure positioned between the first and second open ends; wherein the base structure includes a first base portion fixedly coupled to an inner surface of the housing, and a second base portion movably coupled to the inner surface of the housing; a first needle (902, 1020) comprising (i) a first needle portion extending from the first base portion to the first internal section (910, 1050) and (ii) a second needle portion extending from the first base portion to the second internal section (920, 1060); a second needle (904, 1030) comprising a third needle portion extending from the second base portion to the first internal section (910, 1050); and a vent (930, 1035) that is coupled to the third needle portion, characterized in that the vent (930, 1035) extends through an elongated slot (925, 1040) of the housing. a housing having a first internal section (910, 1050), a second internal section (920, 1060), first and second open ends, and a base structure positioned between the first and second open ends; wherein the base structure includes a first base portion fixedly coupled to an inner surface of the housing, and a second base portion movably coupled to the inner surface of the housing; a first needle (902, 1020) comprising (i) a first needle portion extending from the first base portion to the first internal section (910, 1050) and (ii) a second needle portion extending from the first base portion to the second internal section (920, 1060); a second needle (904, 1030) comprising a third needle portion extending from the second base portion to the first internal section (910, 1050); and a vent (930, 1035) that is coupled to the third needle portion, characterized in that the vent (930, 1035) extends through an elongated slot (925, 1040) of the housing.
A lighting device including a lighting source arranged between a first and a second component with a coupling structure (G1, G2, G3; G1, G2) interposed between the first and the second component to sealingly couple them together, wherein said coupling structure is a layered structure including at least one layer resiliently deformable to permit relative displacement of the first and second components, characterized in that: - said at least one resiliently deformable layer is an elastic glue, and - said at least one resiliently deformable layer is coupled with at least another layer in said layered structure, wherein said at least another layer in said layered structure is a solid glue. - said at least one resiliently deformable layer is an elastic glue, and - said at least one resiliently deformable layer is coupled with at least another layer in said layered structure, wherein said at least another layer in said layered structure is a solid glue.
A method for processing a vascular image volume, comprising: acquiring one or more vascular image volumes using an imaging system; providing the one or more vascular image volumes to one or more neural networks (50, 174), wherein the one or more neural networks are trained using at least one or more synthetic images to perform one or more of: removing the effects of calcium in all or part of the vascular image volumes and segmenting one or more vessels within the vascular image volumes after the effects of calcium are removed; or segmenting one or more vessels within the vascular image volumes and determining a contrast level for one or more sections of the segmented vessels, wherein determining the contrast level comprises determining a Hounsfield unit estimate for one or more positions along the segmented vessels. acquiring one or more vascular image volumes using an imaging system; providing the one or more vascular image volumes to one or more neural networks (50, 174), wherein the one or more neural networks are trained using at least one or more synthetic images to perform one or more of: removing the effects of calcium in all or part of the vascular image volumes and segmenting one or more vessels within the vascular image volumes after the effects of calcium are removed; or segmenting one or more vessels within the vascular image volumes and determining a contrast level for one or more sections of the segmented vessels, wherein determining the contrast level comprises determining a Hounsfield unit estimate for one or more positions along the segmented vessels. removing the effects of calcium in all or part of the vascular image volumes and segmenting one or more vessels within the vascular image volumes after the effects of calcium are removed; or segmenting one or more vessels within the vascular image volumes and determining a contrast level for one or more sections of the segmented vessels, wherein determining the contrast level comprises determining a Hounsfield unit estimate for one or more positions along the segmented vessels.
Method for operating a gas engine, wherein, during the compression stroke, air or an air/exhaust gas mixture is compressed in a cylinder of the gas engine and the compressed air is pressed into a pre-combustion chamber, into which pre-combustion chamber an ignition fuel is fed to form an air/ignition fuel mixture, a main fuel gas is fed into a main combustion chamber of the cylinder before the end of the compression stroke, and the air/ignition fuel mixture is ignited in the pre-combustion chamber, whereby hot combustion gas flows from the pre-combustion chamber into the main combustion chamber and ignites the injected main fuel gas there, characterized in that, before the ignition of the air/ignition fuel mixture in the pre-combustion chamber, ignition fuel is again fed into the pre-combustion chamber in order to enrich the air/ignition fuel mixture in the pre-combustion chamber.
