mhurhangee/ep-ind-claims huggingface dataset:
An efficiency monitor (4300, 5300) for monitoring the efficiency of inductive power transmission between an inductive power outlet (4210, 5210) and an electric device (290, 4290, 5290), the inductive power outlet (4210, 5210) comprising at least one primary coil (4220, 5220) wired to a power supply, for inductively coupling with a secondary coil (4260, 5260) of the electric device (290, 4290, 5290) that is wired to an electric load (4280, 5280), the efficiency monitor (4300, 5300) comprising: at least one processor (4162, 5162) incorporated in the inductive power outlet (4210, 5210); and at least one input power monitor (4122, 5122), incorporated in the inductive power outlet (4210, 5210), and configured to measure input power (P in) delivered to the primary coil (4220, 5220) and to provide the processor with a input power value obtained by measuring said input power; and characterized by at least one output power monitor (4124, 5124), incorporated in the electric device (290, 4290, 5290) and configured to measure output power (P out) received by the secondary coil (4260, 5260) and communicate an output power value obtained by measuring said output power to the processor; wherein said at least one processor is configured to determine an index of power-loss based on at least one of: an efficiency quotient Q, defined as the ratio of said output power to said input power; and an efficiency differential Δ, defined as the difference between said output power and said input power. at least one processor (4162, 5162) incorporated in the inductive power outlet (4210, 5210); and at least one input power monitor (4122, 5122), incorporated in the inductive power outlet (4210, 5210), and configured to measure input power (P in) delivered to the primary coil (4220, 5220) and to provide the processor with a input power value obtained by measuring said input power; and characterized by at least one output power monitor (4124, 5124), incorporated in the electric device (290, 4290, 5290) and configured to measure output power (P out) received by the secondary coil (4260, 5260) and communicate an output power value obtained by measuring said output power to the processor; an efficiency quotient Q, defined as the ratio of said output power to said input power; and an efficiency differential Δ, defined as the difference between said output power and said input power.
A composite tool having vacuum integrity, comprising: a composite laminate including a barrier layer of material impermeable to air, wherein the composite laminate includes: first and second sets of composite plies (12, 14), and wherein the barrier layer includes a membrane sandwiched between the first and second sets of composite plies; the composite laminate further comprising: a facesheet having a tool surface adapted to have a composite part placed thereon, and an edge breather groove in the facesheet extending down to the barrier layer and surrounding the tool surface. first and second sets of composite plies (12, 14), and wherein the barrier layer includes a membrane sandwiched between the first and second sets of composite plies; the composite laminate further comprising: a facesheet having a tool surface adapted to have a composite part placed thereon, and an edge breather groove in the facesheet extending down to the barrier layer and surrounding the tool surface. a facesheet having a tool surface adapted to have a composite part placed thereon, and an edge breather groove in the facesheet extending down to the barrier layer and surrounding the tool surface.
A sports training aid comprising: a base member; a center pole secured to the base member; at least one body panel rotatably secured to the center pole; and a plurality of elastic legs connected between the at least one body panel and the base member, wherein the at least one body panel is configured to rotate in a first direction about the center pole when impacted by an object, the at least one body panel rotating from an original position to a deflected position, and wherein the elastic legs are configured to cause the at least one body panel to rotate in a second direction, opposite to the first direction, when a force from the impact subsides, thereby returning the at least one body panel to the original position, wherein the plurality of elastic legs rotate and twist around the center pole in the first direction when the at least one body panel is impacted by the object, and wherein the plurality of elastic legs rotate and untwist around the center pole in the second direction, opposite to the first direction, when the force from the impact subsides. a base member; a center pole secured to the base member; at least one body panel rotatably secured to the center pole; and a plurality of elastic legs connected between the at least one body panel and the base member, wherein the at least one body panel is configured to rotate in a first direction about the center pole when impacted by an object, the at least one body panel rotating from an original position to a deflected position, and wherein the elastic legs are configured to cause the at least one body panel to rotate in a second direction, opposite to the first direction, when a force from the impact subsides, thereby returning the at least one body panel to the original position, wherein the plurality of elastic legs rotate and twist around the center pole in the first direction when the at least one body panel is impacted by the object, and wherein the plurality of elastic legs rotate and untwist around the center pole in the second direction, opposite to the first direction, when the force from the impact subsides.
