mhurhangee/ep-ind-claims huggingface dataset:
A power module comprising: • a housing with an interior chamber; and • a plurality of switch modules (SM5-SM10) mounted within the interior chamber and interconnected to facilitate switching power to a load wherein each of the plurality of switch modules comprises at least one transistor (Q5-Q10) configured to receive a separate control signal (S5-S10) that is varied to provide a sinusoidal drive current and at least one diode (D5-D10) wherein the at least one transistor and the at least one diode are coupled together and a plurality of pins (13P-28P) is connected to one or more terminals of the at least one transistor, and the power module is able to block 1200 volts, conduct 50 amperes, and has switching losses of less than ten milli-Joules and both the at least one transistor and the at least one diode are majority carrier devices, wherein the plurality of switch modules includes six switch modules (SM5-SM10), wherein the at least one transistor and the at least one diode are formed from a wide bandgap material system. • a housing with an interior chamber; and • a plurality of switch modules (SM5-SM10) mounted within the interior chamber and interconnected to facilitate switching power to a load wherein each of the plurality of switch modules comprises at least one transistor (Q5-Q10) configured to receive a separate control signal (S5-S10) that is varied to provide a sinusoidal drive current and at least one diode (D5-D10) wherein the at least one transistor and the at least one diode are coupled together and a plurality of pins (13P-28P) is connected to one or more terminals of the at least one transistor, and the power module is able to block 1200 volts, conduct 50 amperes, and has switching losses of less than ten milli-Joules and both the at least one transistor and the at least one diode are majority carrier devices, wherein the plurality of switch modules includes six switch modules (SM5-SM10), wherein the at least one transistor and the at least one diode are formed from a wide bandgap material system.
A telescopic support leg locking structure, comprising a base, a support leg pedestal, and a support leg, wherein the support leg pedestal is slidably connected to the base, and the support leg is hingedly connected to the support leg pedestal; and the telescopic support leg locking structure further comprises a secondary lock, wherein the support leg pedestal is provided with a chamber for the secondary lock to slide vertically, the secondary lock comprises a locking tongue configured to abut against the support leg, the chamber is provided with a lower opening for the locking tongue to extend out therethrough, the base is provided with a locking hole, and when the support leg is separated from the locking tongue, the locking tongue is locked with the locking hole to restrict the support leg pedestal from moving forward and backward relative to the base.
A sensor module for the capacitive and spatially resolved detection of an object approaching the sensor module and for the capacitive and spatially resolved capturing of tactile events between an object and the sensor module, comprising - a sensor element which has a first, a second and a third layer, wherein the first layer comprises a plurality of electrically conductive top electrodes, wherein the second layer is deformable and electrically insulating, wherein the third layer has an electrically conductive bottom electrode, wherein the second layer is arranged between the first and third layers, wherein the first and third layers are the only electrically conductive layers of the sensor element, and - a measuring unit which is designed to operate the sensor element in three different measurement configurations, namely in a self-capacitive approach configuration, a bilateral-capacitive approach configuration and a bilateral-capacitive tactility configuration, wherein the measuring unit is designed: -- in the self-capacitive approach configuration, to operate at least one of the top electrodes in a transmit mode; -- in the bilateral-capacitive approach configuration, to operate the at least one top electrode in the transmit mode or in a receive mode; and -- in the bilateral-capacitive tactility configuration, to operate the at least one top electrode in the transmit mode and the bottom electrode in the receive mode. - a sensor element which has a first, a second and a third layer, wherein the first layer comprises a plurality of electrically conductive top electrodes, wherein the second layer is deformable and electrically insulating, wherein the third layer has an electrically conductive bottom electrode, wherein the second layer is arranged between the first and third layers, wherein the first and third layers are the only electrically conductive layers of the sensor element, and - a measuring unit which is designed to operate the sensor element in three different measurement configurations, namely in a self-capacitive approach configuration, a bilateral-capacitive approach configuration and a bilateral-capacitive tactility configuration, wherein the measuring unit is designed: -- in the self-capacitive approach configuration, to operate at least one of the top electrodes in a transmit mode; -- in the bilateral-capacitive approach configuration, to operate the at least one top electrode in the transmit mode or in a receive mode; and -- in the bilateral-capacitive tactility configuration, to operate the at least one top electrode in the transmit mode and the bottom electrode in the receive mode. -- in the self-capacitive approach configuration, to operate at least one of the top electrodes in a transmit mode; -- in the bilateral-capacitive approach configuration, to operate the at least one top electrode in the transmit mode or in a receive mode; and -- in the bilateral-capacitive tactility configuration, to operate the at least one top electrode in the transmit mode and the bottom electrode in the receive mode.
