mhurhangee/ep-ind-claims huggingface dataset:
A method for monitoring of industrial devices, the method comprising: receiving sensor signal data (ssd) of one or more industrial devices and one or more events (e) associated with the operation of the one or more industrial devices, identifying, preferably using a first autoencoder, an abnormal behavior (ab) of the one or more industrial devices based on the sensor signal data (ssd), creating or updating an additional autoencoder based on the sensor signal data (ssd) associated with a time window (t as, t ae) relating to said abnormal behavior (ab), and characterized by: associating one or more of the events (e) which are located within the time window (t as, t ae) with the additional autoencoder, the one or more events being associated to textual information, wherein the textual information is used to assign a cause for the abnormal behavior to the additional autoencoder for transmission of a notification, transmitting the notification after identifying the abnormal behavior (ab) by the additional autoencoder, said notification comprising the textual information associated with the additional autoencoder. receiving sensor signal data (ssd) of one or more industrial devices and one or more events (e) associated with the operation of the one or more industrial devices, identifying, preferably using a first autoencoder, an abnormal behavior (ab) of the one or more industrial devices based on the sensor signal data (ssd), creating or updating an additional autoencoder based on the sensor signal data (ssd) associated with a time window (t as, t ae) relating to said abnormal behavior (ab), and characterized by: associating one or more of the events (e) which are located within the time window (t as, t ae) with the additional autoencoder, the one or more events being associated to textual information, wherein the textual information is used to assign a cause for the abnormal behavior to the additional autoencoder for transmission of a notification, transmitting the notification after identifying the abnormal behavior (ab) by the additional autoencoder, said notification comprising the textual information associated with the additional autoencoder. associating one or more of the events (e) which are located within the time window (t as, t ae) with the additional autoencoder, the one or more events being associated to textual information, wherein the textual information is used to assign a cause for the abnormal behavior to the additional autoencoder for transmission of a notification, transmitting the notification after identifying the abnormal behavior (ab) by the additional autoencoder, said notification comprising the textual information associated with the additional autoencoder.
A compressor (5A, 5B) for a refrigerating machine, comprising: a casing including a casing body part, a casing upper part, and a casing lower part which are welded together airtight; and a metallic coating, the casing being configured to cover an internal space that includes a low-pressure space configured to contain a low-pressure fluid and a high-pressure space configured to contain a high-pressure fluid, and having a low-pressure casing part covering the low-pressure space and a high-pressure casing part covering the high-pressure space, and the metallic coating being formed at least on a part of an outer surface of the casing, wherein the metallic coating includes: a low-pressure part coating formed in the low-pressure casing part, a high-pressure part coating formed in the high-pressure casing part, and a welded part coating formed in a welded part formed in the casing, and characterised in that at least either an average thickness (Ta) of the low-pressure part coating or an average thickness (Tc) of the welded part coating is greater than an average thickness (Tb) of the high-pressure part coating. a casing including a casing body part, a casing upper part, and a casing lower part which are welded together airtight; and a metallic coating, the casing being configured to cover an internal space that includes a low-pressure space configured to contain a low-pressure fluid and a high-pressure space configured to contain a high-pressure fluid, and having a low-pressure casing part covering the low-pressure space and a high-pressure casing part covering the high-pressure space, and the metallic coating being formed at least on a part of an outer surface of the casing, a low-pressure part coating formed in the low-pressure casing part, a high-pressure part coating formed in the high-pressure casing part, and a welded part coating formed in a welded part formed in the casing, and characterised in that at least either an average thickness (Ta) of the low-pressure part coating or an average thickness (Tc) of the welded part coating is greater than an average thickness (Tb) of the high-pressure part coating.