In a network domain comprising of plural nodes, a method of distributing and aggregating resource data, such as transmission capacity, the method comprising: constructing, for each edge node in the domain a respective spanning tree that connects said edge node as a root node of said tree to all other edge nodes as leaf nodes in the domain and that identifies for each node other than said edge node in said tree a single upstream neighbour node and zero or more downstream neighbour nodes, and any node that has a change in resource data in connection with a particular spanning tree it is a member of, such as the transmission capacity increase or decreases, will send a message to update each of its upstream and downstream neighbour in that spanning tree on said change, and each such upstream and downstream neighbour will calculate impact of said change to its own resource data and will send a message to update each of its upstream and downstream neighbour in that spanning tree on said impact. constructing, for each edge node in the domain a respective spanning tree that connects said edge node as a root node of said tree to all other edge nodes as leaf nodes in the domain and that identifies for each node other than said edge node in said tree a single upstream neighbour node and zero or more downstream neighbour nodes, and any node that has a change in resource data in connection with a particular spanning tree it is a member of, such as the transmission capacity increase or decreases, will send a message to update each of its upstream and downstream neighbour in that spanning tree on said change, and each such upstream and downstream neighbour will calculate impact of said change to its own resource data and will send a message to update each of its upstream and downstream neighbour in that spanning tree on said impact.
An end insulating plate, adapted to be arranged in a battery device to insulate a battery apparatus from other components, the end insulating plate comprising a glue baffle disposed at a bottom portion of the end insulating plate, wherein the glue baffle is bendable and at least has a first state and a second state, in the first state and the second state, the glue baffle is bent towards a side of a first larger surface of the end insulating plate, the first larger surface is a larger surface at a side of the end insulating plate facing away from the battery apparatus, in the first state, the glue baffle is bent at a first inclination angle (θ) relative to the first larger surface of the end insulating plate, in the second state, the glue baffle is bent at a second inclination angle (λ) relative to the first larger surface of the end insulating plate, the first inclination angle (θ) is greater than the second inclination angle (λ), and when bending of the glue baffle is changed from the first inclination angle (θ) to the second inclination angle (λ), the glue baffle is configured to push glue on the bottom portion of the end insulating plate in a direction away from the bottom portion of the end insulating plate. wherein the glue baffle is bendable and at least has a first state and a second state, in the first state and the second state, the glue baffle is bent towards a side of a first larger surface of the end insulating plate, the first larger surface is a larger surface at a side of the end insulating plate facing away from the battery apparatus, in the first state, the glue baffle is bent at a first inclination angle (θ) relative to the first larger surface of the end insulating plate, in the second state, the glue baffle is bent at a second inclination angle (λ) relative to the first larger surface of the end insulating plate, the first inclination angle (θ) is greater than the second inclination angle (λ), and when bending of the glue baffle is changed from the first inclination angle (θ) to the second inclination angle (λ), the glue baffle is configured to push glue on the bottom portion of the end insulating plate in a direction away from the bottom portion of the end insulating plate.
Epilating head roller for a motorised epilating appliance, comprising: - a fixed central shaft intended to be connected rotating to an epilating appliance casing, - a tubular cage which rotates around the central shaft and intended to be rotated by a motor of the appliance and which carries at least one row of plucking clamps, each one formed of a fixed blade connected rigidly to the tubular cage and of a mobile blade between an opened position wherein the mobile blade is distant from the fixed blade and a closed position wherein the mobile blade contacts the fixed blade, - means for moving the mobile blades between their opening and closing position during the rotation of the tubular cage around the central shaft, said moving means comprising actuators intended to move said mobile blades through magnetic forces, characterised in that the moving means comprise, for each mobile blade, an individual foot which is connected forward to said blade and which is intended to interact with at least one actuator, at least for closing the mobile blade. - a fixed central shaft intended to be connected rotating to an epilating appliance casing, - a tubular cage which rotates around the central shaft and intended to be rotated by a motor of the appliance and which carries at least one row of plucking clamps, each one formed of a fixed blade connected rigidly to the tubular cage and of a mobile blade between an opened position wherein the mobile blade is distant from the fixed blade and a closed position wherein the mobile blade contacts the fixed blade, - means for moving the mobile blades between their opening and closing position during the rotation of the tubular cage around the central shaft, said moving means comprising actuators intended to move said mobile blades through magnetic forces,
