mhurhangee/ep-ind-claims huggingface dataset:
A releasable medical drape (106, 206, 306) for providing a seal over a tissue site on a patient, the releasable medical drape (106, 206, 306) comprising: a liquid-impermeable-vapor-permeable layer (132, 232, 332) which is a breathable flexible film having a first side (134, 234, 334) and a second, patient-facing side (136, 236, 336); and a pressure-sensitive adhesive layer (138, 276, 376) having a first side and a second, patient-facing side, wherein the first side of the pressure-sensitive adhesive layer (138, 276, 376) is coupled to the second, patient-facing side (136, 236, 336) of the liquid-impermeable-vapor-permeable layer (132, 232, 332), characterised in that the releasable medical drape comprises a soft-gel release layer (144, 282, 382) having a stiffness between 5 Shore OO and 80 Shore OO, a plurality of apertures, and having a first side and a second, patient-facing side, wherein the first side of the soft-gel release layer (144, 282, 382) is coupled to the second, patient-facing side of the pressure-sensitive adhesive layer (138, 276, 376), wherein the pressure-sensitive adhesive layer (138, 276, 376) is configured to extend at least partially through the plurality of apertures in the soft-gel release layer (144, 282, 382) when hand pressure is applied to the first side (134, 234, 334) of the liquid-impermeable-vapor-permeable layer (132, 232, 332), and wherein the plurality of apertures has an average effective diameter in the range of about 6 mm to about 50 mm. a liquid-impermeable-vapor-permeable layer (132, 232, 332) which is a breathable flexible film having a first side (134, 234, 334) and a second, patient-facing side (136, 236, 336); and a pressure-sensitive adhesive layer (138, 276, 376) having a first side and a second, patient-facing side, wherein the first side of the pressure-sensitive adhesive layer (138, 276, 376) is coupled to the second, patient-facing side (136, 236, 336) of the liquid-impermeable-vapor-permeable layer (132, 232, 332), characterised in that the releasable medical drape comprises a soft-gel release layer (144, 282, 382) having a stiffness between 5 Shore OO and 80 Shore OO, a plurality of apertures, and having a first side and a second, patient-facing side, wherein the first side of the soft-gel release layer (144, 282, 382) is coupled to the second, patient-facing side of the pressure-sensitive adhesive layer (138, 276, 376), wherein the pressure-sensitive adhesive layer (138, 276, 376) is configured to extend at least partially through the plurality of apertures in the soft-gel release layer (144, 282, 382) when hand pressure is applied to the first side (134, 234, 334) of the liquid-impermeable-vapor-permeable layer (132, 232, 332), and wherein the plurality of apertures has an average effective diameter in the range of about 6 mm to about 50 mm.
A non-transitory computer-readable medium on which is stored machine-readable instructions that when executed by a processor, cause the processor to: obtain a digital model of a transfer screen and a corresponding forming screen to be fabricated by a three-dimensional fabrication system; determine placements of a plurality of pores in the digital model of the transfer screen, wherein the transfer screen is to be mounted on a transfer mold via an attachment mechanism and to engage a surface of a wet part formed on the corresponding forming screen, wherein the forming screen has a first shape and the transfer screen has a second shape that is complementary to the first shape, and wherein the placements of the plurality of pores are determined to allow liquid to be suctioned from the wet part when a vacuum pressure is applied to the transfer mold; modify the digital model of the transfer screen to include the plurality of pores at the determined placements, wherein the transfer screen includes multiple surfaces, and wherein the instructions are further to cause the processor to: determine the placements of the plurality of pores to cause suction forces to substantially evenly be distributed across the multiple surfaces of the transfer screen when the vacuum pressure is applied to the transfer mold. obtain a digital model of a transfer screen and a corresponding forming screen to be fabricated by a three-dimensional fabrication system; determine placements of a plurality of pores in the digital model of the transfer screen, wherein the transfer screen is to be mounted on a transfer mold via an attachment mechanism and to engage a surface of a wet part formed on the corresponding forming screen, wherein the forming screen has a first shape and the transfer screen has a second shape that is complementary to the first shape, and wherein the placements of the plurality of pores are determined to allow liquid to be suctioned from the wet part when a vacuum pressure is applied to the transfer mold; modify the digital model of the transfer screen to include the plurality of pores at the determined placements, wherein the transfer screen includes multiple surfaces, and wherein the instructions are further to cause the processor to: determine the placements of the plurality of pores to cause suction forces to substantially evenly be distributed across the multiple surfaces of the transfer screen when the vacuum pressure is applied to the transfer mold.