A device for emulating a supply network for validating components of a power supply system, comprising • means for providing a current/voltage signal corresponding to a frequency-dependent impedance of a specifiable supply network, • means for amplifying the provided current/voltage signal, • means for measuring the current flowing from the device into the connected component and • means for measuring the voltage that is effectively applied at the connected component, • wherein, in operation, the output current I out and the output voltage V out are fed back to the means for providing a current/voltage signal so that a closed circuit is provided in this power-hardware-in-the-loop setup, characterized in that the frequency-dependent impedance of a specifiable supply network of an emulated network impedance model is of any higher order. • means for providing a current/voltage signal corresponding to a frequency-dependent impedance of a specifiable supply network, • means for amplifying the provided current/voltage signal, • means for measuring the current flowing from the device into the connected component and • means for measuring the voltage that is effectively applied at the connected component, • wherein, in operation, the output current I out and the output voltage V out are fed back to the means for providing a current/voltage signal so that a closed circuit is provided in this power-hardware-in-the-loop setup,
A method for manufacturing a secondary battery having a film package by covering upper and lower sides of a laminate structure constituting a battery with a pair of film materials (1A, 1B) respectively and bonding the film materials together sequentially in a process direction from one end of the film materials (1A, 1B) to the other, the method comprising: a first sealing step of overlapping the film materials (1A, 1B) such that the laminate structure is sandwiched therebetween, and sealing one end of the overlapping part of the films, the one end being located at an upstream of the process direction, and a second sealing step of bonding the overlapped film materials (1A, 1B) together at one or each of side portions thereof extending along the process direction sequentially in the process direction, while pressing a middle portion of the overlapped film materials (1A, 1B) sequentially in the process direction to thereby degas an internal space between the film materials(1A, 1B), the middle portion being located between the side portions, characterized in that a plurality of embossed portions are formed on at least one of the pair of film materials (1A, 1B), and a portion corresponding to the internal space between the film materials is surrounded by the embossed portions and hypothetical lines connecting the embossed portions. a first sealing step of overlapping the film materials (1A, 1B) such that the laminate structure is sandwiched therebetween, and sealing one end of the overlapping part of the films, the one end being located at an upstream of the process direction, and a second sealing step of bonding the overlapped film materials (1A, 1B) together at one or each of side portions thereof extending along the process direction sequentially in the process direction, while pressing a middle portion of the overlapped film materials (1A, 1B) sequentially in the process direction to thereby degas an internal space between the film materials(1A, 1B), the middle portion being located between the side portions, characterized in that a plurality of embossed portions are formed on at least one of the pair of film materials (1A, 1B), and a portion corresponding to the internal space between the film materials is surrounded by the embossed portions and hypothetical lines connecting the embossed portions.
An electrostatic lens for a charged particle beam, the lens comprising: a plurality of substrates, each having at least one aperture to allow a charged particle beam to pass through it; and spacers between each pair of adjacent substrates spacing the substrates apart in a direction of a path of the charged particle beam passing through the apertures, at least one of the substrates having an electrode portion to which a voltage can be applied and an insulation portion (750, 770) between the electrode portion and an adjacent one of the spacers characterized in that said at least one substrate further comprises a semiconductor portion insulated from the voltage application portion, and the semiconductor portion is in contact with the one of the spacers. a plurality of substrates, each having at least one aperture to allow a charged particle beam to pass through it; and spacers between each pair of adjacent substrates spacing the substrates apart in a direction of a path of the charged particle beam passing through the apertures,
A device for changing the shape of a die used to compression mold a part, comprising: a sleeve disposable between the die and a charge to be molded into a part; wherein at least one gap is present between the sleeve and the die, and the device further comprises at least one shim for filling the gap, the sleeve having a first face generally conforming to a face of the die, and having a second face for molding a part; wherein the sleeve comprises a varying cross-sectional area. a sleeve disposable between the die and a charge to be molded into a part; wherein at least one gap is present between the sleeve and the die, and the device further comprises at least one shim for filling the gap, the sleeve having a first face generally conforming to a face of the die, and having a second face for molding a part; wherein the sleeve comprises a varying cross-sectional area. the sleeve having a first face generally conforming to a face of the die, and having a second face for molding a part; wherein the sleeve comprises a varying cross-sectional area.
A spiral wound heat exchanger, comprising: a first manifold; a flow body in flow communication with the first manifold, wherein the flow body is wrapped in successive layers about the first manifold and defines a spiral formed by an involute of a circle; a plurality of flow passages, included in the flow body, extending between a first end and a second end of the flow body for a first fluid; and a second manifold in flow communication with the flow body, wherein the flow body is disposed within a housing that defines a cross-flow path for a second fluid that extends across the successive layers of said flow body. a first manifold; a flow body in flow communication with the first manifold, wherein the flow body is wrapped in successive layers about the first manifold and defines a spiral formed by an involute of a circle; a plurality of flow passages, included in the flow body, extending between a first end and a second end of the flow body for a first fluid; and a second manifold in flow communication with the flow body, wherein the flow body is disposed within a housing that defines a cross-flow path for a second fluid that extends across the successive layers of said flow body.
