mhurhangee/ep-ind-claims huggingface dataset:
A polishing apparatus comprising: a substrate holder configured to hold and rotate a substrate, the substrate holder including a plurality of rollers which are rotatable about their own axes, the plurality of rollers having substrate-holding surfaces capable of contacting a periphery of the substrate, and the rollers being configured cause rotation of the substrate about its axis by the rotations of the rollers; a polishing head configured to bring a polishing tool into contact with a back surface of the substrate to polish the back surface, the polishing head being disposed below the substrate-holding surfaces, the polishing head including a pressing mechanism configured to push the polishing tool upward; and a translational rotating mechanism configured to cause the substrate holder to make a translational rotating motion. a substrate holder configured to hold and rotate a substrate, the substrate holder including a plurality of rollers which are rotatable about their own axes, the plurality of rollers having substrate-holding surfaces capable of contacting a periphery of the substrate, and the rollers being configured cause rotation of the substrate about its axis by the rotations of the rollers; a polishing head configured to bring a polishing tool into contact with a back surface of the substrate to polish the back surface, the polishing head being disposed below the substrate-holding surfaces, the polishing head including a pressing mechanism configured to push the polishing tool upward; and a translational rotating mechanism configured to cause the substrate holder to make a translational rotating motion.
A system comprising: a flow cell flow path to be fluidically connected with a flow cell to support analytes of interest in an analysis system; a fluidic system comprising a plurality of reagent flow paths, a further flow path, a mixing channel coupled to a pump and to a common selector valve, which is coupled to a reagent selector valve, each of the plurality of reagent flow paths selectively in fluidic communication with a reagent recipient (64, 124, 126, 128) of a plurality of reagent recipients at a first end and in fluidic communication with the reagent selector valve at a second end, the further flow path selectively in fluidic communication with a destination recipient at a first end and in fluidic communication with the reagent selector valve at a second end, the fluidic system being configured to aspirate reagents from the plurality of reagent recipients(64, 124, 126, 128) into the mixing channel via the selector valve, to eject the aspirated reagents from the plurality of reagent recipients from the mixing channel into the destination recipient via the selector valve, and to deliver the mixed reagents from the destination recipient to the flow cell flow path; and a nozzle sipper in fluidic communication with the fluidic system, the nozzle sipper comprising an elongated body having a central lumen extending between ends thereof and a nozzle insert disposed in a distal end of the central lumen, wherein the nozzle sipper is to both aspirate the mixed reagents from the destination recipient and eject mixed reagents back into the destination recipient via the nozzle insert. a flow cell flow path to be fluidically connected with a flow cell to support analytes of interest in an analysis system; a fluidic system comprising a plurality of reagent flow paths, a further flow path, a mixing channel coupled to a pump and to a common selector valve, which is coupled to a reagent selector valve, each of the plurality of reagent flow paths selectively in fluidic communication with a reagent recipient (64, 124, 126, 128) of a plurality of reagent recipients at a first end and in fluidic communication with the reagent selector valve at a second end, the further flow path selectively in fluidic communication with a destination recipient at a first end and in fluidic communication with the reagent selector valve at a second end, the fluidic system being configured to aspirate reagents from the plurality of reagent recipients(64, 124, 126, 128) into the mixing channel via the selector valve, to eject the aspirated reagents from the plurality of reagent recipients from the mixing channel into the destination recipient via the selector valve, and to deliver the mixed reagents from the destination recipient to the flow cell flow path; and a nozzle sipper in fluidic communication with the fluidic system, the nozzle sipper comprising an elongated body having a central lumen extending between ends thereof and a nozzle insert disposed in a distal end of the central lumen, wherein the nozzle sipper is to both aspirate the mixed reagents from the destination recipient and eject mixed reagents back into the destination recipient via the nozzle insert.
A driving circuit for a switching device for an electric power control, comprising: a driver circuit unit connected to the switching device and configured to control the switching device to an ON state or an OFF state; a controller, a first logic device connected to the switching device and the driver circuit unit and configured to transmit an ON or OFF control signal regarding the switching device to the driver circuit unit and to provide a first monitoring signal detecting an ON state or an OFF state of the switching device to the controller; a second logic device connected to the switching device and the first logic device and configured to transmit the ON or OFF control signal regarding the switching device to the driving circuit unit through first logic device and to provide a second monitoring signal detecting an ON state or an OFF state of the switching device to the controller; and the controller connected to the first logic device and the second logic device and configured to provide the ON or OFF control signal regarding the switching device to at least one of the first logic device and the second logic device; wherein the controller is configured to determine an abnormal state of at least one of the first logic device and the second logic device based on the first and second monitoring signals as received from the first logic device and the second logic device. a driver circuit unit connected to the switching device and configured to control the switching device to an ON state or an OFF state; a controller, a first logic device connected to the switching device and the driver circuit unit and configured to transmit an ON or OFF control signal regarding the switching device to the driver circuit unit and to provide a first monitoring signal detecting an ON state or an OFF state of the switching device to the controller; a second logic device connected to the switching device and the first logic device and configured to transmit the ON or OFF control signal regarding the switching device to the driving circuit unit through first logic device and to provide a second monitoring signal detecting an ON state or an OFF state of the switching device to the controller; and the controller connected to the first logic device and the second logic device and configured to provide the ON or OFF control signal regarding the switching device to at least one of the first logic device and the second logic device; wherein the controller is configured to determine an abnormal state of at least one of the first logic device and the second logic device based on the first and second monitoring signals as received from the first logic device and the second logic device.
