mhurhangee/ep-ind-claims huggingface dataset:
A touch sensitive element, comprising: an electroactive layer comprising a first portion of a first thickness (t 1) and a second portion of a second thickness (t 2) that is greater than the first thickness (t 1); a first electrode electrically coupled to a surface of the electroactive layer; and a second electrode electrically coupled to the same surface or a different surface of the electroactive layer as the first electrode, the electroactive layer configured to vibrate responsive to applying a voltage difference between the second electrode and the first electrode, wherein each of the first portion and the second portion of the electroactive layer overlaps the first electrode and the second electrode; a first wiring line connected to the first electrode on the second portion of the electroactive layer; and a second wiring line connected to the second electrode on the second portion of the electroactive layer. an electroactive layer comprising a first portion of a first thickness (t 1) and a second portion of a second thickness (t 2) that is greater than the first thickness (t 1); a first electrode electrically coupled to a surface of the electroactive layer; and a second electrode electrically coupled to the same surface or a different surface of the electroactive layer as the first electrode, the electroactive layer configured to vibrate responsive to applying a voltage difference between the second electrode and the first electrode, wherein each of the first portion and the second portion of the electroactive layer overlaps the first electrode and the second electrode; a first wiring line connected to the first electrode on the second portion of the electroactive layer; and a second wiring line connected to the second electrode on the second portion of the electroactive layer.
Piste grooming vehicle with a combustion engine and with at least one generator which is in connection via power electronics with at least one electric motor for rotatory functional drive of the piste grooming vehicle, characterized in that two generators, connected in parallel, having equal performance are provided between combustion engine and power electronics, and in that a chain drive, a cutter shaft drive and/or a winch drive are provided as functional drives.
A method in a computer system for distributing rules of security policies to enforcement engines for enforcing the security policies characterized by: providing at the computer system enforcement engines that implement different layers of security enforcement; receiving and storing at the computer system security policies wherein each security policy has rules that each provide a condition and action to be performed when the condition is satisfied, each rule having a rule type that is used by a firewall agent to identify the enforcement engines that are responsible for enforcing the rules; under control of the firewall agent executing on the computer system, retrieving the stored security policies; and for rules of a retrieved security policy, identifying an enforcement engine to which a rule applies based on the rule type of the rule; and providing the rule to the identified enforcement engine; and under control of the enforcement engines, enforcing the rules provided to the enforcement engine by the firewall agent, wherein the firewall agent provides a mechanism for distributing the rules to multiple enforcement engines of the computer system; wherein a flow manager component intercepts network events at the various layers and invokes an enforcement engine associated with a layer to enforce the rules for that layer. providing at the computer system enforcement engines that implement different layers of security enforcement; receiving and storing at the computer system security policies wherein each security policy has rules that each provide a condition and action to be performed when the condition is satisfied, each rule having a rule type that is used by a firewall agent to identify the enforcement engines that are responsible for enforcing the rules; under control of the firewall agent executing on the computer system, retrieving the stored security policies; and for rules of a retrieved security policy, identifying an enforcement engine to which a rule applies based on the rule type of the rule; and providing the rule to the identified enforcement engine; and retrieving the stored security policies; and for rules of a retrieved security policy, identifying an enforcement engine to which a rule applies based on the rule type of the rule; and providing the rule to the identified enforcement engine; and identifying an enforcement engine to which a rule applies based on the rule type of the rule; and providing the rule to the identified enforcement engine; and under control of the enforcement engines, enforcing the rules provided to the enforcement engine by the firewall agent, wherein the firewall agent provides a mechanism for distributing the rules to multiple enforcement engines of the computer system; wherein a flow manager component intercepts network events at the various layers and invokes an enforcement engine associated with a layer to enforce the rules for that layer.
Spinning mill installation, having a spinning mill installation section (2, 6, 17), including a hollow space (2a, 6a, 16) and a device including at least one sensor which responds to carbon monoxide and/or carbon dioxide and is configured for being employed at or in a spinning mill installation section (2, 6, 17) so that a detection section of the sensor is oriented towards a hollow space (2a, 6a, 16) to be detected of the spinning mill installation section (2, 6, 17), wherein the device includes a holding section (10, 13, 17) at which the sensor is stationarily mounted and which is configured for being mounted to the section (2, 6), characterized in that the detection section is covered by the holding section and the holding section includes at least one through-opening, which extends from an outside of the holding section facing away from the detection section in the direction of the detection section.