Rail vehicle for passenger transport which comprises at least one carriage, wherein the carriage has an inner floor portion which is constructed in a trough-like manner, characterized in that the inner floor portion which is constructed in a trough-like manner has a circumferential profile at the edges thereof and in that it is otherwise constructed in a substantially planar manner, wherein the circumferential profile comprises an angular strip having at least two members (15, 16), wherein a first member of the angular strip is arranged horizontally and consequently parallel with the otherwise substantially planar trough-like inner floor portion and a second member of the angular strip extends vertically, wherein the first member of the angular strip is adhesively bonded to the otherwise substantially planar inner floor portion, wherein the second member of the angular strip is covered by a wall or a foot plate.
A polymerase-linked nucleotide comprising a nucleotide covalently attached to a catalytically active polymerase enzyme by a flexible linker; wherein the linker attachment to the nucleotide allows the polymerase to incorporate the nucleotide into the 3' end of a polynucleotide.
A drop terminal mounting system comprising: a drop terminal including a drop terminal housing having a cover and a base, wherein the cover and the base cooperatively define an interior of the drop terminal housing; a plurality of fiber optic adapters mounted to the cover of the drop terminal housing, the fiber optic adapters having exterior ports that are accessible from an exterior of the drop terminal housing; further comprising: a bracket including a cradle for receiving the drop terminal, the bracket including a pocket defined by retention tabs and a first endwall located at a first end of the bracket and one or more resilient latches located at a second end of the bracket, wherein the drop terminal is retained in the cradle by the pocket and a snap-fit connection provided by the one or more resilient latches. a drop terminal including a drop terminal housing having a cover and a base, wherein the cover and the base cooperatively define an interior of the drop terminal housing; a plurality of fiber optic adapters mounted to the cover of the drop terminal housing, the fiber optic adapters having exterior ports that are accessible from an exterior of the drop terminal housing; further comprising: a bracket including a cradle for receiving the drop terminal, the bracket including a pocket defined by retention tabs and a first endwall located at a first end of the bracket and one or more resilient latches located at a second end of the bracket, wherein the drop terminal is retained in the cradle by the pocket and a snap-fit connection provided by the one or more resilient latches. a bracket including a cradle for receiving the drop terminal, the bracket including a pocket defined by retention tabs and a first endwall located at a first end of the bracket and one or more resilient latches located at a second end of the bracket, wherein the drop terminal is retained in the cradle by the pocket and a snap-fit connection provided by the one or more resilient latches.
Device for applying adhesive to cores for a log comprising moving means configured to cause at least one core to advance along a feed direction and at least one dispensing means configured for dispensing an amount of adhesive on said core, wherein said dispensing means is movable along an application direction substantially orthogonal to said feed direction and is configured to selectively dispense said amount of adhesive along at least one portion of said core during movement along said application direction, characterized in that it comprises adjustment means of the position of said dispensing means along said feed direction, the position of said dispensing means along said feed direction being adjustable according to the diameter of said core.
Air spring system for rail vehicles with a fastening plate which is configured to be fastened to the body of a rail vehicle, with a connector part which is configured to be fastened to a chassis part of the rail vehicle, with an air spring bellows which is connected by way of a first end to the fastening plate and which is connected by way of a second end, which lies opposite the first end, to the connector part, the air spring bellows being connected to the fastening plate and the connector part in such a way that an air-tight working space is formed between the fastening plate and the connector part, the air spring bellows having an annularly circumferential wall section, characterized in that an electrical conductor which runs around the wall section and is connected fixedly to the wall section is provided on the circumferential wall section, the air spring system having a core section made from paramagnetic or ferromagnetic material, the projection of which onto the plane, in which the circumferential conductor extends, is arranged within the circumferential conductor, and with a control device which is configured to load the circumferential conductor with a voltage such that a current flows through the circumferential conductor. with a fastening plate which is configured to be fastened to the body of a rail vehicle, with a connector part which is configured to be fastened to a chassis part of the rail vehicle, with an air spring bellows which is connected by way of a first end to the fastening plate and which is connected by way of a second end, which lies opposite the first end, to the connector part, the air spring bellows being connected to the fastening plate and the connector part in such a way that an air-tight working space is formed between the fastening plate and the connector part, the air spring bellows having an annularly circumferential wall section, characterized in that an electrical conductor which runs around the wall section and is connected fixedly to the wall section is provided on the circumferential wall section, the air spring system having a core section made from paramagnetic or ferromagnetic material, the projection of which onto the plane, in which the circumferential conductor extends, is arranged within the circumferential conductor, and with a control device which is configured to load the circumferential conductor with a voltage such that a current flows through the circumferential conductor.