A method of making a transformer, which comprises: etching first half primary and secondary windings as metallic circuits on a metallic cladding of a first liquid crystal polymer sheet such that secondary windings are positioned in spaced relation to the primary windings; applying a ferrite layer over the first LCP sheet in the vicinity of the first half primary and secondary windings to form a wrap core; applying a second LCP sheet over the ferrite layer, wherein the ferrite layer is between the first and second LCP sheets; etching second half primary and secondary windings as metallic circuits on a metallic cladding of the second LCP sheet; fusing first and second LCP sheets together to wrap the ferrite layer between the first and second LCP sheets carrying the first and second primary and secondary windings; and interconnecting the respective first and second half primary windings to each other and first and second half secondary windings to each other by conductive vias. etching first half primary and secondary windings as metallic circuits on a metallic cladding of a first liquid crystal polymer sheet such that secondary windings are positioned in spaced relation to the primary windings; applying a ferrite layer over the first LCP sheet in the vicinity of the first half primary and secondary windings to form a wrap core; applying a second LCP sheet over the ferrite layer, wherein the ferrite layer is between the first and second LCP sheets; etching second half primary and secondary windings as metallic circuits on a metallic cladding of the second LCP sheet; fusing first and second LCP sheets together to wrap the ferrite layer between the first and second LCP sheets carrying the first and second primary and secondary windings; and interconnecting the respective first and second half primary windings to each other and first and second half secondary windings to each other by conductive vias.
Wristwatch comprising a watch case, a clock movement in said watch case and a dial, characterised by a three-dimensional figure above said dial; at least one shaft (21 a) extending above said dial, in a direction perpendicular to the dial, arranged in order to move at least a part of said three-dimensional figure in a plane non-parallel to the dial; a device for driving the figure below said dial to control the movements of said shaft, said device for driving the figure comprising a first barrel provided with at least a first cam acting on said shaft (21 a).
An image capturing apparatus configured to execute autofocus detection by at least one of a phase difference detection method and a contrast detection method using an image signal obtained from a set focus detection region in an imaging plane of an imaging optical system and from which the imaging optical system and a converter lens are detachable, the image capturing apparatus comprising: conversion means configured to convert aberration information indicating a spherical aberration of the imaging optical system based on a magnification and aberration information of the converter lens in a case where the converter lens is mounted; calculation means configured to calculate a correction value for correcting a result of the autofocus detection on discrepancy of focus condition caused by at least the spherical aberration of the imaging optical system, using the aberration information of the imaging optical system that has not been converted by the conversion means in a case where the converter lens is not mounted, and using aberration information that has been converted by the conversion means in a case where the converter lens is mounted; and control means configured to control a position of a focus lens provided in the imaging optical system, based on the result of the autofocus detection that has been corrected using the correction value, wherein the aberration information of the imaging optical system is a modulation transfer function, and the conversion means is configured to convert the modulation transfer function based on an aberration of the converter lens and a change of a spatial frequency, wherein the change of a spatial frequency being caused in accordance with a magnification of the converter lens. conversion means configured to convert aberration information indicating a spherical aberration of the imaging optical system based on a magnification and aberration information of the converter lens in a case where the converter lens is mounted; calculation means configured to calculate a correction value for correcting a result of the autofocus detection on discrepancy of focus condition caused by at least the spherical aberration of the imaging optical system, using the aberration information of the imaging optical system that has not been converted by the conversion means in a case where the converter lens is not mounted, and using aberration information that has been converted by the conversion means in a case where the converter lens is mounted; and control means configured to control a position of a focus lens provided in the imaging optical system, based on the result of the autofocus detection that has been corrected using the correction value, wherein the aberration information of the imaging optical system is a modulation transfer function, and the conversion means is configured to convert the modulation transfer function based on an aberration of the converter lens and a change of a spatial frequency, wherein the change of a spatial frequency being caused in accordance with a magnification of the converter lens.
