mhurhangee/ep-ind-claims huggingface dataset:
A vinyl chloride-based polymer comprising: vinyl chloride-based monomer derived units, wherein vinyl chloride-based monomer means pure vinyl chloride monomer or a mixture of vinyl chloride as a main material with vinyl-based monomer which is copolymerizable with the vinyl chloride monomer, and wherein vinyl chloride-based monomer derived units mean a structure or a component induced from a vinyl chloride-based monomer; and silicate compound derived units, wherein silicate compound derived units mean a structure or a component induced from a silicate compound, wherein the amount of the silicate compound derived units is from 0.1 parts by weight to 0.5 parts by weight on the basis of 100 parts by weight of the vinyl chloride-based monomer derived units. vinyl chloride-based monomer derived units, wherein vinyl chloride-based monomer means pure vinyl chloride monomer or a mixture of vinyl chloride as a main material with vinyl-based monomer which is copolymerizable with the vinyl chloride monomer, and wherein vinyl chloride-based monomer derived units mean a structure or a component induced from a vinyl chloride-based monomer; and silicate compound derived units, wherein silicate compound derived units mean a structure or a component induced from a silicate compound, wherein the amount of the silicate compound derived units is from 0.1 parts by weight to 0.5 parts by weight on the basis of 100 parts by weight of the vinyl chloride-based monomer derived units.
Hand-held power tool, comprising a tool housing, a working element protruding from the tool housing and designed to perform a working movement during an intended use of the power tool, a motor located inside the tool housing and designed to drive the working element to perform the working movement during the intended use of the power tool, and at least one elongated light emitting device having a longitudinal extension and located at least partially on an external surface of the tool housing, wherein the at least one elongated light emitting device is designed to emit light along at least part of its longitudinal extension in a direction (86; 96) that is essentially perpendicular to the longitudinal extension of the elongated light emitting device, characterized in that the power tool further comprises at least one elongated holding arrangement made of a transparent material and adapted for receiving and surrounding at least part of the elongated light emitting device and for being attached to the tool housing. a tool housing, a working element protruding from the tool housing and designed to perform a working movement during an intended use of the power tool, a motor located inside the tool housing and designed to drive the working element to perform the working movement during the intended use of the power tool, and at least one elongated light emitting device having a longitudinal extension and located at least partially on an external surface of the tool housing, wherein the at least one elongated light emitting device is designed to emit light along at least part of its longitudinal extension in a direction (86; 96) that is essentially perpendicular to the longitudinal extension of the elongated light emitting device, characterized in that the power tool further comprises at least one elongated holding arrangement made of a transparent material and adapted for receiving and surrounding at least part of the elongated light emitting device and for being attached to the tool housing.
Voltage divider measurement device including: - a first measurement resistor connected between a voltage measurement input and a common point; - a second measurement resistor connected between said common point and a reference ground; - a measurement output connected to said common point; - an outer shielding casing surrounding said first and second measurement resistors that is connected to said reference ground; and - an inner capacitive electrode surrounding said first and second measurement resistors and positioned inside said outer shielding casing, which device is characterized in that it includes a phase-shift compensation circuit connected between said inner capacitive electrode and said common point, said compensation circuit including at least one electronic component having an electrical quantity that varies with temperature. - a first measurement resistor connected between a voltage measurement input and a common point; - a second measurement resistor connected between said common point and a reference ground; - a measurement output connected to said common point; - an outer shielding casing surrounding said first and second measurement resistors that is connected to said reference ground; and - an inner capacitive electrode surrounding said first and second measurement resistors and positioned inside said outer shielding casing,
A continuous flow-through dispersion device for the dispersion of aggregates, the device comprising an upstream inlet at one extremity of a conduit, at least two obstacles having opposing surfaces, said obstacles being a first or upstream inlet obstacle disposed within the conduit, said upstream inlet obstacle being perforated by at least one traversing hole and obstructing from about 50% to about 99.9% of the internal cross-sectional area of the conduit, a second or downstream outlet obstacle disposed within the conduit and a downstream outlet obstacle being perforated by at least one traversing hole and obstructing from about 50% to about 99.9% of the internal cross-sectional area of the conduit, wherein the longitudinal axis of any traversing hole of either obstacle does not align with the longitudinal axis of any other hole of a preceding or succeeding obstacle, a turbulence chamber defined by the opposing surfaces of the first and second obstacles and the inner wall of the conduit between said obstacles, and wherein the distance between two successive obstacles is from about 0.1 to about 10 times the diameter of the smallest hole of either of two successive obstacles, and a downstream outlet at the opposing extremity of the conduit.