A stretchable laminate, comprising: an elastomer layer, wherein the elastomer layer comprises an olefin-based elastomer as a main component, wherein the content of the olefin-based elastomer serving as a main component in the elastomer layer is from 50 wt% to 100 wt%, wherein the olefin-based elastomer is propylene-based elastomer; and a non-woven fabric layer arranged on at least one side of the elastomer layer, wherein the non-woven fabric forming the non-woven fabric layer contains polyolefin fibers, wherein the polyolefin fibers are polypropyene fibers, the stretchable laminate further comprising a hot-melt pressure-sensitive adhesive between the elastomer layer and the non-woven fabric layer, the hot-melt pressure-sensitive adhesive containing an olefin component, wherein the olefin component comprises an olefin-based polymer, wherein the olefin-based polymer comprises a 1-butene copolymer as an essential component, wherein a content of the 1-butene copolymer in the hot-melt pressure-sensitive adhesive is from 35 wt% to 60 wt%. an elastomer layer, wherein the elastomer layer comprises an olefin-based elastomer as a main component, wherein the content of the olefin-based elastomer serving as a main component in the elastomer layer is from 50 wt% to 100 wt%, wherein the olefin-based elastomer is propylene-based elastomer; and a non-woven fabric layer arranged on at least one side of the elastomer layer, wherein the non-woven fabric forming the non-woven fabric layer contains polyolefin fibers, wherein the polyolefin fibers are polypropyene fibers, the stretchable laminate further comprising a hot-melt pressure-sensitive adhesive between the elastomer layer and the non-woven fabric layer, the hot-melt pressure-sensitive adhesive containing an olefin component, wherein the olefin component comprises an olefin-based polymer, wherein the olefin-based polymer comprises a 1-butene copolymer as an essential component, wherein a content of the 1-butene copolymer in the hot-melt pressure-sensitive adhesive is from 35 wt% to 60 wt%.
Use of a waved meltblown fiber web produced by a melt-blown method for making sound absorption and sound insulation materials having sound absorption property against sound ranging from 400 Hz to 10,000 Hz in vehicles, the meltblown fiber web comprising a horizontal fiber layer, a vertical fiber layer formed on the horizontal fiber layer, and a waved layer forming an uppermost portion of the vertical fiber layer, wherein the horizontal fiber layer is formed by allowing a portion of meltblown microfibers to reach a low-velocity collection portion and to be deposited on the low-velocity collection portion hereby the microfibers are in a horizontal orientation; the vertical fiber layer is formed in a serpentine shape of vertically oriented microfibers and deposited on the horizontal fiber layer after the horizontal fiber layer is deposited, by allowing the other portion of the meltblown microfibers to reach a high-velocity collection portion having a surface velocity higher than that of the low-velocity collection portion; and the waved layer is formed by entanglement of the microfibers at a top of the vertical fiber layer and forms the uppermost portion of the fiber web; and 70% to 90% of the meltblown microfibers have a diameter of 10 μm or less and 10% to 30% of the meltblown microfibers have a diameter of 3 μm or less.
Elastomeric composition comprising, based upon parts by weight per 100 parts by weight of rubber (phr): 100 phr of a blend of rubbers comprising at least 20 wt% of an isoprene polymer; from 0 to 30 phr of silica; from 0 to 50 phr of amorphous carbon black; from 1 to 40 phr of graphene, characterized in that said graphene comprises nanoplatelets of graphene, wherein at least 90% of said nanoplatelets have a lateral size (x, y) measured by scanning electron microscope from 50 to 50000 nm and a thickness (z) measured by atomic force microscope from 0.34 to 50 nm, wherein the lateral size is always greater than the thickness (x, y > z), and wherein the C/O ratio is ≥ 100:1 measured by elemental analysis. 100 phr of a blend of rubbers comprising at least 20 wt% of an isoprene polymer; from 0 to 30 phr of silica; from 0 to 50 phr of amorphous carbon black; from 1 to 40 phr of graphene,
A method for determining the spatial distance between an access control device and an identification medium, comprising the steps of - emitting a transfer time measurement signal by the access control device or the identification medium (transmitter), - receiving the transfer time measurement signal in the respectively other device (receiver), - detecting the time of the reception of the transfer time measurement signal, - calculating a signal transfer time from the reception time and a reference time, - determining the spatial distance from the signal transfer time under consideration of a signal propagation speed of the transfer time measurement signal, characterized in that either - clocks in the transmitter and in the receiver are synchronized, and that the time of emitting the transfer time measurement signal is used as a reference time, wherein synchronizing comprises transmitting a synchronization signal between the access control device and the identification medium, or - the receiver transmits the transfer time