A computer-implemented system for simulation of joining materials with or without filler material, the system comprising: processing circuitry; a physical workpiece; a physical joining tool; one or more image sensors configured to capture images of the physical workpiece and the physical joining tool corresponding to a joining operation; and characterised in that the system further comprises: a machine readable storage device storing machine readable instructions which, when executed by the processing circuitry, cause the processing circuitry to: define a plurality of slice sampling intervals depending on a desired precision; define a slice plane according to a desired orientation with respect to a weld trajectory; display a visual simulation of a three-dimensional joining operation within a simulation domain by simulating the simulation domain as a set of interconnected cross-sectional slices; wherein said slices are oriented according to the defined slice plane along the weld trajectory; wherein the slices are two-dimensional and have a width equivalent to a distance between the defined sampling intervals; and wherein the simulation domain is based on images of the physical workpiece and the physical joining tool captured by the image sensors. processing circuitry; a physical workpiece; a physical joining tool; one or more image sensors configured to capture images of the physical workpiece and the physical joining tool corresponding to a joining operation; and characterised in that the system further comprises: a machine readable storage device storing machine readable instructions which, when executed by the processing circuitry, cause the processing circuitry to: define a plurality of slice sampling intervals depending on a desired precision; define a slice plane according to a desired orientation with respect to a weld trajectory; display a visual simulation of a three-dimensional joining operation within a simulation domain by simulating the simulation domain as a set of interconnected cross-sectional slices; wherein said slices are oriented according to the defined slice plane along the weld trajectory; wherein the slices are two-dimensional and have a width equivalent to a distance between the defined sampling intervals; and wherein the simulation domain is based on images of the physical workpiece and the physical joining tool captured by the image sensors. define a plurality of slice sampling intervals depending on a desired precision; define a slice plane according to a desired orientation with respect to a weld trajectory; display a visual simulation of a three-dimensional joining operation within a simulation domain by simulating the simulation domain as a set of interconnected cross-sectional slices; wherein said slices are oriented according to the defined slice plane along the weld trajectory; wherein the slices are two-dimensional and have a width equivalent to a distance between the defined sampling intervals; and wherein the simulation domain is based on images of the physical workpiece and the physical joining tool captured by the image sensors.
A method to simulate distillation of a petroleum stream by comprehensive two-dimensional gas chromatography with sub-total yield of pre-defined compound classes as a function of boiling point comprising: a) separating said petroleum stream with a two-dimensional gas chromatograph having temperature as a first dimension of retention time, said temperature being the boiling point, and polarity as a second dimension of retention time, to obtain a two-dimensional chromatogram representing polarity as a function of temperature, b) integrating the two-dimensional chromatogram at a given temperature to determine the mole percent of the compound classes as a function of temperature. a) separating said petroleum stream with a two-dimensional gas chromatograph having temperature as a first dimension of retention time, said temperature being the boiling point, and polarity as a second dimension of retention time, to obtain a two-dimensional chromatogram representing polarity as a function of temperature, b) integrating the two-dimensional chromatogram at a given temperature to determine the mole percent of the compound classes as a function of temperature.