A method comprising: receiving, at data processing hardware, structured data from a user device in a fleet of user devices; deconstructing, by the data processing hardware, the structured data into corresponding elements; obtaining, at the data processing hardware, standard structured data having corresponding standard elements; comparing, by the data processing hardware, the elements of the structured data with the standard elements of the standard structured data to identify any element differences; obtaining, by the data processing hardware, a registry of element comparisons, wherein the registry of element comparisons stores, for one or more of a plurality of user devices in a fleet of user devices, a result of a comparison between elements of the structured data sourced from the respective user device and the standard elements of the standard structured data; and for each element difference: determining, by the data processing hardware, whether the element difference is expected or unexpected based on at least one rule generated and/or dynamically updated by statistically analyzing the registry of element comparisons; and when the element difference is unexpected, generating, by the data processing hardware, a signal indicating the presence of an unexpected element in the structured data. receiving, at data processing hardware, structured data from a user device in a fleet of user devices; deconstructing, by the data processing hardware, the structured data into corresponding elements; obtaining, at the data processing hardware, standard structured data having corresponding standard elements; comparing, by the data processing hardware, the elements of the structured data with the standard elements of the standard structured data to identify any element differences; obtaining, by the data processing hardware, a registry of element comparisons, wherein the registry of element comparisons stores, for one or more of a plurality of user devices in a fleet of user devices, a result of a comparison between elements of the structured data sourced from the respective user device and the standard elements of the standard structured data; and for each element difference: determining, by the data processing hardware, whether the element difference is expected or unexpected based on at least one rule generated and/or dynamically updated by statistically analyzing the registry of element comparisons; and when the element difference is unexpected, generating, by the data processing hardware, a signal indicating the presence of an unexpected element in the structured data. determining, by the data processing hardware, whether the element difference is expected or unexpected based on at least one rule generated and/or dynamically updated by statistically analyzing the registry of element comparisons; and when the element difference is unexpected, generating, by the data processing hardware, a signal indicating the presence of an unexpected element in the structured data.
A sustained release pharmaceutical composition comprising acemetacin or a pharmaceutically acceptable salt thereof wherein • the composition is composed of Poly(methacylic acid-co-ethyl acrylate) and Poly(methacylic acid-co-methyl acrylate) as release modifying agents in ratio of 40:60 or 60:40 by weight, • the amount of release modifying agents is between 7% - 15% w/w in the composition, • the particle size of acemetacin is in the range of 120 - 160 micrometers. • the composition is composed of Poly(methacylic acid-co-ethyl acrylate) and Poly(methacylic acid-co-methyl acrylate) as release modifying agents in ratio of 40:60 or 60:40 by weight, • the amount of release modifying agents is between 7% - 15% w/w in the composition, • the particle size of acemetacin is in the range of 120 - 160 micrometers.
Rotation laser, comprising ▪ a laser light source for generating a laser beam; ▪ a deflection means rotatable about a rotation axis and serving for the directional emission of the laser beam; ▪ a transmitting unit extending from the laser light source as far as the deflection means, wherein the laser light source is part of the transmitting unit; and ▪ an optical system comprising one or a plurality of lenses for manipulating the laser beam, wherein at least one of the lenses is a lens which is deformable in a targeted manner by actuators, ▪ a control unit for manipulating the actuators which are arranged along a circumference of the lens which is deformable in a targeted manner, and thereby for manipulating the lens and its optical refraction properties, characterized in that ▪ the at least one lens which is deformable in a targeted manner by actuators has at least three actuators (50a, 50b, 50c, 50d, 50e, 50f, 50g, 50h) which are drivable by the control unit and which are arranged in a manner distributed along a circumference of the lens which is deformable, wherein ▪ the control unit is configured such that, by driving the at least three actuators (50a, 50b, 50c, 50d, 50e, 50f, 50g, 50h), the optical refraction properties of the at least one lens which is deformable in a targeted manner by actuators are variable differently in at least two non-coinciding directions (±51a, ±51b, ±51c, ±51d) or the laser beam is orientable in the x- and/or y-direction of the lens. ▪ a laser light source for generating a laser beam; ▪ a deflection means rotatable about a rotation axis and serving for the directional emission of the laser beam; ▪ a transmitting unit extending from the laser light source as far as the deflection means, wherein the laser light source is part of the transmitting unit; and ▪ an optical system comprising one or a plurality of lenses for manipulating the laser beam, wherein at least one of the lenses is a lens which is deformable in a targeted manner by actuators, ▪ a control unit for manipulating the actuators which are arranged along a circumference of the lens which is deformable in a targeted manner, and thereby for manipulating the lens and its optical refraction properties, ▪ the at least one lens which is deformable in a targeted manner by actuators has at least three actuators (50a, 50b, 50c, 50d, 50e, 50f, 50g, 50h) which are drivable by the control unit and which are arranged in a manner distributed along a circumference of the lens which is deformable, wherein ▪ the control unit is configured such that, by driving the at least three actuators (50a, 50b, 50c, 50d, 50e, 50f, 50g, 50h), the optical refraction properties of the at least one lens which is deformable in a targeted manner by actuators are variable differently in at least two non-coinciding directions (±51a, ±51b, ±51c, ±51d) or the laser beam is orientable in the x- and/or y-direction of the lens.
