mhurhangee/patent-ind-claim-en huggingface dataset:
Position sensor device for sensing a position of an actuator having an electric motor which is controlled by a control unit , having: - an IC housing , - a position sensor , - control lines with motor connections, wherein the control lines are designed to supply an electric motor with a voltage which is applied by a control unit via the motor connections, wherein at least one of the motor connections of the electric motor is designed to provide the position sensor with a clocked positive voltage, wherein the position sensor is designed to take the electrical energy for its operation via the control lines of the motor connections, and - a rectifier circuit for rectifying and filtering the clocked voltage of the motor connections , wherein the rectifier circuit comprises: - a bridge circuit with diodes , - a series resistor, - a storage capacitor , and - a voltage controller , wherein the rectifier circuit is combined with an evaluation circuit of the position sensor in an integrated circuit which is integrated in the IC housing of the position sensor , wherein the output signals from the position sensor remain independent of the supply voltage of the position sensor within a stipulated range. - an IC housing , - a position sensor , - control lines with motor connections, wherein the control lines are designed to supply an electric motor with a voltage which is applied by a control unit via the motor connections, wherein at least one of the motor connections of the electric motor is designed to provide the position sensor with a clocked positive voltage, wherein the position sensor is designed to take the electrical energy for its operation via the control lines of the motor connections, and - a rectifier circuit for rectifying and filtering the clocked voltage of the motor connections , wherein the rectifier circuit comprises: - a bridge circuit with diodes , - a series resistor, - a storage capacitor , and - a voltage controller , wherein the rectifier circuit is combined with an evaluation circuit of the position sensor in an integrated circuit which is integrated in the IC housing of the position sensor , wherein the output signals from the position sensor remain independent of the supply voltage of the position sensor within a stipulated range. - a bridge circuit with diodes , - a series resistor, - a storage capacitor , and - a voltage controller ,
A method of edge sealing for a secondary lithium battery, comprising steps of: drawing a 3D model of a battery edge to be edge sealed of a secondary lithium battery, and inputting the 3D model into a 3D printer; positioning the secondary lithium battery to be edge sealed in a 3D printing area, and fixing a relative position of the secondary lithium battery in the 3D printing area; simulating, by the 3D printer, the battery edge according to the 3D model and setting a printing path; adding edge sealing glue in a printing head of the 3D printer, moving the printing head according to the set printing path and in the meantime printing with a pair of symmetrically arranged gluing injectors of the printing head that are provided with gluing needles, the gluing needles being respectively located adjacent to two opposite sides of the battery edge, and simultaneously moving along the printing path with a same moving rate and a same glue extruding rate, to print glue of a uniform volume on the two sides of the battery edge, so that edge sealing glue printed covers the battery edge; solidifying the edge sealing glue. drawing a 3D model of a battery edge to be edge sealed of a secondary lithium battery, and inputting the 3D model into a 3D printer; positioning the secondary lithium battery to be edge sealed in a 3D printing area, and fixing a relative position of the secondary lithium battery in the 3D printing area; simulating, by the 3D printer, the battery edge according to the 3D model and setting a printing path; adding edge sealing glue in a printing head of the 3D printer, moving the printing head according to the set printing path and in the meantime printing with a pair of symmetrically arranged gluing injectors of the printing head that are provided with gluing needles, the gluing needles being respectively located adjacent to two opposite sides of the battery edge, and simultaneously moving along the printing path with a same moving rate and a same glue extruding rate, to print glue of a uniform volume on the two sides of the battery edge, so that edge sealing glue printed covers the battery edge; solidifying the edge sealing glue.
A compound of Formula 1 or its pharmaceutically acceptable salt: wherein, R 1 , R 2 , and R 3 are, independently of each other, hydrogen; a halogen group; a nitro group; an amino group; a C 1 ∼C 6 alkyl group optionally substituted with halogen; or a hydroxycarbonyl group (with the proviso that R 1 , R 2 , and R 3 are not hydrogen at the same time), R 4 , R 5 , and R 6 are, independently of each other, hydrogen; a halogen group; a C 1 ∼C 6 alkyl group; a C 1 ∼C 6 alkoxy group optionally substituted with C 3 ∼C 6 cycloalkyl; a C 1 ∼C 6 alkylsulfanyl group; or a mono- or di-C 1 ∼C 6 alkylamino group, R 7 and R 8 are, independently of each other, hydrogen; a hydroxy group; a halogen group; or a hydroxycarbonyl group (with the proviso that R 7 and R 8 are not hydrogen at the same time), and Rg is hydrogen or a C 1 ∼C 6 alkyl group. R 1 , R 2 , and R 3 are, independently of each other, hydrogen; a halogen group; a nitro group; an amino group; a C 1 ∼C 6 alkyl group optionally substituted with halogen; or a hydroxycarbonyl group (with the proviso that R 1 , R 2 , and R 3 are not hydrogen at the same time), R 4 , R 5 , and R 6 are, independently of each other, hydrogen; a halogen group; a C 1 ∼C 6 alkyl group; a C 1 ∼C 6 alkoxy group optionally substituted with C 3 ∼C 6 cycloalkyl; a C 1 ∼C 6 alkylsulfanyl group; or a mono- or di-C 1 ∼C 6 alkylamino group, R 7 and R 8 are, independently of each other, hydrogen; a hydroxy group; a halogen group; or a hydroxycarbonyl group (with the proviso that R 7 and R 8 are not hydrogen at the same time), and Rg is hydrogen or a C 1 ∼C 6 alkyl group.