A displacement air outlet (1, 1') with an elongated housing having a longitudinal axis, which encloses an air distribution space, wherein the housing comprises - an air inlet cross section, on which a connection spigot for supplying inlet air is arranged, - at least one first side wall having a perforation, wherein the sum of perforations forms a first air outlet surface, - a second side wall on which at least one row of nozzles is arranged, wherein the sum of outlet surfaces of the nozzles forms a second air outlet surface, wherein - the first side wall and the second side wall each have a longitudinal axis, which run parallel to each other and parallel to the longitudinal axis of the housing, wherein - an elongated adjusting element (17, 17') running parallel to the longitudinal axis of the housing is arranged in the air distribution space, and rotatably mounted on a long side, wherein the adjusting element (17, 17') inside of the housing can be moved from a first position, in which it blocks a flow cross section between the air inlet cross section and the first air outlet surface, into a second position, in which the adjusting element (17, 17') blocks a flow cross section between the air inlet cross section and the second air outlet surface, characterized in that - the first side wall and the second side wall bump against each other along an impact line. - an air inlet cross section, on which a connection spigot for supplying inlet air is arranged, - at least one first side wall having a perforation, wherein the sum of perforations forms a first air outlet surface, - a second side wall on which at least one row of nozzles is arranged, wherein the sum of outlet surfaces of the nozzles forms a second air outlet surface, wherein - the first side wall and the second side wall each have a longitudinal axis, which run parallel to each other and parallel to the longitudinal axis of the housing, wherein - an elongated adjusting element (17, 17') running parallel to the longitudinal axis of the housing is arranged in the air distribution space, and rotatably mounted on a long side, wherein the adjusting element (17, 17') inside of the housing can be moved from a first position, in which it blocks a flow cross section between the air inlet cross section and the first air outlet surface, into a second position, in which the adjusting element (17, 17') blocks a flow cross section between the air inlet cross section and the second air outlet surface, characterized in that - the first side wall and the second side wall bump against each other along an impact line.
A process for producing ethanol comprising: hydrogenating acetic acid and/or an ester thereof in a reactor in the presence of a catalyst to form a crude ethanol product; separating a portion of the crude ethanol product in a first distillation column to yield a first distillate comprising acetaldehyde and ethyl acetate, and a first residue comprising ethanol, acetic acid, ethyl acetate and water; separating a portion of the first residue in a second distillation column to yield a second residue comprising acetic acid and an vapor overhead comprising ethanol, ethyl acetate and water; removing water from at least a portion of the vapor overhead to yield an ethanol mixture stream having a lower water content than the at least a portion of the vapor overhead; and separating at least a portion of the ethanol mixture stream in a third distillation column to yield a third distillate comprising ethyl acetate and a third residue comprising ethanol and less than 8 wt.% water, preferably less than 3 wt.% water or preferably less than 0.5 wt.% water, wherein at least a portion of the third distillate is fed to the first column. hydrogenating acetic acid and/or an ester thereof in a reactor in the presence of a catalyst to form a crude ethanol product; separating a portion of the crude ethanol product in a first distillation column to yield a first distillate comprising acetaldehyde and ethyl acetate, and a first residue comprising ethanol, acetic acid, ethyl acetate and water; separating a portion of the first residue in a second distillation column to yield a second residue comprising acetic acid and an vapor overhead comprising ethanol, ethyl acetate and water; removing water from at least a portion of the vapor overhead to yield an ethanol mixture stream having a lower water content than the at least a portion of the vapor overhead; and separating at least a portion of the ethanol mixture stream in a third distillation column to yield a third distillate comprising ethyl acetate and a third residue comprising ethanol and less than 8 wt.% water, preferably less than 3 wt.% water or preferably less than 0.5 wt.% water, wherein at least a portion of the third distillate is fed to the first column.
A brush seal assembly (200a, 400), comprising: a brush (210, 410) configured to have a first end disposed in a side of a diaphragm and a second end protruding toward a rotor; a support strip (220, 420) configured to support a first side of the brush (210, 410); and a first back plate (230, 430) configured to support a side of the support strip (220, 420), wherein the support strip (220, 420) includes: a support part (221, 421) configured to support a first side of the brush (210, 410), and wherein the support part (221, 421) includes at least one flexed part (224, 424), characterised in that the support strip (220, 420) also includes a bending part (222, 422) bent to enclose the first end of the brush (210, 410) in the end of the support part (220, 420), and an extension (223, 423) configured to extend from an end of the bending part (222, 422) to partially cover a second side of the brush (210, 410). a brush (210, 410) configured to have a first end disposed in a side of a diaphragm and a second end protruding toward a rotor; a support strip (220, 420) configured to support a first side of the brush (210, 410); and a first back plate (230, 430) configured to support a side of the support strip (220, 420), wherein the support strip (220, 420) includes: a support part (221, 421) configured to support a first side of the brush (210, 410), and wherein the support part (221, 421) includes at least one flexed part (224, 424), a support part (221, 421) configured to support a first side of the brush (210, 410), and wherein the support part (221, 421) includes at least one flexed part (224, 424),