A lost circulation fabric "LCF" deployment system "LCFDS" (100, 200, 300, 400, 502, 800, 900, 1100, 1300, 1500, 1806, 1906) for deploying an LCF (114, 412, 512, 804, 914, 1102, 1108, 1314, 1512, 1808, 1908) at a lost circulation zone (1804,1904) within a wellbore, the LCFDS comprising: a first housing (102, 306, 414, 806, 916, 1106, 1316, 1516, 1810, 1910) configured to be coupled to an outer surface (109, 807, 904, 1117, 1312, 1510) of a tubular (104, 402, 500, 802, 902, 1107, 1302, 1502), wherein the first housing define a first cavity and is sized and shaped to reside within an annular space within a wellbore between the tubular and a wall of the wellbore; an opening (108, 416, 918, 1301) formed in the first housing, the opening providing communication between the first cavity and an exterior of the first housing; a door moveable between a closed position covering the opening formed in the first housing and an opened position uncovering the opening formed in the first housing; an LCF (114, 412, 512, 804, 914, 1102, 1108, 1314, 1512, 1808, 1908) disposed in the first cavity, wherein the LCF is configured to seal a loss zone in a wellbore to stop or reduce lost circulation; an actuator (126, 816, 911, 1304, 1514, 1610, 1622, 1626, 1912) coupled to the LCF and operable to deploy the LCF from the first housing; and a release system (116, 1624) coupled to the LCF, the release system operable to move the door between the closed position and open position to permit deployment of the LCF. a first housing (102, 306, 414, 806, 916, 1106, 1316, 1516, 1810, 1910) configured to be coupled to an outer surface (109, 807, 904, 1117, 1312, 1510) of a tubular (104, 402, 500, 802, 902, 1107, 1302, 1502), wherein the first housing define a first cavity and is sized and shaped to reside within an annular space within a wellbore between the tubular and a wall of the wellbore; an opening (108, 416, 918, 1301) formed in the first housing, the opening providing communication between the first cavity and an exterior of the first housing; a door moveable between a closed position covering the opening formed in the first housing and an opened position uncovering the opening formed in the first housing; an LCF (114, 412, 512, 804, 914, 1102, 1108, 1314, 1512, 1808, 1908) disposed in the first cavity, wherein the LCF is configured to seal a loss zone in a wellbore to stop or reduce lost circulation; an actuator (126, 816, 911, 1304, 1514, 1610, 1622, 1626, 1912) coupled to the LCF and operable to deploy the LCF from the first housing; and a release system (116, 1624) coupled to the LCF, the release system operable to move the door between the closed position and open position to permit deployment of the LCF.
A manufacturing method of a nitride power device, comprising the following steps: providing a silicon substrate having a top major surface and a bottom major surface; epitaxially growing a semiconductor doped multilayer structure forming a space charge depletion region on the bottom major surface of the silicon substrate; growing an epitaxial multilayer structure on the top major surface of the silicon substrate, wherein the epitaxial multilayer structure comprises at least a nitride nucleation layer, a nitride buffer layer formed on the nitride nucleation layer and a nitride channel layer formed on the nitride buffer layer; and forming contact electrodes on the epitaxial multilayer structure, wherein the electrodes include a source electrode, a drain electrode and a gate electrode between the source electrode and the drain electrode when the nitride power device has a triode structure, and include a positive electrode and a negative electrode when the nitride power device has a diode structure, wherein the semiconductor doped multilayer structure consists of multiple pn junctions formed by multiple n-type silicon layers and multiple p-type silicon layers in an alternating arrangement, and the multiple pn junctions form multiple space charge depletion regions. providing a silicon substrate having a top major surface and a bottom major surface; epitaxially growing a semiconductor doped multilayer structure forming a space charge depletion region on the bottom major surface of the silicon substrate; growing an epitaxial multilayer structure on the top major surface of the silicon substrate, wherein the epitaxial multilayer structure comprises at least a nitride nucleation layer, a nitride buffer layer formed on the nitride nucleation layer and a nitride channel layer formed on the nitride buffer layer; and forming contact electrodes on the epitaxial multilayer structure, wherein the electrodes include a source electrode, a drain electrode and a gate electrode between the source electrode and the drain electrode when the nitride power device has a triode structure, and include a positive electrode and a negative electrode when the nitride power device has a diode structure, wherein the semiconductor doped multilayer structure consists of multiple pn junctions formed by multiple n-type silicon layers and multiple p-type silicon layers in an alternating arrangement, and the multiple pn junctions form multiple space charge depletion regions.
