mhurhangee/ep-ind-claims huggingface dataset:
An aerosol-generating article (40, 140, 240,340) for use with an inductively heating aerosol-generating device, the article (40, 140, 240,340) comprising a liquid reservoir (41, 241) for storing aerosol-forming liquid (51, 151, 251, 252, 351, 352), and a liquid-conveying susceptor assembly (10, 110, 210, 310) for conveying aerosol-forming liquid (51, 151, 251, 252, 351, 352) from the liquid reservoir (41, 241) into a region outside the liquid reservoir (41, 241) and for inductively heating the aerosol-forming liquid (51, 151, 251, 252, 351, 352) under the influence of an alternating magnetic field to generate an aerosol, the susceptor assembly (10, 110, 210, 310) comprising a filament bundle (18, 118, 218, 318) of a plurality of inductively heatable filaments (11, 12, 111, 112), the filament bundle (18, 118, 218, 318) comprising a first soaking section (13, 113, 213, 313), a second soaking section (14, 114, 214, 314) and an intermediate section (15, 115, 215, 315) between the first soaking section (13, 113, 213, 313) and the second soaking section (14, 114, 214, 314), wherein the first soaking section (13, 113, 213, 313) and the second soaking section (14, 114, 214, 314) are each arranged at least partially in the liquid reservoir (41, 241) and the intermediate section (15, 115, 215, 315) is arranged in a region outside the liquid reservoir (41, 241), characterized in that along at least the intermediate section (15, 115, 215, 315) the plurality of filaments (11, 12, 111, 112) are arranged parallel to each other, and in that the first soaking section (13, 113, 213, 313) and the second soaking section (14, 114, 214, 314) differ from each other in at least one of the number of fibers in the respective soaking section, a surface property of the filaments (11, 12, 111, 112) in the respective soaking section or a length of the respective soaking section.
Ski binding device for fastening a mountaineering boot on a downhill ski or the like, of the type comprising a toepiece and a heelpiece which are adapted to be rigidly fixed on the back of the ski, aligned along the ski longitudinal axis, and are structured so as to selectively clamp/hook and retain respectively the front part and the rear part of the shell of the boot; the toepiece being provided with a clamping member which is structured so to selectively clamp and stably retain the front part of the shell, and at the same time allow the shell to oscillate/pivot freely on the toepiece about a boot rotation axis locally substantially perpendicular to the ski longitudinal axis; the heelpiece instead comprising a fastening base structured for being rigidly fastened on the back of the downhill ski or the like; a turret protruding upwards from the fastening base; and a hooking projecting appendix that juts out from the turret towards the toepiece while remaining locally substantially parallel to a first reference axis (c) locally substantially aligned to the ski longitudinal axis, and is structured so as to hook/couple to the rear part of the shell to stably retain the heel of the ski boot in abutment on or close to the back of the ski, therefore preventing any rotation of the boot on the toepiece about said boot rotation axis; the binding device being characterized in that the heelpiece comprises a latch element which extends through the body of the turret remaining locally substantially parallel to said first reference axis, with the possibility of moving forwards and backwards with respect to the turret parallelly to said first axis; the hooking projecting appendix being formed by the tip of said latch element, and the heelpiece also comprising a manually-operated command device, which is structured so as to displace the latch element forwards and backwards on the turret, and stably lock said latch element - in an advanced position in which the tip of the latch element protrudes from the body of the turret by a first length (l 1) sufficient to engage the rear part of the shell so as to avoid any rotation of the boot about the boot rotation axis; and - in a retracted position in which the tip of the latch element is retracted within the body of the turret or protrudes from the body of the turret by a second length (l 2) having a value such as to prevent the hooking projecting appendix to reach and lock the rear part of the shell. - in an advanced position in which the tip of the latch element protrudes from the body of the turret by a first length (l 1) sufficient to engage the rear part of the shell so as to avoid any rotation of the boot about the boot rotation axis; and - in a retracted position in which the tip of the latch element is retracted within the body of the turret or protrudes from the body of the turret by a second length (l 2) having a value such as to prevent the hooking projecting appendix to reach and lock the rear part of the shell.
A sluice gate comprising a door (6, 7) mounted vertical to water flow or vertical to the course of boats and ships, said door being moored in a storage position when said gate is completely opened, and said door moving by swing motion to a completely closed position in a floating state when said gate is completely closed, wherein said door has a support point and the support conditions of said support point are freely rotatable about three axes, characterized in that said support point is fixed to the water bottom, and the support conditions of said support point in addition are restricting motion in three axis directions.