Household appliance, in particular cooking appliance, with a system element and with a control element (4a, 4b, 4c) movable relative to the system element for controlling an operating state of the domestic appliance, which, using a contact surface (8a, 8b, 8b), makes contact with a contact surface (9a, 9b, 9c) of the system element, characterised in that the contact surface (8a, 8b, 8c) of the control element (4a, 4b, 4c) and/or the contact surface (9a, 9b, 9c) of the system element is or are formed at least in sections by a coating (10a, 10b, 10c), wherein the coating (10a, 10b, 10c) is a CVD coating, and wherein a layer thickness of the coating (10a, 10b, 10c) amounts to less than 1 micrometre, in particular the layer thickness lies in the range between 100 to 500 nanometres.
A nuclear reactor comprising: a pressure vessel having an axial dimension; a fluid direct vessel inlet nozzle extending through the wall of the pressure vessel; an internal support structure supported within the pressure vessel in spaced relationship with and opposite a pressure vessel interior side of said fluid direct vessel inlet nozzle; and a deflector positioned between the internal support structure and the fluid direct vessel inlet nozzle, in-line with the fluid direct vessel inlet nozzle, for deflecting downward fluid flowing through the fluid direct vessel inlet nozzle into the pressure vessel, the deflector having a main body with a front side facing the fluid direct vessel inlet nozzle and a rear side facing the internal support structure, the rear side of the main body having at least one protrusion affixed to the internal support structure, so that a gap exists between the rear side of the main body adjacent the protrusion and the internal support structure, characterized in that the deflector is a metal block having an axial groove machined into its front side extending from below a top surface of the metal block to and through a bottom of the metal block. a pressure vessel having an axial dimension; a fluid direct vessel inlet nozzle extending through the wall of the pressure vessel; an internal support structure supported within the pressure vessel in spaced relationship with and opposite a pressure vessel interior side of said fluid direct vessel inlet nozzle; and a deflector positioned between the internal support structure and the fluid direct vessel inlet nozzle, in-line with the fluid direct vessel inlet nozzle, for deflecting downward fluid flowing through the fluid direct vessel inlet nozzle into the pressure vessel, the deflector having a main body with a front side facing the fluid direct vessel inlet nozzle and a rear side facing the internal support structure, the rear side of the main body having at least one protrusion affixed to the internal support structure, so that a gap exists between the rear side of the main body adjacent the protrusion and the internal support structure, characterized in that the deflector is a metal block having an axial groove machined into its front side extending from below a top surface of the metal block to and through a bottom of the metal block.
A multi-layered membrane comprising: i. a first thermoplastic first layer; and ii. a second thermoplastic layer, where the second layer includes at least two sub-layers that are formed by co-extrusion, and where at least one of the layers formed by co-extrusion includes expandable graphite. i. a first thermoplastic first layer; and ii. a second thermoplastic layer, where the second layer includes at least two sub-layers that are formed by co-extrusion, and where at least one of the layers formed by co-extrusion includes expandable graphite.
A recoil absorber for a firearm comprising: a housing; a stock carrier assembly mounted in the housing, the stock carrier assembly configured to connect the recoil absorber to a butt of the firearm; and a damper cartridge assembly mounted in the housing, the damper cartridge assembly comprising a piston configured to dampen a recoil force exerted by the firearm by allowing fluid flow through a first parallel path within the damper cartridge assembly when pressure of the fluid is above a first value, and allowing the fluid flow through the first parallel path and through a second parallel path within the damper cartridge assembly when the pressure of the fluid is above a second value, said piston including a poppet and a secondary spring applying a biasing force on the poppet, wherein said poppet is movable against the secondary spring by a force of the fluid to expose discharge ports in the piston to form said second parallel path, to thereby self-regulate the fluid pressure. a housing; a stock carrier assembly mounted in the housing, the stock carrier assembly configured to connect the recoil absorber to a butt of the firearm; and a damper cartridge assembly mounted in the housing, the damper cartridge assembly comprising a piston configured to dampen a recoil force exerted by the firearm by allowing fluid flow through a first parallel path within the damper cartridge assembly when pressure of the fluid is above a first value, and allowing the fluid flow through the first parallel path and through a second parallel path within the damper cartridge assembly when the pressure of the fluid is above a second value, said piston including a poppet and a secondary spring applying a biasing force on the poppet, wherein said poppet is movable against the secondary spring by a force of the fluid to expose discharge ports in the piston to form said second parallel path, to thereby self-regulate the fluid pressure.