A household appliance mixing arrangement comprising - an open top mixing container, - a hook and - a drive arrangement, where the mixing container comprises a side wall portion with a through hole for the drive arrangement and the hook is arranged to be rotatable around an axis of rotation within the mixing container via the drive arrangement, characterized in that the household appliance mixing arrangement comprises a sealing arranged between the drive arrangement and the side wall portion of the mixing container, and in that the drive arrangement comprises a quick-release-hook-attachment arrangement to which the hook is attachable. - an open top mixing container, - a hook and - a drive arrangement,
Anti-abrasion layer comprising a mixture of irregular hard material particles and round solid material particles that are substantially free of cutting edges, embedded in a matrix material, wherein the hard material particles have a Mohs hardness rating of at least 6, and the solid material particles have a Mohs hardness rating of at least 3, wherein the mean particle diameter of the solid material particles is equal to or less than the mean particle diameter of the hard material particles, wherein the irregular hard material particles are selected from the group consisting of aluminium oxide, corundum, molten corundum, sintered corundum, zirconium corundum, sol-gel corundum, silicon carbide and boron carbide, wherein the round solid material particles that are substantially free of cutting edges are full spheres made of glass and/or sintered ceramic, wherein the ratio of round solid material particles that are substantially free of cutting edges in the embedded mixture is 10 to 50 wt.-%, based on the total amount of embedded particles.
Positioning device for the movement of an optical element having a movement drive, a transfer element for the transfer of an output movement of the movement drive, which is introduced into the transfer element, into an adjustment movement of the optical element, having a receiver, which is able to be connected to the transfer element in a X-Y movement plane, for an optical element, and having at least one first and second flexure fulcrum (65, 66), wherein - the first flexure fulcrum is formed in a mechanically stiff manner in a first movement direction, tangentially to the movement path of the adjustment movement and has a low level of stiffness perpendicular to this in a further movement direction, and - the second flexure fulcrum is formed to be mechanically stiff in the first movement direction of the first flexure fulcrum and elastic in a third movement direction perpendicular to the first and second movement direction (53, 54) of the first flexure fulcrum, characterised in that - the movement drive has a drive axis which is coupled to the transfer element, - the movement drive is formed as an eccentric drive and in that a support element of the transfer element receives the drive axis perpendicular to the movement plane of the transfer element, and - the second flexure fulcrum of the transfer element is arranged to be pre-stressed in such a way that it exerts a force on at least one bearing (45, 48, 36) of the movement drive or of the optical element. - the first flexure fulcrum is formed in a mechanically stiff manner in a first movement direction, tangentially to the movement path of the adjustment movement and has a low level of stiffness perpendicular to this in a further movement direction, and - the second flexure fulcrum is formed to be mechanically stiff in the first movement direction of the first flexure fulcrum and elastic in a third movement direction perpendicular to the first and second movement direction (53, 54) of the first flexure fulcrum, - the movement drive has a drive axis which is coupled to the transfer element, - the movement drive is formed as an eccentric drive and in that a support element of the transfer element receives the drive axis perpendicular to the movement plane of the transfer element, and - the second flexure fulcrum of the transfer element is arranged to be pre-stressed in such a way that it exerts a force on at least one bearing (45, 48, 36) of the movement drive or of the optical element.
Lock for the door of the box, especially in the collective deposit locker, remotely controlled by an access code, including a one-sided electromagnetic actuator built inside the box housing (whose core (8.1) drives the ejector lever of the lever system (4, 3, 7) on the pivot (1.1) of the housing and which locks the box door away with ends of the hook (3.1.) of the latch projecting through the holes in the front wall of the housing and the foot (4.1) of the ejector pushes the door away from the front wall after lifting the hook (3.1) by the electromagnetic actuator with the movable core (8.1)) towards the rear edge of the ejector, where the latch and the ejector are loaded with a spiral spring mounted on the pivot (1.1) towards the block with the hook (3.1) of the door and retraction of the foot (4.1) of the ejector; in addition,in the lock, the hook (3.1) behind the front wall is covered from the front side and on both sides by the walls of the hook cover mounted on the pivot (1.1)) and going through the hole in the front wall, characterized in that the lever system consists of two separate, flat lever elements of the latch and the ejector, adjacent to each other by faces and bearing mounted on the pivot (1.1) of the housing and acting on each other through protruding pins (3.2, 4.2) so that after swinging the hook (3.1) by the action of the electromagnetic actuator and after opening the ejector of the box door with the foot (4.1), the hook (3.1) returns to the closed position under the action of the spiral spring.
A screwed connection of electrically conductive machine elements (E1, E2), especially of a hydraulic member, with anti-rotation protection between the machine elements, characterized in that the anti-rotation protection is at least one resistance welding between flanks of engaging thread pitches (3, 4) of the machine elements (E1, E2) formed of the material of the machine elements (E1, E2).