A dampening support for a rigid catenary element of a rigid catenary system of a railway line, the dampening support comprising a cantilever arranged to sustain two hanger clamps arranged on both sides of the cantilever for supporting the catenary element on the cantilever, wherein the cantilever is fixed to a support structure for supporting the rigid catenary system, the two hanger clamps supporting the catenary element through an elastic element.
A compound having the formula: wherein each of Compounds A and B include R2' and one of: R4' and R5', wherein one of R2'and R4' or R5' is selected from an alkyl group having from 1 to 6 carbons, an alkyl amino group having from 1 to 6 carbons, an alkyl group having a hydroxylic group and having from 1 to 6 carbons, a methoxy group, or R4' or R5' is hydrogen, wherein the other of R2' and R4' or R5' is a substituted or unsubstituted group selected from: an aliphatic group, an alkoxy group, a cycloalkyl group, an aryl group, a heteroaryl group, and a heterocyclic group, wherein each of RN1, RP1, RP2, RP3, RP4, RP5, RP6, are independently hydrogen or a substituted or unsubstituted group selected from: an aliphatic group, an alkoxy group, a cycloalkyl group, an aryl group, a heteroaryl group, and a heterocyclic group, wherein said substituted groups contain in place of one or more hydrogens a group selected from: hydroxy, amino, halo, trifluoromethyl, cyano, -NH (alkyl group having less than 10 carbons atoms), -N (alkyl group having less than 10 carbons atoms)2, alkoxy group having less than 10 carbons atoms, alkylthio wherein the alkyl group has less than 10 carbons atoms, or carboxy, and thus embraces the terms haloalkyl, alkoxy, fluorobenzyl, and the sulfur and phosphorous containing substitutions selected from sulfide, thioether, sulfanyl, sulfoxide, sulfinyl, sulfone, sulfonyl, phosphate, phosphinyl, phosphonate, phosphonyl, phosphatidyl.
A process for quantifying the moisture in a blanket of fibers, comprising: - the emission of an incident electromagnetic wave towards the blanket, by at least one emitter (44c, 44d), - the receiving of the electromagnetic wave transmitted through the blanket, by at least one receiver, - the identification of a variation of at least one parameter of the transmitted wave relative to the incident wave, Wherein said process is characterized in that it comprises the following step: - the determination of a representative value of the moisture in the blanket of fibers, as a function of said variation and of the effective volume of blanket that has actually interacted with the incident wave, wherein the effective volume of the blanket is defined by the thickness of the blanket and by an effective blanket cross section, defined at each point of the thickness in each plane of the blanket parallel to the main faces of the blanket, corresponding to the cross section that interacts with the electromagnetic wave. - the emission of an incident electromagnetic wave towards the blanket, by at least one emitter (44c, 44d), - the receiving of the electromagnetic wave transmitted through the blanket, by at least one receiver, - the identification of a variation of at least one parameter of the transmitted wave relative to the incident wave, - the determination of a representative value of the moisture in the blanket of fibers, as a function of said variation and of the effective volume of blanket that has actually interacted with the incident wave, wherein the effective volume of the blanket is defined by the thickness of the blanket and by an effective blanket cross section, defined at each point of the thickness in each plane of the blanket parallel to the main faces of the blanket, corresponding to the cross section that interacts with the electromagnetic wave.
A system comprising: a receiver for receiving from an encoder a video signal comprising encoded video data and a transport protocol over a lossy medium; and a decoder coupled to the receiver and arranged to decode the video signal for output to a display, the decoder including a concealment module for regenerating a portion of image data lost from the video signal over said medium, by interpolating or extrapolating from other image data of the video signal received over said medium; wherein the decoder comprises a controller configured to operate in one of a first mode and a second mode and select, based on a measure of loss effect estimated for said portion of image data, whether (i) to operate in the first mode whereby the concealment module is applied to regenerate said portion of image data, or alternatively (ii) to operate in the second mode; characterized in that: in the second mode, the controller freezes preceding image data of the video signal in place of said portion of image data; and the decoder is configured to receive the measure of loss effect from the encoder, and to use the measure of loss effect received from the encoder to make said selection. a receiver for receiving from an encoder a video signal comprising encoded video data and a transport protocol over a lossy medium; and a decoder coupled to the receiver and arranged to decode the video signal for output to a display, the decoder including a concealment module for regenerating a portion of image data lost from the video signal over said medium, by interpolating or extrapolating from other image data of the video signal received over said medium; wherein the decoder comprises a controller configured to operate in one of a first mode and a second mode and select, based on a measure of loss effect estimated for said portion of image data, whether (i) to operate in the first mode whereby the concealment module is applied to regenerate said portion of image data, or alternatively (ii) to operate in the second mode; characterized in that: in the second mode, the controller freezes preceding image data of the video signal in place of said portion of image data; and the decoder is configured to receive the measure of loss effect from the encoder, and to use the measure of loss effect received from the encoder to make said selection. in the second mode, the controller freezes preceding image data of the video signal in place of said portion of image data; and the decoder is configured to receive the measure of loss effect from the encoder, and to use the measure of loss effect received from the encoder to make said selection.
