mhurhangee/ep-ind-claims huggingface dataset:
An interconnecting member for a sand or soil bag comprising: a plate having a first side and a second side; a projection (18, 20, 22) on the first side of the plate; a projection (24, 26, 28, 30, 32, 34, 36, 38) on the second side of the plate; a serration (44, 46) including a plurality of teeth (52, 54, 56, 58) arranged in a row on the first side of the plate, the plurality of teeth (52, 54, 56, 58) extending away from the plate in a first direction; and a tooth (62, 64) on the first side of the plate extending away from the plate in a second direction which is opposite the first direction. a plate having a first side and a second side; a projection (18, 20, 22) on the first side of the plate; a projection (24, 26, 28, 30, 32, 34, 36, 38) on the second side of the plate; a serration (44, 46) including a plurality of teeth (52, 54, 56, 58) arranged in a row on the first side of the plate, the plurality of teeth (52, 54, 56, 58) extending away from the plate in a first direction; and a tooth (62, 64) on the first side of the plate extending away from the plate in a second direction which is opposite the first direction.
A dual-action irrigation pump, comprising: a cylinder comprising first and second inlet-outlet ports (112, 114), wherein each of the first and second inlet-outlet ports is configured to alternately intake an irrigation fluid to the cylinder and output the irrigation fluid from the cylinder; a piston, which is configured to be moved within the cylinder in a periodic cycle that alternately reverses a direction of movement of the piston, so as to pump the irrigation fluid through the first and second inlet-outlet ports; characterized in that the pump further comprises a controller, which is configured to control the movement of the piston within the cylinder so that the piston moves at: (a) a first speed, during a first predefined interval that precedes reversing the direction of movement, (b) a second speed, larger than the first speed, during a second predefined interval that follows reversing the direction, and (c) a baseline speed, smaller than the first speed, outside the first and second intervals, wherein the controller is configured to set the size of the first and second predefined intervals and the corresponding first and second speeds, in order to control the flow rate of the irrigation fluid relative to a specified flow rate and, to maintain a constant flow rate through the inlet-outlet ports (112, 114) when the piston reverses directions. a cylinder comprising first and second inlet-outlet ports (112, 114), wherein each of the first and second inlet-outlet ports is configured to alternately intake an irrigation fluid to the cylinder and output the irrigation fluid from the cylinder; a piston, which is configured to be moved within the cylinder in a periodic cycle that alternately reverses a direction of movement of the piston, so as to pump the irrigation fluid through the first and second inlet-outlet ports; characterized in that the pump further comprises a controller, which is configured to control the movement of the piston within the cylinder so that the piston moves at: (a) a first speed, during a first predefined interval that precedes reversing the direction of movement, (b) a second speed, larger than the first speed, during a second predefined interval that follows reversing the direction, and (c) a baseline speed, smaller than the first speed, outside the first and second intervals, wherein the controller is configured to set the size of the first and second predefined intervals and the corresponding first and second speeds, in order to control the flow rate of the irrigation fluid relative to a specified flow rate and, to maintain a constant flow rate through the inlet-outlet ports (112, 114) when the piston reverses directions.
A user interface, UI, system on an electronic device comprising: a Ul client engine associated with an application, the Ul client engine configured for: determining a Ul component tree for the application, receiving inputs from the application related to elements of the Ul component tree, and determining Ul data items related to the inputs; and a plurality of Ul rendering engines each associated with a respective display for displaying a respective UI, each of the plurality of Ul rendering engines configured for: receiving the Ul component tree from the Ul client engine, determining a visual node tree for the Ul component tree, and asynchronously receiving, from the Ul client engine, the Ul data items related to elements of the Ul component tree, populating the visual node tree with the Ul data items; and rendering its respective UI in accordance with the visual node tree independently of further input from the UI client engine. a Ul client engine associated with an application, the Ul client engine configured for: determining a Ul component tree for the application, receiving inputs from the application related to elements of the Ul component tree, and determining Ul data items related to the inputs; and determining a Ul component tree for the application, receiving inputs from the application related to elements of the Ul component tree, and determining Ul data items related to the inputs; and a plurality of Ul rendering engines each associated with a respective display for displaying a respective UI, each of the plurality of Ul rendering engines configured for: receiving the Ul component tree from the Ul client engine, determining a visual node tree for the Ul component tree, and asynchronously receiving, from the Ul client engine, the Ul data items related to elements of the Ul component tree, populating the visual node tree with the Ul data items; and rendering its respective UI in accordance with the visual node tree independently of further input from the UI client engine. receiving the Ul component tree from the Ul client engine, determining a visual node tree for the Ul component tree, and asynchronously receiving, from the Ul client engine, the Ul data items related to elements of the Ul component tree, populating the visual node tree with the Ul data items; and rendering its respective UI in accordance with the visual node tree independently of further input from the UI client engine.