An electric cleaning apparatus, comprising: an autonomous cleaning unit which moves autonomously over a surface to be cleaned and collects dust; and a station unit (5, 5A) which has a charging electrode for the autonomous cleaning unit, wherein the autonomous cleaning unit includes a first body case having a first inlet at a bottom surface of the first body case, a charging terminal, a secondary battery which accumulates electric power supplied via the charging terminal from the charging electrode, a first dust collecting container which accumulates dust sucked from the first inlet, and an electric blower which is driven by electric power supplied from the secondary battery and makes negative pressure act on the first dust collecting container, and wherein the station unit (5, 5A) is provided with a second body case having a second inlet which sucks other dust different from the dust which the autonomous cleaning unit collects, and wherein a base onto which the autonomous cleaning unit having the first inlet can move is provided at a forward portion of the station unit (5, 5A) and the second body case having the second inlet is provided at a rear portion of the station unit (5,5 A), characterized in that the second inlet is provided at a lower portion of a side wall surface of the second body case. an autonomous cleaning unit which moves autonomously over a surface to be cleaned and collects dust; and a station unit (5, 5A) which has a charging electrode for the autonomous cleaning unit, wherein the autonomous cleaning unit includes a first body case having a first inlet at a bottom surface of the first body case, a charging terminal, a secondary battery which accumulates electric power supplied via the charging terminal from the charging electrode, a first dust collecting container which accumulates dust sucked from the first inlet, and an electric blower which is driven by electric power supplied from the secondary battery and makes negative pressure act on the first dust collecting container, and wherein the station unit (5, 5A) is provided with a second body case having a second inlet which sucks other dust different from the dust which the autonomous cleaning unit collects, and wherein a base onto which the autonomous cleaning unit having the first inlet can move is provided at a forward portion of the station unit (5, 5A) and the second body case having the second inlet is provided at a rear portion of the station unit (5,5 A), characterized in that the second inlet is provided at a lower portion of a side wall surface of the second body case.
A system for analyzing turbomachinery comprising: an intelligent turbomachinery tracking filter ITTF, system configured to determine one or more performance shifts and to derive one or more profile trends for one or more components of a turbomachinery based on a plurality of measured turbomachinery parameters; and a root cause analyzer configured to determine a root cause of the turbomachinery performance based on the one or more performance shifts, characterized in that the root cause analyzer comprises: a trend quantifier configured to process and quantify trend values in the one or more profile trends to produce a quantified profile trend including one or more of a trend slope or gradient, an amount of noise in the trend values, an amount of shifting in the trend, maximum values in the trend, and/or minimum values in the trend; and a fuzzy logic engine configured to derive one or more fuzzy values based on the quantified profile trend to derive a root cause analysis; wherein the root cause analyzer is configured to apply one or more models and rules to the one or more fuzzy values to derive one or more possible root causes and to derive a probability of accuracy of each of the one or more possible root causes. an intelligent turbomachinery tracking filter ITTF, system configured to determine one or more performance shifts and to derive one or more profile trends for one or more components of a turbomachinery based on a plurality of measured turbomachinery parameters; and a root cause analyzer configured to determine a root cause of the turbomachinery performance based on the one or more performance shifts, characterized in that the root cause analyzer comprises: a trend quantifier configured to process and quantify trend values in the one or more profile trends to produce a quantified profile trend including one or more of a trend slope or gradient, an amount of noise in the trend values, an amount of shifting in the trend, maximum values in the trend, and/or minimum values in the trend; and a fuzzy logic engine configured to derive one or more fuzzy values based on the quantified profile trend to derive a root cause analysis; wherein the root cause analyzer is configured to apply one or more models and rules to the one or more fuzzy values to derive one or more possible root causes and to derive a probability of accuracy of each of the one or more possible root causes. a trend quantifier configured to process and quantify trend values in the one or more profile trends to produce a quantified profile trend including one or more of a trend slope or gradient, an amount of noise in the trend values, an amount of shifting in the trend, maximum values in the trend, and/or minimum values in the trend; and a fuzzy logic engine configured to derive one or more fuzzy values based on the quantified profile trend to derive a root cause analysis; wherein the root cause analyzer is configured to apply one or more models and rules to the one or more fuzzy values to derive one or more possible root causes and to derive a probability of accuracy of each of the one or more possible root causes.