A portable fluid sprayer comprising: a sprayer body; a handle extending from the sprayer body; a nozzle configured to emit a fluid spray; a trigger configured to control spraying from the nozzle; a reservoir configured to hold spray fluid; a pump supported by the sprayer body and configured to pump spray fluid from the reservoir to the nozzle, the pump comprising: a pump body having a fluid inlet and a fluid outlet; a fluid displacement member at least partially disposed within the pump body and configured to move to draw the spray fluid into the pump through the fluid inlet, pressurize the spray fluid, and drive the spray fluid to the fluid outlet under pressure for spraying from the nozzle, characterized by the fluid displacement member comprising an electrically conductive material that moves during pumping; and an electrostatic module configured to provide electrical energy to the electrically conductive material of the fluid displacement member so that the fluid displacement member electrostatically charges the fluid as the fluid displacement member moves to pump the fluid to the nozzle. a sprayer body; a handle extending from the sprayer body; a nozzle configured to emit a fluid spray; a trigger configured to control spraying from the nozzle; a reservoir configured to hold spray fluid; a pump supported by the sprayer body and configured to pump spray fluid from the reservoir to the nozzle, the pump comprising: a pump body having a fluid inlet and a fluid outlet; a fluid displacement member at least partially disposed within the pump body and configured to move to draw the spray fluid into the pump through the fluid inlet, pressurize the spray fluid, and drive the spray fluid to the fluid outlet under pressure for spraying from the nozzle, characterized by the fluid displacement member comprising an electrically conductive material that moves during pumping; and a pump body having a fluid inlet and a fluid outlet; a fluid displacement member at least partially disposed within the pump body and configured to move to draw the spray fluid into the pump through the fluid inlet, pressurize the spray fluid, and drive the spray fluid to the fluid outlet under pressure for spraying from the nozzle, characterized by the fluid displacement member comprising an electrically conductive material that moves during pumping; and an electrostatic module configured to provide electrical energy to the electrically conductive material of the fluid displacement member so that the fluid displacement member electrostatically charges the fluid as the fluid displacement member moves to pump the fluid to the nozzle.
A modeling apparatus that is configured to manufacture a three-dimensional model by repeating a process of irradiating a powder layer formed from a powdered material with laser to partially solidify the powder layer, the modeling apparatus comprising: a discharge port that is configured to discharge gas for removing fumes into a chamber; a suction port that is configured to suction the gas from the chamber; an adsorption device that is configured to adsorb at least one of oxygen and moisture from the gas; a plurality of circulation passages that connect the discharge port and the suction port and circulate the gas from the suction port to the discharge port, wherein the circulation passages include a first circulation passage in which the adsorption device is arranged and a second circulation passage in which the adsorption device is not arranged; a determination unit that is configured to determine whether the chamber is filled with the gas; and a switching unit, characterised in that the switching unit is configured to switch a circulation state of the gas in the circulation passages so that the gas passes through only the second circulation passage, among the first circulation passage and the second circulation passage, until the determination unit determines that the chamber is filled with the gas and so that the gas passes through at least the first circulation passage, among the first circulation passage and the second circulation passage, from when the determination unit determines that the chamber is filled with the gas. a discharge port that is configured to discharge gas for removing fumes into a chamber; a suction port that is configured to suction the gas from the chamber; an adsorption device that is configured to adsorb at least one of oxygen and moisture from the gas; a plurality of circulation passages that connect the discharge port and the suction port and circulate the gas from the suction port to the discharge port, wherein the circulation passages include a first circulation passage in which the adsorption device is arranged and a second circulation passage in which the adsorption device is not arranged; a determination unit that is configured to determine whether the chamber is filled with the gas; and a switching unit, characterised in that the switching unit is configured to switch a circulation state of the gas in the circulation passages so that the gas passes through only the second circulation passage, among the first circulation passage and the second circulation passage, until the determination unit determines that the chamber is filled with the gas and so that the gas passes through at least the first circulation passage, among the first circulation passage and the second circulation passage, from when the determination unit determines that the chamber is filled with the gas.