A method for operating a head mounted computing device, the method comprising: determining a user's gaze direction based on a gaze input ; determining an intersection between the user's gaze direction and an identified environmental surface in a real world 3-dimensional environment; generating a first drawing surface, based on the intersection, within a user interface on a see through holographic display configured to present holographic images, wherein the first drawing surface is arranged at a predetermined angle relative to the user's gaze direction and the first drawing surface is planar, wherein the predetermined angle is determined at least in part based on a geometric characteristic of the identified environmental surface; receiving a first drawing surface input that includes a path drawn by a user; ; and in response to receiving the first drawing surface input, rendering a first drawing indicia on the first drawing surface within the user interface on the see through holographic display , the first drawing indicia including one or more lines that denote the path drawn by the user based on the first drawing surface input . determining a user's gaze direction based on a gaze input ; determining an intersection between the user's gaze direction and an identified environmental surface in a real world 3-dimensional environment; generating a first drawing surface, based on the intersection, within a user interface on a see through holographic display configured to present holographic images, wherein the first drawing surface is arranged at a predetermined angle relative to the user's gaze direction and the first drawing surface is planar, wherein the predetermined angle is determined at least in part based on a geometric characteristic of the identified environmental surface; receiving a first drawing surface input that includes a path drawn by a user; ; and in response to receiving the first drawing surface input, rendering a first drawing indicia on the first drawing surface within the user interface on the see through holographic display , the first drawing indicia including one or more lines that denote the path drawn by the user based on the first drawing surface input .
A controller for a vehicle , the vehicle including an engine , a transmission configured to shift gears through a shift operation by a driver, and a clutch configured to connect and disconnect a power transmission route between the engine and the transmission , the controller comprising an electronic control unit (30; 110) configured to: execute coasting control for blocking the power transmission route between the engine and the transmission by the clutch when a specified condition is established during traveling of the vehicle ; characterised in that the electronic control unit is configured to control the transmission so as to allow the shift operation, by which the transmission is switched to neutral to be performed by the driver during the coasting control; and prohibit a further shift operation to a particular gear when the coasting of the vehicle is continued after the shift operation to switch the transmission to neutral. an engine , a transmission configured to shift gears through a shift operation by a driver, and a clutch configured to connect and disconnect a power transmission route between the engine and the transmission , an electronic control unit (30; 110) configured to: execute coasting control for blocking the power transmission route between the engine and the transmission by the clutch when a specified condition is established during traveling of the vehicle ; characterised in that the electronic control unit is configured to control the transmission so as to allow the shift operation, by which the transmission is switched to neutral to be performed by the driver during the coasting control; and prohibit a further shift operation to a particular gear when the coasting of the vehicle is continued after the shift operation to switch the transmission to neutral.
A ceramic membrane filtration assembly comprising: a membrane assembly extending from a first membrane assembly end to a second membrane assembly end, the membrane assembly defined by a membrane assembly length ; the membrane assembly including at least one membrane; said at least one membrane having channels therein, at least one channel having channel ends; at least one sealing device coupled with the membrane assembly adjacent to at least one of the first and second membrane assembly ends; the sealing device having an inner and outer perimeter; the sealing device having a sealing feature disposed along the outer perimeter; and the inner perimeter of the sealing device is sealed with a portion of the membrane assembly , characterised in that the sealing device further includes structural members extending from an inner surface of the sealing device and meet a center ring , and wherein the structural members do not contact the membrane assembly ends such that a gap is present between the structural members and the membrane assembly ends. a membrane assembly extending from a first membrane assembly end to a second membrane assembly end, the membrane assembly defined by a membrane assembly length ; the membrane assembly including at least one membrane; said at least one membrane having channels therein, at least one channel having channel ends; at least one sealing device coupled with the membrane assembly adjacent to at least one of the first and second membrane assembly ends; the sealing device having an inner and outer perimeter; the sealing device having a sealing feature disposed along the outer perimeter; and the inner perimeter of the sealing device is sealed with a portion of the membrane assembly , characterised in that the sealing device further includes structural members extending from an inner surface of the sealing device and meet a center ring , and wherein the structural members do not contact the membrane assembly ends such that a gap is present between the structural members and the membrane assembly ends. at least one sealing device coupled with the membrane assembly adjacent to at least one of the first and second membrane assembly ends; the sealing device having an inner and outer perimeter; the sealing device having a sealing feature disposed along the outer perimeter; and the inner perimeter of the sealing device is sealed with a portion of the membrane assembly , characterised in that the sealing device further includes structural members extending from an inner surface of the sealing device and meet a center ring , and wherein the structural members do not contact the membrane assembly ends such that a gap is present between the structural members and the membrane assembly ends.