A method for reconstructing image data (I 3) representative of original image data (I 1) from decoded image data ( I 2 ^) and from a set of parameters processed from said original image data (I 1), said parameters required for the reconstruction process, the method being characterized in that the method comprises: in response to a determination that the set of parameters is lost or that at least one parameter of the set of parameters is corrupted or that an overlay is to be inserted on a decoded image: - obtaining information data indicating whether the decoded image is an SDR image or an HDR image obtained based on a PQ or a HLG mapping function; - recovering all parameters (Pr) of the set of parameters by replacing the set of parameters by a set of pre-determined parameters based on the information data; and - reconstructing image data (I 3) based on the decoded image data and the recovered parameters (Pr). - obtaining information data indicating whether the decoded image is an SDR image or an HDR image obtained based on a PQ or a HLG mapping function; - recovering all parameters (Pr) of the set of parameters by replacing the set of parameters by a set of pre-determined parameters based on the information data; and - reconstructing image data (I 3) based on the decoded image data and the recovered parameters (Pr).
Process for the preparation of Triazole of formula and salt thereof: comprising the following steps: a) conversion in acid environment of Amidine of formula: to compound of formula, wherein the conversion is carried out in ethanol, b) obtaining suspension of compound in ethanol, without the addition of any other solvent, c) isolation of the product of formula from a suspension of said compound in ethanol. a) conversion in acid environment of Amidine of formula: to compound of formula, wherein the conversion is carried out in ethanol, b) obtaining suspension of compound in ethanol, without the addition of any other solvent, c) isolation of the product of formula from a suspension of said compound in ethanol.
A Power over Data Lines, PoDL, system and voltage measurement system including a pair of wires carrying differential data and a DC voltage, and Power Sourcing Equipment, PSE, providing the DC voltage to the pair of wires via a DC-coupling circuit, the system further including a common mode choke, CMC, coupled between the pair of wires and a transceiver, the CMC comprising a first transformer with two windings having the same polarity, wherein the CMC attenuates AC common mode signals on the pair of wires and substantially passes the differential data; characterized in that the system further comprises: termination circuitry coupled between the CMC and the pair of wires, the termination circuitry comprising a first resistor coupled to a first of the wires, wherein the first resistor is coupled to ground via a first capacitor, the termination circuity further comprising a second resistor coupled to a second of the wires, wherein the second resistor is coupled to ground via a second capacitor; a first conductor coupled to a first node between the first resistor and the first capacitor; a second conductor coupled to a second node between the second resistor and the second capacitor; and the first conductor and the second conductor being coupled to a voltage sensor for detecting the DC voltage applied to the pair of wires. termination circuitry coupled between the CMC and the pair of wires, the termination circuitry comprising a first resistor coupled to a first of the wires, wherein the first resistor is coupled to ground via a first capacitor, the termination circuity further comprising a second resistor coupled to a second of the wires, wherein the second resistor is coupled to ground via a second capacitor; a first conductor coupled to a first node between the first resistor and the first capacitor; a second conductor coupled to a second node between the second resistor and the second capacitor; and the first conductor and the second conductor being coupled to a voltage sensor for detecting the DC voltage applied to the pair of wires.