System for assigning tools mounted on rams (3, 4; 13) to an installation position in a machine, comprising: - a RFID chip, - which is arranged on a ram (3, 4; 13), - which is writeable, - which has a transponder, - which has a memory, - which has passive digital inputs, and - an electrically switchable contact panel (10; 17) - with contacts (11, 12) - which is arranged on a tool holder (1, 2) of the machine, characterised in that that the contacts (11, 12) of the contact panel (10; 17) can be contacted to the digital inputs of the RFID chip and that the RFID chip transmits at least one identifier and the assignment of the digital inputs during a query process. - a RFID chip, - which is arranged on a ram (3, 4; 13), - which is writeable, - which has a transponder, - which has a memory, - which has passive digital inputs, and - an electrically switchable contact panel (10; 17) - with contacts (11, 12) - which is arranged on a tool holder (1, 2) of the machine, characterised in that that the contacts (11, 12) of the contact panel (10; 17) can be contacted to the digital inputs of the RFID chip and that the RFID chip transmits at least one identifier and the assignment of the digital inputs during a query process. - which is arranged on a ram (3, 4; 13), - which is writeable, - which has a transponder, - which has a memory, - which has passive digital inputs, - an electrically switchable contact panel (10; 17) - with contacts (11, 12) - which is arranged on a tool holder (1, 2) of the machine, that the contacts (11, 12) of the contact panel (10; 17) can be contacted to the digital inputs of the RFID chip and that the RFID chip transmits at least one identifier and the assignment of the digital inputs during a query process.
A system for storing and producing air-free hypochlorous acid (HOCI), the system comprising: a container from which air has been purged, the container comprising a first compartment, comprising a mixture of sodium hypochlorite (NaOCI) and water, a separate second compartment comprising a mixture of an organic acid and water, and a separate third compartment for receiving contents of the first and second compartments, wherein each of the first, second, and third compartments comprises a wall forming an exterior of the container; a first one-way valve that permits fluid flow in a direction from the first compartment towards the third compartment; and a second one-way valve that permits fluid flow in a direction from the second compartment towards the third compartment; wherein the first and second one-way valves permit flow from the first and second compartments into the third compartment in response to an increase in pressure within the first and second compartments and the first and second compartments comprise walls of a flexible material configured to allow an increase in internal pressure of the first and second compartments in response to a force directly administered to respective walls of the first and second compartments forming the exterior of the container. a container from which air has been purged, the container comprising a first compartment, comprising a mixture of sodium hypochlorite (NaOCI) and water, a separate second compartment comprising a mixture of an organic acid and water, and a separate third compartment for receiving contents of the first and second compartments, wherein each of the first, second, and third compartments comprises a wall forming an exterior of the container; a first one-way valve that permits fluid flow in a direction from the first compartment towards the third compartment; and a second one-way valve that permits fluid flow in a direction from the second compartment towards the third compartment; wherein the first and second one-way valves permit flow from the first and second compartments into the third compartment in response to an increase in pressure within the first and second compartments and the first and second compartments comprise walls of a flexible material configured to allow an increase in internal pressure of the first and second compartments in response to a force directly administered to respective walls of the first and second compartments forming the exterior of the container.
Method for maintenance in an aircraft, the aircraft comprising an avionic system, the avionic system comprising a set of functional entities, the avionic system being connected to an infrastructure on the ground according to at least one communication medium, the avionic system communicating with the infrastructure on the ground according to a synchronous communication mode, the synchronous communication mode consisting in establishing a communication link between the avionic system and the infrastructure on the ground, dedicated to the communication between them, the method comprising: - a step of receiving, by the avionic system, a command for testing of at least one functional entity via the said at least one communication medium, - a step of executing the said command on the said at least one functional entity, - a step of consulting, via the said at least one communication medium, maintenance data stored in the infrastructure on the ground relating to the malfunction of the said at least one functional entity, - at least one step of obtaining, by the avionic system, the said data relating to the malfunction of the said at least one functional entity, and - a step of repairing the said at least one functional entity based on the maintenance data obtained. - a step of receiving, by the avionic system, a command for testing of at least one functional entity via the said at least one communication medium, - a step of executing the said command on the said at least one functional entity, - a step of consulting, via the said at least one communication medium, maintenance data stored in the infrastructure on the ground relating to the malfunction of the said at least one functional entity, - at least one step of obtaining, by the avionic system, the said data relating to the malfunction of the said at least one functional entity, and - a step of repairing the said at least one functional entity based on the maintenance data obtained.