A method for manufacturing a semiconductor structure, comprising: providing a substrate ; forming a semiconductor layer on the substrate ; performing P-type doping on the semiconductor layer to transform the semiconductor layer into an initial mask layer ; performing a first patterning treatment on the initial mask layer to form a mask layer with an opening; and performing a second patterning treatment on the substrate by using an etching process with the mask layer as a mask, wherein an etching rate of the substrate is greater than an etching rate of the mask layer during the etching process; wherein a material of the initial mask layer comprises a boron-silicon compound, and an atomic percent of boron atoms and silicon atoms in the boron-silicon compound is in a range of 1:1 to 3:2; wherein providing the substrate comprises: providing a base ; forming a stacked structure on the base , wherein the stacked structure includes a bottom support layer , a first dielectric layer , an intermediate support layer , a second dielectric layer and a top support layer stacked in sequence on the base ; and performing the second patterning treatment on the substrate comprises: etching the stacked structure by taking the mask layer as a mask and using the etching process to form a capacitor contact hole . providing a substrate ; forming a semiconductor layer on the substrate ; performing P-type doping on the semiconductor layer to transform the semiconductor layer into an initial mask layer ; performing a first patterning treatment on the initial mask layer to form a mask layer with an opening; and performing a second patterning treatment on the substrate by using an etching process with the mask layer as a mask, wherein an etching rate of the substrate is greater than an etching rate of the mask layer during the etching process; wherein a material of the initial mask layer comprises a boron-silicon compound, and an atomic percent of boron atoms and silicon atoms in the boron-silicon compound is in a range of 1:1 to 3:2; wherein providing the substrate comprises: providing a base ; forming a stacked structure on the base , wherein the stacked structure includes a bottom support layer , a first dielectric layer , an intermediate support layer , a second dielectric layer and a top support layer stacked in sequence on the base ; and performing the second patterning treatment on the substrate comprises: etching the stacked structure by taking the mask layer as a mask and using the etching process to form a capacitor contact hole . providing a base ; forming a stacked structure on the base , wherein the stacked structure includes a bottom support layer , a first dielectric layer , an intermediate support layer , a second dielectric layer and a top support layer stacked in sequence on the base ; and performing the second patterning treatment on the substrate comprises: etching the stacked structure by taking the mask layer as a mask and using the etching process to form a capacitor contact hole .
An adapter for connecting a wiper to a drive arm , the adapter comprising two substantially parallel walls joined together by at least one connecting element , said walls comprising internal first lateral faces between which said at least one connecting element extends, and external lateral faces comprising projecting sliding-guidance patterns , said patterns being distributed in rows and columns, characterized in that said patterns are separated from one another by grooves that form drainage channels which are, over at least part of their length, inclined with respect to the longitudinal axis of the adapter.
A cutting assembly for a self-propelled harvesting machine , having a multi-component cutter bar , wherein the cutter bar comprises at least two cutter bar segments , wherein an electrical actuator is associated with each cutter bar segment , and the cutter bar segments can be actuated in linear oscillation by means of the electrical actuator , characterized in that the cutting assembly has an alternating voltage supply system with at least two phases , wherein the alternating voltage supply system is provided and configured to be supplied with phases from an alternating voltage source , wherein each of the phases has a mutually phase-shifted alternating voltage, and at least one of the phases is associated with each electrical actuator .