Roof, ceiling or wall element consisting of a plurality of successive layers of wooden boards (2; 2a, 2b), wherein the wooden boards (2; 2a, 2b) of the successive layers lie one on another with their broad faces facing one another and the wooden boards (2; 2a, 2b) of one layer are connected with the wooden boards (2; 2a, 2b) of at least the adjoining layer by retaining elements, characterised in that the wooden boards (2; 2a, 2b) are unplaned on the broad faces facing one another and at least the narrow faces of the wooden boards (2; 2a, 2b) forming one visible side of the roof, ceiling or wall element are stepped at their edges by an upper and lower groove (9, 10).
A sensor arrangement for determining a variable tension of a revolving chain drive or belt drive comprising a spring element that is fastened to a base body and that is actively connected to the chain drive or belt drive and an inductive sensor that monitors tension-dependent changes of the spring element, wherein the inductive sensor for detecting a variable mutual distance of a plurality of spring windings of the spring element formed as a metallic compression spring is arranged directly opposite said spring windings, characterized in that the inductive sensor is axially arranged within the compression spring, with an inner diameter of the compression spring being greater than an outer diameter of the inductive sensor.
A method for performing texture mapping of pixel data, the method comprising the steps of: a) a co-processor element receiving a block of texture fetches, the co-processor element having a local memory, wherein each texture fetch includes pixel coordinates for a pixel in an image; b) the co-processor element determining one or more corresponding blocks of a texture stored in a main memory from the pixel coordinates of each texture fetch and a number of blocks NB that make up the texture, wherein the texture has been divided into the number NB of blocks, wherein each block contains all mipmap levels of the texture and wherein NB is chosen such that a number N of the blocks can be cached in the local memory of the co-processor element, wherein N is less than NB; c) loading to the local memory one or more of the corresponding blocks of the texture if the one or more blocks of texture are not currently loaded in the local memory; and d) using the co-processor element to perform texture filtering of one or more of the texture blocks in the local memory to generate a pixel value corresponding to one of the texture fetches, the method being characterised in that the texture provides one or more columns and/or rows of bordering pixels along an edge of the texture, wherein the bordering pixels wrap around to an opposite edge of the texture. a) a co-processor element receiving a block of texture fetches, the co-processor element having a local memory, wherein each texture fetch includes pixel coordinates for a pixel in an image; b) the co-processor element determining one or more corresponding blocks of a texture stored in a main memory from the pixel coordinates of each texture fetch and a number of blocks NB that make up the texture, wherein the texture has been divided into the number NB of blocks, wherein each block contains all mipmap levels of the texture and wherein NB is chosen such that a number N of the blocks can be cached in the local memory of the co-processor element, wherein N is less than NB; c) loading to the local memory one or more of the corresponding blocks of the texture if the one or more blocks of texture are not currently loaded in the local memory; and d) using the co-processor element to perform texture filtering of one or more of the texture blocks in the local memory to generate a pixel value corresponding to one of the texture fetches,
A coaxial microwave plasma torch, comprising: an outside conductor (1; 21) in the form of a solid cylinder, the outside conductor having: a circular axial hole (2; 21a) at first end face thereof, a through-hole (11; 29) at a second end face thereof and a cylindrical space (14; 33) kept in the radial direction inside the outside conductor, the outside conductor, the circular axial hole, the through-hole and the cylindrical space having the same axis; a cylindrical electric discharge tube (3; 22) made of dielectric material, inserted into and fixed to said circular axial hole, and having one end protruding from said first end face of said outside conductor; a coaxial cable (6; 24) for microwave transmission having an inner conductor, an outer conductor and a coaxial connector (10, 27), the coaxial connector being fitted to the second end face of said outside conductor, the outer conductor of said coaxial cable being electrically connected to said outside conductor; an antenna (9; 28) electrically connected to the inner conductor at one end of said coaxial cable and extending from said coaxial cable into said electric discharge tube through said through-hole while being electrically insulated from said outside conductor; and a gas pipeline (13; 32) for supplying gas into said electric discharge tube being provided in said outside conductor. an outside conductor (1; 21) in the form of a solid cylinder, the outside conductor having: a circular axial hole (2; 21a) at first end face thereof, a through-hole (11; 29) at a second end face thereof and a cylindrical space (14; 33) kept in the radial direction inside the outside conductor, the outside conductor, the circular axial hole, the through-hole and the cylindrical space having the same axis; a cylindrical electric discharge tube (3; 22) made of dielectric material, inserted into and fixed to said circular axial hole, and having one end protruding from said first end face of said outside conductor; a coaxial cable (6; 24) for microwave transmission having an inner conductor, an outer conductor and a coaxial connector (10, 27), the coaxial connector being fitted to the second end face of said outside conductor, the outer conductor of said coaxial cable being electrically connected to said outside conductor; an antenna (9; 28) electrically connected to the inner conductor at one end of said coaxial cable and extending from said coaxial cable into said electric discharge tube through said through-hole while being electrically insulated from said outside conductor; and a gas pipeline (13; 32) for supplying gas into said electric discharge tube being provided in said outside conductor.