A method for visualizing a modified nucleotide in a specific nucleic acid sequence in a cell, the method comprising: a) contacting a prepared cell with at least one nucleic acid probe labeled with at least one label and having complementarity to the specific nucleic acid sequence, wherein the prepared cell is fixed, permeabilized, and, optionally, comprises denatured chromosomal DNA and wherein the nucleic acid probe hybridizes with the specific nucleic acid sequence to form a hybridized cell; b) contacting the hybridized cell with a first binding agent that binds to the label of the nucleic acid probe and a second binding agent that binds to the modified nucleotide; c) detecting the first and second binding agents by a proximity ligation assay to visualize the modified nucleotide in the specific nucleic acid sequence in the cell. a) contacting a prepared cell with at least one nucleic acid probe labeled with at least one label and having complementarity to the specific nucleic acid sequence, wherein the prepared cell is fixed, permeabilized, and, optionally, comprises denatured chromosomal DNA and wherein the nucleic acid probe hybridizes with the specific nucleic acid sequence to form a hybridized cell; b) contacting the hybridized cell with a first binding agent that binds to the label of the nucleic acid probe and a second binding agent that binds to the modified nucleotide; c) detecting the first and second binding agents by a proximity ligation assay to visualize the modified nucleotide in the specific nucleic acid sequence in the cell.
Dental prostheses material, wherein an initiator system in form of a combination of activator und initiator is present in spatially seperated form, comprising A) at least a polymerizable component in liquid form and B) a pulverulent component comrising at least one initiator in desensitized form, wherein the activator is present in component A), and wherein the desensitization of the initiator in component B) is obtained by encapsulation in a bead polymer. A) at least a polymerizable component in liquid form and B) a pulverulent component comrising at least one initiator in desensitized form,
System for image processing, the system comprising: at least one input interface for receiving two segmentation maps for an input image, the two segmentation maps (I1, I2) obtained by respective segmentors, a first segmentor and a second segmentor, the first segmentor configured to implement a shape-prior-based segmentation algorithm, and the second segmentor configured to implement a segmentation algorithm that is not based on a shape-prior, or the second segmentor accounting for one or more shape priors at a lower weight as compared to the first segmentor, and a differentiator configured to ascertain a difference between the two segmentation maps, characterized in that the differentiator is further configured to detect an anatomical abnormality from said difference. at least one input interface for receiving two segmentation maps for an input image, the two segmentation maps (I1, I2) obtained by respective segmentors, a first segmentor and a second segmentor, the first segmentor configured to implement a shape-prior-based segmentation algorithm, and the second segmentor configured to implement a segmentation algorithm that is not based on a shape-prior, or the second segmentor accounting for one or more shape priors at a lower weight as compared to the first segmentor, and a differentiator configured to ascertain a difference between the two segmentation maps, characterized in that the differentiator is further configured to detect an anatomical abnormality from said difference.
A solid detergent composition comprising: at least 5 wt. % alkaline source in an amount effective to provide a use solution having a pH of at least about 8; a cleaning agent including 1 to 20 wt. % of a surfactant or surfactant system; wherein the solid detergent composition comprises between 10 to 80 wt. % of sodium carbonate, sodium hydroxide or sodium metasilicate, or combinations thereof as a solidification agent; and at least 0.2 wt. % of branched fatty acid disintegrator; wherein the solid detergent composition has a dissolution rate when exposed to 4000 mL of water at 68°C (155°F)) of at least 15g/minute; wherein the branched fatty acid disintegrator is selected from the group of sodium isononanoate, isononanoic acid, sodium isooctanoate, isooctanoic acid, sodium neodecanoate, neodecanoic acid, sodium neopentanoate, neopentanoic acid, sodium neoheptanoate, neoheptanoic acid, 3,5,5- trimethylhexanoic acid, 6-methyl-heptanoic acid, 2,2-dimethyloctanoic acid, neopentanoic acid (2,2-dimethylpropanoic acid), 2,2-dimethylpentanoic acid, and salts thereof, or mixtures thereof;; and wherein the solid detergent composition is not in powder form. at least 5 wt. % alkaline source in an amount effective to provide a use solution having a pH of at least about 8; a cleaning agent including 1 to 20 wt. % of a surfactant or surfactant system; wherein the solid detergent composition comprises between 10 to 80 wt. % of sodium carbonate, sodium hydroxide or sodium metasilicate, or combinations thereof as a solidification agent; and at least 0.2 wt. % of branched fatty acid disintegrator; wherein the solid detergent composition has a dissolution rate when exposed to 4000 mL of water at 68°C (155°F)) of at least 15g/minute; wherein the branched fatty acid disintegrator is selected from the group of sodium isononanoate, isononanoic acid, sodium isooctanoate, isooctanoic acid, sodium neodecanoate, neodecanoic acid, sodium neopentanoate, neopentanoic acid, sodium neoheptanoate, neoheptanoic acid, 3,5,5- trimethylhexanoic acid, 6-methyl-heptanoic acid, 2,2-dimethyloctanoic acid, neopentanoic acid (2,2-dimethylpropanoic acid), 2,2-dimethylpentanoic acid, and salts thereof, or mixtures thereof;; and wherein the solid detergent composition is not in powder form.