A protection system for a heat exchanger, said protection system comprising at least one net defined by a first pair of opposite sides (2a, 2b) and a second pair of opposite sides (2c, 2d), said at least one net adapted to be deployed over at least one heat exchanger core to cover at least a portion of the at least one heat exchanger core, wherein said at least one net is adapted to be secured to either one of a pair of side plates (102a, 102b) of said at least one heat exchanger core and a pair of headers (104a, 104b) of said heat exchanger by a metal joining process to deploy said at least one net over said at least one heat exchanger core, wherein said at least one net is of metal and said second pair of opposite sides (2c, 2d) of the at least one net is adapted to be crimped to the pair of headers (104a, 104b) of the heat exchanger, characterized in that said at least one net comprises a pair of first frame elements (4a, 4b) of metal integrally formed on said first pair of opposite sides (2a, 2b) thereof and adapted to be crimped on said pair of side plates (102a, 102b), wherein said at least one net is of flexible material and said pair of first frame elements (4a, 4b) of metal is secured on said first pair of opposites sides (2a, 2b) of said at least one net by stamping and pressing, said pair of first frame elements (4a, 4b) is adapted to be crimped on said pair of side plates (102a, 102b).
A rotational coupling device, comprising: an armature having a shape that is complementary to a shape of a shaft such that the armature is configured for directly coupling to the shaft for rotation therewith about a rotational axis and for movement axially relative to the shaft; an electromagnet assembly disposed on a first axial side of the armature and fixed against rotation relative to the rotational axis; and, a collar disposed on a second axial side of the armature opposite the electromagnet assembly, the collar configured for rotation with the shaft, but fixed against axial movement relative to the shaft, the collar housing a first permanent magnet wherein the electromagnet assembly urges the armature in a first axial direction to release the armature from the collar and urge the armature into engagement with a member of the coupling device to apply a torque between the member and the armature when a current having a first polarity is provided to the electromagnet assembly and the first permanent magnet urges the armature in a second axial direction to release the armature from the member and thereby disengage transmission of torque between the armature and the member when the current is not provided to the electromagnet assembly characterized in that the member of the coupling device comprises the electromagnet assembly and the torque brakes rotation of the armature. an armature having a shape that is complementary to a shape of a shaft such that the armature is configured for directly coupling to the shaft for rotation therewith about a rotational axis and for movement axially relative to the shaft; an electromagnet assembly disposed on a first axial side of the armature and fixed against rotation relative to the rotational axis; and, a collar disposed on a second axial side of the armature opposite the electromagnet assembly, the collar configured for rotation with the shaft, but fixed against axial movement relative to the shaft, the collar housing a first permanent magnet wherein the electromagnet assembly urges the armature in a first axial direction to release the armature from the collar and urge the armature into engagement with a member of the coupling device to apply a torque between the member and the armature when a current having a first polarity is provided to the electromagnet assembly and the first permanent magnet urges the armature in a second axial direction to release the armature from the member and thereby disengage transmission of torque between the armature and the member when the current is not provided to the electromagnet assembly characterized in that the member of the coupling device comprises the electromagnet assembly and the torque brakes rotation of the armature.
An automated method for in-service diagnostic testing a container, the container defining an enclosure for receiving a cargo to be transported from an origin to a destination when the cargo is in the container, the container including a climate control system controlling the climate in the enclosure, the climate control system having a plurality of interacting components and subsystems, and a controller controlling the operation of the climate control system and the operation of the plurality of components and subsystems, the method comprising: running in-service diagnostic testing to determine, with the cargo in the enclosure and while the container is being transported from the origin to the destination, for at least some of the components and subsystems whether each of the at least some components and subsystems is operating within acceptable limits; generating a satisfactory pre-trip inspection ("PTI") report based on each of the at least some components and subsystems operating within acceptable limits such that the climate control system is approved for further use in a container for transporting cargo. running in-service diagnostic testing to determine, with the cargo in the enclosure and while the container is being transported from the origin to the destination, for at least some of the components and subsystems whether each of the at least some components and subsystems is operating within acceptable limits; generating a satisfactory pre-trip inspection ("PTI") report based on each of the at least some components and subsystems operating within acceptable limits such that the climate control system is approved for further use in a container for transporting cargo.