A two-part liquid composition for cleaning and disinfecting a substrate contaminated with living microorganisms, comprising: a disinfectant medium comprising water and 15 to 45% by weight peracetic acid; and a supplemental medium comprising an enzymatic cleaner, a non-enzymatic cleaner, a corrosion inhibitor, a surfactant and a chelator; wherein the non-enzymatic cleaner comprises an alkanol amine, an alkylene glycol, or a mixture thereof, wherein the concentration of enzymatic cleaner in comprises from 0.2 to 25% by weight, the concentration of the non-enzymatic cleaner in is from 0.1 to 25% by weight, the concentration of the corrosion inhibitor in is from 1% to 10% by weight, the concentration of the surfactant in is from 1 to 25% by weight and the concentration of the chelator in is from 0.1 to 70% by weight. a disinfectant medium comprising water and 15 to 45% by weight peracetic acid; and a supplemental medium comprising an enzymatic cleaner, a non-enzymatic cleaner, a corrosion inhibitor, a surfactant and a chelator; wherein the non-enzymatic cleaner comprises an alkanol amine, an alkylene glycol, or a mixture thereof, wherein the concentration of enzymatic cleaner in comprises from 0.2 to 25% by weight, the concentration of the non-enzymatic cleaner in is from 0.1 to 25% by weight, the concentration of the corrosion inhibitor in is from 1% to 10% by weight, the concentration of the surfactant in is from 1 to 25% by weight and the concentration of the chelator in is from 0.1 to 70% by weight.
A floor cleaning system having a flat headed mop, the system comprising: a frame (136, 449); at least one compartment removably coupled to the frame (136, 449); and a wringing assembly (128, 328, 428, 528) coupled to the frame (136, 449), the wringing assembly (128, 328, 428, 528) comprising: a housing (130, 330, 430, 530) with a slot sized to receive the flat headed mop and an extractor element disposed within the slot and configured to extract fluid from the flat headed mop characterized in that a drip tray disposed in fluid communication with the slot and the extractor element, the drip tray including at least one channel that at least partially defines a flow path from the slot to an outlet (141, 541), the outlet (141, 541) being in fluid communication with the at least one compartment. a frame (136, 449); at least one compartment removably coupled to the frame (136, 449); and a wringing assembly (128, 328, 428, 528) coupled to the frame (136, 449), the wringing assembly (128, 328, 428, 528) comprising: a housing (130, 330, 430, 530) with a slot sized to receive the flat headed mop and an extractor element disposed within the slot and configured to extract fluid from the flat headed mop characterized in that a drip tray disposed in fluid communication with the slot and the extractor element, the drip tray including at least one channel that at least partially defines a flow path from the slot to an outlet (141, 541), the outlet (141, 541) being in fluid communication with the at least one compartment. a housing (130, 330, 430, 530) with a slot sized to receive the flat headed mop and an extractor element disposed within the slot and configured to extract fluid from the flat headed mop characterized in that a drip tray disposed in fluid communication with the slot and the extractor element, the drip tray including at least one channel that at least partially defines a flow path from the slot to an outlet (141, 541), the outlet (141, 541) being in fluid communication with the at least one compartment.
A composition comprising from about 0.5 g to about 30 g of β-hydroxy-β-methylbutyric acid as sole active ingredient for use in treating obesity by promoting lipolysis in the body of an animal.
An airfoil for a gas turbine having a rotor central axis; the airfoil having a leading edge and a trailing edge; the airfoil comprising: an airfoil wall having an inner surface and an outer surface, the airfoil wall forming an airfoil chamber at least partially enclosed within the airfoil wall; and a plurality of airfoil passages formed in the airfoil wall, each of the plurality of airfoil passages comprising: a first opening in the inner surface, a second opening in the outer surface, and a channel extending from the first opening to the second opening, wherein a cross-sectional area of the channel decreases between the first opening and the second opening; wherein the first opening has a first cross-sectional area and the second opening has a second cross-sectional area, and wherein the first cross-sectional area is larger than the second cross-sectional area; wherein the channel of each of the plurality of airfoil passages further comprises: a first section having the first cross-sectional area along its axial length; a second section having the second cross-sectional area along its axial length; and a transitional section that tapers in cross-sectional area along its axial length towards the second opening; wherein a ratio of transitional section length to airfoil wall width is at least 3:1 and wherein for each of the plurality of airfoil passages, the first cross-sectional area is preferably 1.1-10 times larger than the second cross-sectional area, characterised in that the transitional section has a cross-sectional area that tapers between the first cross-sectional area and the second cross-sectional area of the respective first and second sections (418, 420).
Procedure for separation of the surfactants contained in corn steep liquor, which is characterized by the following steps; a) dilution of the corn steep liquor in water, b) extraction of the corn steep liquor with an organic solvent or a mixture of organic solvents, c) phase separation, and d) distillation of the volatile components of the organic phase.