A method to prepare a rheological agent comprising the polymerization of the following monomers: (a) at least one styrene-based monomer substituted on the phenyl moiety, (b) optionally at least one (meth)acrylate-based monomer or butadiene, and (c) a copolymerisable surfactant containing an optionally substituted vinyl function and moieties derived from propylene oxide and/or ethylene oxide, preferably chosen among anionic and non-ionic surfactants, optionally in the presence of a non polymerisable surfactant containing moieties derived from propylene oxide and/or ethylene oxide, preferably chosen among anionic and non-ionic surfactants, and optionally in the presence of another surfactant. (a) at least one styrene-based monomer substituted on the phenyl moiety, (b) optionally at least one (meth)acrylate-based monomer or butadiene, and (c) a copolymerisable surfactant containing an optionally substituted vinyl function and moieties derived from propylene oxide and/or ethylene oxide, preferably chosen among anionic and non-ionic surfactants,
Layer arrangement for connecting components (81, 82) to be joined so as to increase friction, which layer arrangement comprises: a substrate having a main body made of an organic polymer; and at least one functional layer (41, 42) which is connected to the substrate and which has a metal binder phase (51, 52) and hard material particles (61, 62) fixed in the metal binder phase.
An articulated arm coordinate measurement machine (AACMM) for a measurement of geometrical features of an object, comprising - a stationed end of the articulated arm, opposed to - a movable end of the articulated arm being manually movable by a human operator, to which movable end - a measurement probe head is attachable, and - a graphical display unit, characterized in that, the graphical display unit is located at the movable end of the articulated arm in vicinity of the probe head in such a way that information provided by the display unit is visible for the operator during measurement, and comprising a graphical screen with a two dimensional array of pixels, wherein the display unit is built to provide an artificial view, graphically representing at least part of the object with respect to a point of view from or nearby the movable end of the arm, wherein the artificial view is similar to the operators natural view of the object, and wherein at least one desired point or region of the object to be measured is graphically marked on the artificial view by overlaying one or more indicative graphical elements. - a stationed end of the articulated arm, opposed to - a movable end of the articulated arm being manually movable by a human operator, to which movable end - a measurement probe head is attachable, and - a graphical display unit,
A system for powder composite fabrication, comprising a powder material, a photocurable material, and a powder composite fabrication machine, the powder composite fabrication machine comprising: a build platform; a powder transfer device configured to deliver a first layer of the powder material to the build platform; a resin supply system in communication with the build platform and configured to deliver the photocurable material through the build platform for infusion into the first layer of the powder material; and an imaging device positioned above the build platform and configured to selectively irradiate the photocurable material to form a first layer of a powder composite component; wherein the powder transfer device is configured to deliver a second layer of the powder material on the first layer of the powder material, the resin supply system is configured to deliver the photocurable material, through the build platform and the first layer of the powder material infused with the photocurable material, for infusion into the second layer of the powder material, and the imaging device is configured to selectively irradiate the photocurable material in the second layer of the powder material to form a second layer of the powder composite component. a build platform; a powder transfer device configured to deliver a first layer of the powder material to the build platform; a resin supply system in communication with the build platform and configured to deliver the photocurable material through the build platform for infusion into the first layer of the powder material; and an imaging device positioned above the build platform and configured to selectively irradiate the photocurable material to form a first layer of a powder composite component; wherein the powder transfer device is configured to deliver a second layer of the powder material on the first layer of the powder material, the resin supply system is configured to deliver the photocurable material, through the build platform and the first layer of the powder material infused with the photocurable material, for infusion into the second layer of the powder material, and the imaging device is configured to selectively irradiate the photocurable material in the second layer of the powder material to form a second layer of the powder composite component.