A vibration-driven energy harvesting element, comprising: a fixed electrode portion and a moveable electrode portion formed in a second layer of a substrate provided with a first layer and the second layer with an insulation layer interposed therebetween; a frame body formed from the first layer and the second layer disposed with the insulation layer interposed therebetween, the frame body supporting the fixed electrode portion in the second layer; characterized in that it further comprises an elastically-supporting portion formed in the first layer and elastically supporting the moveable electrode portion by a beam portion joined to the first layer of the frame body; and a first conduction portion electrically connecting the moveable electrode portion and the elastically-supporting portion. a fixed electrode portion and a moveable electrode portion formed in a second layer of a substrate provided with a first layer and the second layer with an insulation layer interposed therebetween; a frame body formed from the first layer and the second layer disposed with the insulation layer interposed therebetween, the frame body supporting the fixed electrode portion in the second layer; characterized in that it further comprises an elastically-supporting portion formed in the first layer and elastically supporting the moveable electrode portion by a beam portion joined to the first layer of the frame body; and a first conduction portion electrically connecting the moveable electrode portion and the elastically-supporting portion.
A method of manufacturing an organic light-emitting display apparatus, the method comprising: forming a pixel electrode (210R, 210G, 210B); forming a pixel definition layer covering at least a portion of an edge of the pixel electrode (210R, 210G, 210B); forming a patterned sacrificial layer to correspond to at least a portion of an upper surface of the pixel definition layer; forming a patterned emission layer to correspond to the pixel electrode (210R, 210G, 210B), using the patterned sacrificial layer as a spacer; forming a first intermediate layer over the pixel electrode (210R, 210G, 210B) and the pixel definition layer; removing the patterned sacrificial layer to form a through hole in the first intermediate layer exposing the at least a portion of the upper surface of the pixel definition layer, after forming the patterned emission layer and forming the first intermediate layer; and then forming a thin film encapsulation layer such that at least a portion of a lower surface of the thin film encapsulation layer contacts the at least a portion of the upper surface of the pixel definition layer exposed via the through hole. forming a pixel electrode (210R, 210G, 210B); forming a pixel definition layer covering at least a portion of an edge of the pixel electrode (210R, 210G, 210B); forming a patterned sacrificial layer to correspond to at least a portion of an upper surface of the pixel definition layer; forming a patterned emission layer to correspond to the pixel electrode (210R, 210G, 210B), using the patterned sacrificial layer as a spacer; forming a first intermediate layer over the pixel electrode (210R, 210G, 210B) and the pixel definition layer; removing the patterned sacrificial layer to form a through hole in the first intermediate layer exposing the at least a portion of the upper surface of the pixel definition layer, after forming the patterned emission layer and forming the first intermediate layer; and then forming a thin film encapsulation layer such that at least a portion of a lower surface of the thin film encapsulation layer contacts the at least a portion of the upper surface of the pixel definition layer exposed via the through hole.
Process for separating off a nitrogen-rich fraction from a feed fraction containing essentially nitrogen and hydrocarbons, wherein the feed fraction is separated by rectification into a nitrogen-rich fraction and a methane-rich fraction, the methane-rich fraction, for the purpose of cold generation at a pressure as high as possible, is vaporized against the feed fraction which is to be cooled and superheated and the nitrogen-rich fraction is compressed at least occasionally and/or at least in part and is fed to the rectification as reflux stream, characterized in that, at least occasionally at least a substream of the compressed nitrogen-rich fraction is expanded (f) after condensation thereof and, for the purpose of cold generation, is at least in part, preferably completely, vaporized.