System comprising a radiation source and an apparatus for correcting an inhomogeneous intensity distribution of a radiation field generated by the radiation source for an apparatus for manufacturing three-dimensional objects by solidifying in layers a material that is solidifiable under the effect of radiation in a building plane , which apparatus comprises a correction or filter device for introduction into a radiation path of an apparatus for manufacturing three-dimensional objects by solidifying in layers a material that is solidifiable under the effect of radiation between the radiation source and the building plane , wherein an intensity distribution of the radiation field is measured or calculated in a calibration surface between the radiation source and the building plane or in the building plane and a correction or filter device is configured for introduction into the radiation path in dependence on the intensity distribution of the radiation field in the calibration surface in such a way that the intensity distribution of the radiation field in the building plane is homogeneous after passing through the correction or filter device , wherein an absorption or reflection behavior of the correction or filter device is constant over time, wherein the correction or filter device comprises a substrate and at least one correction or filter layer formed on or applied to the substrate , and wherein the correction or filter layer is formed in dependence on the intensity distribution of the radiation field in the calibration surface in such a way that the intensity distribution of the radiation field in the building plane is homogeneous after passing through the correction or filter device , characterized in that the correction or filter layer has at least two correction or filter layer regions , which have a minimum and a maximum radiation attenuation value, in that a difference between the minimum and the maximum radiation attenuation value corresponds to a difference between a minimum and a maximum radiation intensity of the radiation field in a calibration surface between the radiation source and the building plane or in the building plane , in that the calibration surface is rasterized and defines a plurality of calibration surface pixels , in that the correction or filter layer comprises a plurality of correction or filter layer pixels corresponding to the plurality of calibration layer pixels , and in that a radiation attenuation value of each correction or filter layer pixel is adapted to the intensity of the radiation of the radiation source impinging on said correction or filter layer pixel in such a way that the intensity of the radiation field is identical or substantially identical for all correction or filter layer pixels after passing through the correction or filter layer pixel .
An ethanol engine system comprising: an engine ; a reformer ; a reservoir tank of an aqueous ethanol solution; a first supply device which supplies the aqueous ethanol solution in the reservoir tank to the reformer ; a separator which separates a mixed gas including a reformed gas fed from the reformer into gas and liquid by cooling and condensing a water vapor included in the mixed gas; a reformed gas supply device which supplies the reformed gas separated by the separator to an intake pipe of the engine ; a recovery tank which collects a recovery solution separated in the separator ; and a recovery solution supply device which supplies the recovery solution in the recovery tank to a combustion chamber of the engine directly. an engine ; a reformer ; a reservoir tank of an aqueous ethanol solution; a first supply device which supplies the aqueous ethanol solution in the reservoir tank to the reformer ; a separator which separates a mixed gas including a reformed gas fed from the reformer into gas and liquid by cooling and condensing a water vapor included in the mixed gas; a reformed gas supply device which supplies the reformed gas separated by the separator to an intake pipe of the engine ; a recovery tank which collects a recovery solution separated in the separator ; and a recovery solution supply device which supplies the recovery solution in the recovery tank to a combustion chamber of the engine directly.
A line-of-sight coating fixture (10, 110A-C) adapted for securing a plurality of workpieces (50A-C), wherein the plurality of workpieces (50A-C) includes a plurality of rotor blades , the line of sight fixture (10, 110A-C) comprising: a support structure including a plurality of compartments (20A-C) disposed below a platter , each compartment (20A-C) having an opening (30A-C) on a periphery of the support structure , and each compartment (20A-C) adapted to receive and secure a base of a workpiece (50A-C) such that a body of each workpiece (50A-C) to be coated is disposed about a periphery of the support structure and extends above the platter ; a spindle disposed through a center of the platter or support structure for rotating the workpieces (50A-C) thereabout; and a shadow structure disposed about the spindle , inside of the periphery, the shadow structure sized and adapted to shield a portion of each workpiece (50A-C) from line-of-sight coating material; characterised in that : the shadow structure includes a plurality of shadow bars (26A-C) including a plurality of shadow walls defining a recess for separately covering each trailing edge of a plurality of airfoils of the plurality of rotor blades . a support structure including a plurality of compartments (20A-C) disposed below a platter , each compartment (20A-C) having an opening (30A-C) on a periphery of the support structure , and each compartment (20A-C) adapted to receive and secure a base of a workpiece (50A-C) such that a body of each workpiece (50A-C) to be coated is disposed about a periphery of the support structure and extends above the platter ; a spindle disposed through a center of the platter or support structure for rotating the workpieces (50A-C) thereabout; and a shadow structure disposed about the spindle , inside of the periphery, the shadow structure sized and adapted to shield a portion of each workpiece (50A-C) from line-of-sight coating material; characterised in that : the shadow structure includes a plurality of shadow bars (26A-C) including a plurality of shadow walls defining a recess for separately covering each trailing edge of a plurality of airfoils of the plurality of rotor blades .