Agricultural distributing machine, preferably a field sprayer or pneumatic fertiliser spreader, at least comprising, - a carrier vehicle, with an inclination detection device, which is configured to detect an inclination of the carrier vehicle, preferably transverse to the direction of travel, - a spreader boom for spreading material, such as fertiliser, crop protection agent or seed, with several boom segments (14; 14a-14g), which are connected to one another by means of joints and can each be folded relative to one another by means of motorised adjusting devices into an unfolded working position and a folded transport position, wherein at least one boom segment (14; 14a-14g) forms a central part which is arranged, directly or indirectly, on the carrier vehicle so as to be movable at least about a pivot axis extending in the direction of travel, - a control device for providing actuating signals for the actuating devices, - a position detection device, which is configured to provide position signals to the control device on the basis of positions of the linkage segments (14; 14a-14g), characterised in that the control device is configured to provide actuating signals for the actuating devices as a function of the detected inclination of the carrier vehicle in such a way that actuating movements of the actuating devices are carried out in such a way that an at least approximately synchronous and/or defined asynchronous folding of at least two linkage segments (14; 14a-14g) relative to the central part is carried out. - a carrier vehicle, with an inclination detection device, which is configured to detect an inclination of the carrier vehicle, preferably transverse to the direction of travel, - a spreader boom for spreading material, such as fertiliser, crop protection agent or seed, with several boom segments (14; 14a-14g), which are connected to one another by means of joints and can each be folded relative to one another by means of motorised adjusting devices into an unfolded working position and a folded transport position, wherein at least one boom segment (14; 14a-14g) forms a central part which is arranged, directly or indirectly, on the carrier vehicle so as to be movable at least about a pivot axis extending in the direction of travel, - a control device for providing actuating signals for the actuating devices, - a position detection device, which is configured to provide position signals to the control device on the basis of positions of the linkage segments (14; 14a-14g),
A method for obtaining an elevator (100; 200) with a low overhead space and a low pit space, comprising: positioning a car (102; 202) of the elevator (100; 200) to have a space from a vertical wall of a hoist-way; mounting a governor (116; 206) to the car (102; 202) below a machine that applies a traction force to one or more belts of the elevator (100; 200), the governor (116; 206) fitting in the space between the car (102; 202) and the wall; mounting a sheave (112; 212) to the car (102; 202); characterised in that the space has a width, defined as a distance between the car (102, 202) and the vertical wall of the host-way, of at least 210 mm; the sheave (112; 212) is positioned in a projection of the car (102; 202) to the wall; and the method further comprises fitting a drive configured for controlling the speed of the elevator car (102; 202) by controlling the speed of at least one sheave (112; 212) in the same space. positioning a car (102; 202) of the elevator (100; 200) to have a space from a vertical wall of a hoist-way; mounting a governor (116; 206) to the car (102; 202) below a machine that applies a traction force to one or more belts of the elevator (100; 200), the governor (116; 206) fitting in the space between the car (102; 202) and the wall; mounting a sheave (112; 212) to the car (102; 202); characterised in that the space has a width, defined as a distance between the car (102, 202) and the vertical wall of the host-way, of at least 210 mm; the sheave (112; 212) is positioned in a projection of the car (102; 202) to the wall; and the method further comprises fitting a drive configured for controlling the speed of the elevator car (102; 202) by controlling the speed of at least one sheave (112; 212) in the same space.
Cleaning device for cleaning and pretreating teats of an animal for milking, comprising: a frame provided with an arm; a cleaning head arranged on the arm and provided with a rotatable holder on which one or more rotatable cleaning elements are provided; and moving means connected to the frame for displacing the cleaning head relative to the teats such that the teats are cleanable using the cleaning elements, wherein the rotatable holder is a rotatable sub-arm, characterized in that the rotatable sub-arm is extendable substantially in line with the arm. a frame provided with an arm; a cleaning head arranged on the arm and provided with a rotatable holder on which one or more rotatable cleaning elements are provided; and moving means connected to the frame for displacing the cleaning head relative to the teats such that the teats are cleanable using the cleaning elements, wherein the rotatable holder is a rotatable sub-arm, characterized in that the rotatable sub-arm is extendable substantially in line with the arm.