A method for determining a skin moisture content, comprising: for at least one skin region of a user, contacting the at least one skin region by means of at least one sensor contact region of a skin moisture measuring device; detecting a signal that is provided by means of the skin moisture measuring device and is dependent on skin moisture in the skin region; associating a skin moisture content with the detected signal by comparing the detected signal with reference signals for known skin moisture contents, wherein the skin moisture content is associated with the detected signal by means of a database stored in a processor cloud architecture; wherein the at least one sensor contact region comprises a plurality of sensor contact regions that are spaced apart from each other, and wherein the method further comprises: forming an average signal value from the plurality of signals from the plurality of sensor contact regions; wherein a moisture-absorbing material is arranged in a spacing region between the sensor contact regions. for at least one skin region of a user, contacting the at least one skin region by means of at least one sensor contact region of a skin moisture measuring device; detecting a signal that is provided by means of the skin moisture measuring device and is dependent on skin moisture in the skin region; associating a skin moisture content with the detected signal by comparing the detected signal with reference signals for known skin moisture contents, wherein the skin moisture content is associated with the detected signal by means of a database stored in a processor cloud architecture; wherein the at least one sensor contact region comprises a plurality of sensor contact regions that are spaced apart from each other, and wherein the method further comprises: forming an average signal value from the plurality of signals from the plurality of sensor contact regions; wherein a moisture-absorbing material is arranged in a spacing region between the sensor contact regions. forming an average signal value from the plurality of signals from the plurality of sensor contact regions; wherein a moisture-absorbing material is arranged in a spacing region between the sensor contact regions.
A cleaner head for a vacuum cleaner, the cleaner head housing a hollow brush bar mounted for rotation about an axis, the brush bar being driven by a motor housed inside the hollow brush bar, the motor forming part of a drive assembly supported at one end of the cleaner head, wherein the brush bar is arranged to fit around the motor like a sleeve thereby allowing the brush bar to be removed from the cleaner head by sliding the brush bar along the axis and out through an opening at the opposite end of the cleaner head, the brush bar is rotatably supported in clearance around the drive assembly by a first bearing, and the bearing engages the brush bar in a corresponding axial-sliding fit so as not to inhibit said sliding removal of the brush bar, and the motor drives the brush bar via a drive dog and this drive dog engages the brush bar in a corresponding axial sliding fit so as not to inhibit said sliding removal of the brush bar, characterized in that the drive dog engages the brush bar at the end of the cleaner head opposite the drive assembly.
A noise reduction method for a microphone array of an earphone, characterized by comprising: acquiring, when a wearer of the earphone speaks, a first sound signal collected by a bone conduction microphone arranged on the earphone and second sound signals, each of the second sound signals being collected by a respective microphone of a preset number of microphones arranged on the earphone, wherein the preset number is greater than or equal to two, the first sound signal comprises a voice signal, and each of the second sound signals comprises the voice signal and a noise signal; determining, for each microphone of the preset number of microphones, according to the first sound signal and the second sound signal collected by the microphone, a delay time from a time when the voice signal arrives at the microphone to a time when the voice signal arrives at the bone conduction microphone; computing, according to the determined delay times, a pointing angle of the microphone array formed by the preset number of microphones relative to a mouth of the wearer; and adjusting a beam pointing angle of the microphone array according to the pointing angle, such that the microphone array forms a beam by means of the adjusted beam pointing angle. acquiring, when a wearer of the earphone speaks, a first sound signal collected by a bone conduction microphone arranged on the earphone and second sound signals, each of the second sound signals being collected by a respective microphone of a preset number of microphones arranged on the earphone, wherein the preset number is greater than or equal to two, the first sound signal comprises a voice signal, and each of the second sound signals comprises the voice signal and a noise signal; determining, for each microphone of the preset number of microphones, according to the first sound signal and the second sound signal collected by the microphone, a delay time from a time when the voice signal arrives at the microphone to a time when the voice signal arrives at the bone conduction microphone; computing, according to the determined delay times, a pointing angle of the microphone array formed by the preset number of microphones relative to a mouth of the wearer; and adjusting a beam pointing angle of the microphone array according to the pointing angle, such that the microphone array forms a beam by means of the adjusted beam pointing angle.
Pallet base which comprises: - an internal honeycomb structure made of plastic, the honeycomb cells being joined to each other by joining edges having ends on either side of the honeycomb structure; - two metal sheets (3,4) arranged on either side of the plastic internal structure and which extend over the entire internal honeycomb structure; - two outer sheets of plastic (5, 6) adjoined to the metal sheets (3, 4); characterised in that the ends of all the joining edges of the honeycomb cells overhang said cells, the metal sheets (3, 4) being provided with through-holes in all points corresponding to said joining edges for passage of the ends of said edges such that there is continuity between the material of said ends and the outer sheets of plastic (5, 6), said ends being heat-welded to the outer sheets of plastic (5, 6). - an internal honeycomb structure made of plastic, the honeycomb cells being joined to each other by joining edges having ends on either side of the honeycomb structure; - two metal sheets (3,4) arranged on either side of the plastic internal structure and which extend over the entire internal honeycomb structure; - two outer sheets of plastic (5, 6) adjoined to the metal sheets (3, 4);