measurement signal and a reference signal simultaneously or at a predetermined time interval, and the reception time of the reference signal is used in the receiver as a reference time, and that the synchronization signal or the reference signal, respectively, is transmitted at a signal propagation speed corresponding to at least one hundred times, preferably at least one thousand times, the signal propagation speed of the transfer time measurement signal, wherein the synchronization signal or the reference signal, respectively, is transmitted as a carrier signal with data such as identification data, event data and/or battery status data modulated thereon. - emitting a transfer time measurement signal by the access control device or the identification medium (transmitter), - receiving the transfer time measurement signal in the respectively other device (receiver), - detecting the time of the reception of the transfer time measurement signal, - calculating a signal transfer time from the reception time and a reference time, - determining the spatial distance from the signal transfer time under consideration of a signal propagation speed of the transfer time measurement signal, - clocks in the transmitter and in the receiver are synchronized, and that the time of emitting the transfer time measurement signal is used as a reference time, wherein synchronizing comprises transmitting a synchronization signal between the access control device and the identification medium, or - the receiver transmits the transfer time measurement signal and a reference signal simultaneously or at a predetermined time interval, and the reception time of the reference signal is used in the receiver as a reference time,
A front structure of a saddle-ride type vehicle provided with headlights (22, 23) and an air introduction passage (24, 54, 58, 74) in a front portion of a vehicle body (BA, BB, BC, BD), the air introduction passage (24, 54, 58, 74) being open to the front and configured to introduce travelling winds rearward, wherein the headlights (22, 23) using LEDs (42, 43) as their respective sources of light are located inside the air introduction passage (24, 54, 58, 74) and are supported by a duct (26, 55, 59, 75) which forms the air introduction passage (24, 54, 58, 74); characterized in that the headlights (22, 23) are located inside the air introduction passage (24, 54, 58, 74) in such a way that: passage portions (24a, 24b) are formed at at least one of the left and right sides and the upper and lower sides of a pair of headlights (22, 23) within the duct (26, 55, 59, 75), the passage portions (24a, 24b) being open to the front and constituting part of the air introduction passage (24, 54, 58, 74), such that travelling winds flowing through the passage portions (24a, 24b) flow together behind the headlights (22, 23).
An apparatus to protect an electrical load connected to an output port thereof from anomalous electricity, the apparatus providing output electricity at the output port from input electricity accepted through an input port thereof, characterized in that the apparatus comprises: an input sensing unit (230i, 430i) electrically connected to the input port and configured to indicate an overvoltage event, the input sensing unit being further configured to distinguish an event type of the overvoltage event from at least one other event type by waveform characteristics of the input electricity; a power control unit (250, 450) configured to generate, responsive to the overvoltage event, a modulation signal that defines at least one amplitude notch of variable temporal width, the power control unit being further configured to establish the notch width in accordance with the event type of the overvoltage event; and a switching mechanism (220, 420) electrically interposed between the input port and the output port and being configured to transition into conducting and non-conducting states in accordance with the modulation signal to superimpose thereby the amplitude notch on electricity conveyed to the output port through the switching mechanism. an input sensing unit (230i, 430i) electrically connected to the input port and configured to indicate an overvoltage event, the input sensing unit being further configured to distinguish an event type of the overvoltage event from at least one other event type by waveform characteristics of the input electricity; a power control unit (250, 450) configured to generate, responsive to the overvoltage event, a modulation signal that defines at least one amplitude notch of variable temporal width, the power control unit being further configured to establish the notch width in accordance with the event type of the overvoltage event; and a switching mechanism (220, 420) electrically interposed between the input port and the output port and being configured to transition into conducting and non-conducting states in accordance with the modulation signal to superimpose thereby the amplitude notch on electricity conveyed to the output port through the switching mechanism.
A process comprising: (a) receiving a solid organophosphite compound that has been recrystallized or triturated, wherein the solid organophosphite compound comprises phosphorous acid; (b) dissolving the solid organophosphite compound in a hydrocarbon solvent, wherein the hydrocarbon solvent comprises an aromatic hydrocarbon, a saturated aliphatic hydrocarbon, or a mixture thereof; and (c) removing undissolved phosphorous acid from the solution, wherein the acid content of the organophosphite following step (c) is 30 ppm or less.