A microscope slide holder for an optical microscope, comprising - a base portion, which is a lower portion of the slide holder intended to come against a stationary sample stage of the optical microscope, - a slide holder portion arranged on the base portion and having a mounting zone capable of receiving microscope slides of one or more slide types, the slide holder portion being movably arranged on the base portion, - a manipulator for moving the slide holder portion with respect to the base portion in at least two orthogonal dimensions, characterized in that - the base portion is dimensioned to fit onto a mounting zone on the stationary sample stage of the optical microscope designed for at least one of said one or more microscope slide types, wherein the largest dimension of the base portion is less than 80 mm +/- 1 mm; and - wherein the thickness of the base portion is less than 5 mm, in particular 0.5 mm - 2.5 mm, on one, two or more subportions thereof, the subportions being open so as to allow one or more mechanical slide immobilization members of a microscope to immobilize the slide holder on the stationary sample stage of the microscope. - a base portion, which is a lower portion of the slide holder intended to come against a stationary sample stage of the optical microscope, - a slide holder portion arranged on the base portion and having a mounting zone capable of receiving microscope slides of one or more slide types, the slide holder portion being movably arranged on the base portion, - a manipulator for moving the slide holder portion with respect to the base portion in at least two orthogonal dimensions, characterized in that - the base portion is dimensioned to fit onto a mounting zone on the stationary sample stage of the optical microscope designed for at least one of said one or more microscope slide types, wherein the largest dimension of the base portion is less than 80 mm +/- 1 mm; and - wherein the thickness of the base portion is less than 5 mm, in particular 0.5 mm - 2.5 mm, on one, two or more subportions thereof, the subportions being open so as to allow one or more mechanical slide immobilization members of a microscope to immobilize the slide holder on the stationary sample stage of the microscope.
An article comprising: a body including a coating thereon, the coating having a first portion (66 a) disposed on a first section of the body and a second portion (66 b) disposed on a second, different section of the body, the first portion having a first microstructure and the second portion having a second, different microstructure; wherein the coating is a ceramic-based coating; wherein the first section is on a platform and the second section is on an airfoil attached to the platform; wherein the first microstructure is a random grain structure and the second microstructure is a columnar microstructure; and further comprising a bond coat on the body underlying the coating, wherein the bond coat is unpeened and has a relatively rough interface surface at the first section of the body, to which the first portion is mechanically bonded, and is peened and has a relatively smooth interface surface at the second section of the body, and to which the second portion is chemically bonded; wherein the body is a vane assembly including first and second airfoils attached at opposed ends to, respectively, first and second platforms (64 a, 64 b); and wherein the first portion is on a line-of-sight surface on platforms (66a, 66b) and the second portion is on a non-line-of-sight surface on the first and second airfoils and at least between the airfoils.
An immobilizing device for limiting movement of a cargo container in a cargo area, the device comprising: a tubular member configured to be inserted into an aperture of a cargo deck; characterized by: the tubular member having a hollow interior configured to receive a portion of the cargo deck located in the aperture; a stop member (46; 78; 96) extending at least partially across the hollow interior of the tubular member, wherein the stop member is configured such that extension of the tubular member into the aperture is limited by contact between the stop member and the portion of the cargo deck located in the aperture; and an extension (48, 60; 92, 94; 100, 104) associated with the tubular member and configured to engage a lower edge of the cargo container, such that the device limits movement of the cargo container upon receipt of the tubular member in the aperture and engagement between the extension and the lower edge of the cargo container. the tubular member having a hollow interior configured to receive a portion of the cargo deck located in the aperture; a stop member (46; 78; 96) extending at least partially across the hollow interior of the tubular member, wherein the stop member is configured such that extension of the tubular member into the aperture is limited by contact between the stop member and the portion of the cargo deck located in the aperture; and an extension (48, 60; 92, 94; 100, 104) associated with the tubular member and configured to engage a lower edge of the cargo container, such that the device limits movement of the cargo container upon receipt of the tubular member in the aperture and engagement between the extension and the lower edge of the cargo container.