A method for providing learning data for an AI system comprising the steps of: - capturing images of machined workpieces by an image capturing device of the AI system; - classifying the captured images by the AI system by means of a classification criterion, wherein the classification of the captured images determines whether the respective workpieces are defect-free or defective; - providing a quality information of the workpiece, wherein it is determined as a function of the quality information whether the respective workpiece is defect-free or defective, wherein defective workpieces are sorted out into a collecting container; - detecting by a sensor device of the collecting container if a respective workpiece is sorted out into the collecting container, wherein by detecting the sorted-out workpieces by the sensor device, the sorted-out workpiece is associated with the associated image, and wherein the associated image is marked with a sorting-out mark, wherein the sorting-out mark is provided by the AI system as a function of the classification; - providing the images marked with the sorting-out mark as learning data for the AI system. - capturing images of machined workpieces by an image capturing device of the AI system; - classifying the captured images by the AI system by means of a classification criterion, wherein the classification of the captured images determines whether the respective workpieces are defect-free or defective; - providing a quality information of the workpiece, wherein it is determined as a function of the quality information whether the respective workpiece is defect-free or defective, wherein defective workpieces are sorted out into a collecting container; - detecting by a sensor device of the collecting container if a respective workpiece is sorted out into the collecting container, wherein by detecting the sorted-out workpieces by the sensor device, the sorted-out workpiece is associated with the associated image, and wherein the associated image is marked with a sorting-out mark, wherein the sorting-out mark is provided by the AI system as a function of the classification; - providing the images marked with the sorting-out mark as learning data for the AI system.
A bushing for manufacturing a glass fiber, comprising: a base plate and a nozzle for discharging molten glass, the nozzle being arranged in lines in a plurality of numbers on the base plate to thereby form nozzle arrays, wherein a windbreak wall projecting from a surface of the base plate is installed along a nozzle array of an outermost layer of the nozzles arranged in lines, wherein a height of the windbreak wall is higher than that of the nozzle by from 0.1 mm to 20.0 mm, and wherein the windbreak wall has a notch at a site corresponding to a gap between nozzles of the nozzle array. a base plate and a nozzle for discharging molten glass, the nozzle being arranged in lines in a plurality of numbers on the base plate to thereby form nozzle arrays, wherein a windbreak wall projecting from a surface of the base plate is installed along a nozzle array of an outermost layer of the nozzles arranged in lines, wherein a height of the windbreak wall is higher than that of the nozzle by from 0.1 mm to 20.0 mm, and wherein the windbreak wall has a notch at a site corresponding to a gap between nozzles of the nozzle array.
Separating and joining method for a first contact from/to a line which has an installed shield, wherein the method comprises the following steps: a) moving an actuator and a hold-down device from an open position into a closed position such that the actuator acts on a cutter, and the first contact, which is provided on a contact carrier strip, is separated from the contact carrier strip, and the first contact is fixed by the hold-down device; b) joining the line in the first contact until the installed shield of the line lies against the actuator and/or cutter; c) activating a first cylinder such that a stop is moved from an inactive position into an active position, wherein the first contact can be fixed in the active position by the stop; d) moving the actuator and the hold-down device from the closed position into the open position, and simultaneously activating a second cylinder, such that a contact-guiding track and the cutter are moved from a main position into a lowered position; and e) joining the line into a final position in the first contact. a) moving an actuator and a hold-down device from an open position into a closed position such that the actuator acts on a cutter, and the first contact, which is provided on a contact carrier strip, is separated from the contact carrier strip, and the first contact is fixed by the hold-down device; b) joining the line in the first contact until the installed shield of the line lies against the actuator and/or cutter; c) activating a first cylinder such that a stop is moved from an inactive position into an active position, wherein the first contact can be fixed in the active position by the stop; d) moving the actuator and the hold-down device from the closed position into the open position, and simultaneously activating a second cylinder, such that a contact-guiding track and the cutter are moved from a main position into a lowered position; and e) joining the line into a final position in the first contact.