An image processing device comprising a display surface and a rendering means, wherein the rendering means is configured to render display data of an indoor or outdoor material based on illumination information including ambient illumination information of the image processing device or external illumination information on the illumination in a modeled space, material information on the texture of the material including shape characteristics and reflection characteristics for each pixel of an image of the material, and the relative positional relationship of a light source, display surface on which an image of the material is displayed, and a direction of a viewer's eye, so that the viewer views the material as if the surface of the material is overlaid on the display surface, or as if the material is placed between the display surface and the viewer in response to a zoom-in instruction, or as if the display surface is placed between the material and the viewer in response to a zoom-out instruction.
A roller-coaster amusement apparatus, which apparatus comprises at least one vehicle mounted to a carriage designed to slidingly move along a track and has seats for passengers; wherein said carriage comprises sliding means for sliding along said track while keeping the passengers in a given orientation relative to the direction of travel of said vehicle; wherein said track comprises at least two pairs of rails (8A, 8B; 9A, 9B) substantially spaced apart from each other and symmetric about a center axis which extends along a path shaped as a Moebius loop; wherein said vehicle is hinged to said carriage about a transverse axis substantially perpendicular to said center axis; characterized in that said carriage is attached to said pairs of rails (8A, 8B; 9A, 9B) to alternately move from a first sliding state (F 1) in which it slides along one of said pairs of rails (8A, 8B) during a first lap, to a second sliding state (F 2) in which it slides along the other pair of rails (9A, 9B) during the next lap, said at least one vehicle being only free to rotate about said transverse axis under the force of gravity once it has moved from said first sliding state (F 1) to said second sliding state (F 2) so that the orientation of the passengers is inverted at each lap. wherein said carriage comprises sliding means for sliding along said track while keeping the passengers in a given orientation relative to the direction of travel of said vehicle; wherein said track comprises at least two pairs of rails (8A, 8B; 9A, 9B) substantially spaced apart from each other and symmetric about a center axis which extends along a path shaped as a Moebius loop; wherein said vehicle is hinged to said carriage about a transverse axis substantially perpendicular to said center axis; characterized in that said carriage is attached to said pairs of rails (8A, 8B; 9A, 9B) to alternately move from a first sliding state (F 1) in which it slides along one of said pairs of rails (8A, 8B) during a first lap, to a second sliding state (F 2) in which it slides along the other pair of rails (9A, 9B) during the next lap, said at least one vehicle being only free to rotate about said transverse axis under the force of gravity once it has moved from said first sliding state (F 1) to said second sliding state (F 2) so that the orientation of the passengers is inverted at each lap.
A natural disintegrant composition in powder form exclusively consisting of natural polymers which comprises from about 30% to about 90% by weight of Psyllium Husk and about 20% to about 40% by weight of Oat Fiber, about 1% to about 20% by weight of at least one further component selected from Apple Fiber, Wheat Fiber, Pea Fiber, Cellulose Powder, Agave Powder, Bamboo Fiber, and a combination thereof (all weight percentages being based on the dry weight of the disintegrant composition).
A method of fabricating a visible spectrum optical component, comprising: providing a substrate; forming a resist layer over a surface of the substrate; patterning the resist layer to form a patterned resist layer defining openings exposing portions of the surface of the substrate; performing atomic layer deposition to form a conformal dielectric film over the patterned resist layer and over the exposed portions of the surface of the substrate, wherein a top surface of the conformal dielectric film is above a top surface of the patterned resist layer, wherein both the top and sidewall surfaces of the patterned resist layer and the exposed portions of the surface of the substrate are conformally coated by the conformal dielectric film, and wherein the conformal dielectric film occupies the entire openings; removing a top portion of the conformal dielectric film to expose the top surface of the patterned resist layer and top surfaces of dielectric units within the openings of the patterned resist layer; and removing the patterned resist layer to expose metasurfaces comprising a plurality of dielectric units formed by the conformal dielectric film. providing a substrate; forming a resist layer over a surface of the substrate; patterning the resist layer to form a patterned resist layer defining openings exposing portions of the surface of the substrate; performing atomic layer deposition to form a conformal dielectric film over the patterned resist layer and over the exposed portions of the surface of the substrate, wherein a top surface of the conformal dielectric film is above a top surface of the patterned resist layer, wherein both the top and sidewall surfaces of the patterned resist layer and the exposed portions of the surface of the substrate are conformally coated by the conformal dielectric film, and wherein the conformal dielectric film occupies the entire openings; removing a top portion of the conformal dielectric film to expose the top surface of the patterned resist layer and top surfaces of dielectric units within the openings of the patterned resist layer; and removing the patterned resist layer to expose metasurfaces comprising a plurality of dielectric units formed by the conformal dielectric film.