Method of fixing, by welding, an interface support on a profile of a vehicle seat slide rail, comprising the steps of: a) providing an interface support having at least one wall (11, 12) with an inner face (F11I, F12I), and providing a slide rail profile having a substantially U-shaped cross-section with a transverse wall interconnecting two side walls (22, 23), said side walls (22, 23) being substantially parallel to each other and said transverse wall being substantially perpendicular to said side walls (22, 23), the transverse wall and each side wall (22, 23) having an inner face (F21I, F22I) and an outer face (F21E, F22E), b) positioning the interface support with the inner face (F11I, F12I) of its at least one wall (11, 12) against the outer face (F21E, F22E) of a wall (21, 22) of the profile, c) creating a welding joint between the wall (11, 12) of the interface support and the wall (21, 22) of the profile by moving a laser beam, emitted from an emitting source, relative to the wall (21, 22) of the profile, while keeping the laser beam in a position such that it passes successively through, and in this order from the emitting source: the inner face (F21I, F22I) of said wall (21, 22) of the profile, then the outer face (F21E, F22E) of said wall (21, 22) of the profile, then the inner face (F11I, F12I) of the wall (11, 12) of the interface support, and while remaining within the material of the wall (11, 12) of the interface support. a) providing an interface support having at least one wall (11, 12) with an inner face (F11I, F12I), and providing a slide rail profile having a substantially U-shaped cross-section with a transverse wall interconnecting two side walls (22, 23), said side walls (22, 23) being substantially parallel to each other and said transverse wall being substantially perpendicular to said side walls (22, 23), the transverse wall and each side wall (22, 23) having an inner face (F21I, F22I) and an outer face (F21E, F22E), b) positioning the interface support with the inner face (F11I, F12I) of its at least one wall (11, 12) against the outer face (F21E, F22E) of a wall (21, 22) of the profile, c) creating a welding joint between the wall (11, 12) of the interface support and the wall (21, 22) of the profile by moving a laser beam, emitted from an emitting source, relative to the wall (21, 22) of the profile, while keeping the laser beam in a position such that it passes successively through, and in this order from the emitting source: the inner face (F21I, F22I) of said wall (21, 22) of the profile, then the outer face (F21E, F22E) of said wall (21, 22) of the profile, then the inner face (F11I, F12I) of the wall (11, 12) of the interface support, and while remaining within the material of the wall (11, 12) of the interface support.
Installation for quality control of a succession of articles, in particular bottles, in which elements comprise a drive worm for conveying the articles to successive housings of a carousel wheel, guides for holding the articles in the housings, at least one control module situated along the path of the articles, at least one aforesaid element being put in place individually using at least one device for rapid mounting and/or adjustment without specific tooling, the rapid mounting and/or adjustment device comprising a device for rapid mounting and removal of the control module, it being possible to configure the control module outside the control installation, characterized in that the rapid mounting and removal device is composed of a quick-lock slider system, said slider system comprising: - a track attached to the frame of the installation and extending in a radial direction relative to the axis of the carousel, and - a traveller firmly fixed to the body of the control module. - a track attached to the frame of the installation and extending in a radial direction relative to the axis of the carousel, and - a traveller firmly fixed to the body of the control module.
A paper conveying apparatus (100, 200) comprising: a sound signal generator for generating a sound signal corresponding to a sound generated by a paper during conveyance of the paper; a corrected signal generator for correcting the sound signal to generate a corrected signal; and a sound jam detector for determining whether a jam has occurred based on the corrected signal, characterised in that the corrected signal generator sets a method of correcting the sound signal in accordance with conveyance speed information. a sound signal generator for generating a sound signal corresponding to a sound generated by a paper during conveyance of the paper; a corrected signal generator for correcting the sound signal to generate a corrected signal; and a sound jam detector for determining whether a jam has occurred based on the corrected signal, characterised in that the corrected signal generator sets a method of correcting the sound signal in accordance with conveyance speed information.
A thermoelectric material manufacturing method, comprising the steps of: - preparing a powder from an at least binary thermoelectric alloy (A x B 1-x) intended to be used as a matrix; - mixing the powder with nanoparticles of pure metal intended to form inclusions in the matrix; - submitting the mixture to a step of sintering at an adapted temperature, comprised between the temperature necessary to reach 90% of the maximum densification and the melting temperature of the metal and of the alloy (A x B 1-x), during which nanometric inclusions of composition M a A b and/or M a B b are formed in the matrix. - preparing a powder from an at least binary thermoelectric alloy (A x B 1-x) intended to be used as a matrix; - mixing the powder with nanoparticles of pure metal intended to form inclusions in the matrix; - submitting the mixture to a step of sintering at an adapted temperature, comprised between the temperature necessary to reach 90% of the maximum densification and the melting temperature of the metal and of the alloy (A x B 1-x), during which nanometric inclusions of composition M a A b and/or M a B b are formed in the matrix.
A method for operating a cooling system, the cooling system comprising: a single condenser/accumulator unit, wherein a condenser, a sub-cooler and an accumulator are combined, the single condenser/accumulator unit comprising a shell; a coolant flowpath extending from a coolant inlet to a coolant outlet; an upper tube bundle within the shell, a first branch of the coolant flowpath passing through tubes of the upper tube bundle; a lower tube bundle within the shell, a second branch of the coolant flowpath passing through tubes of the lower tube bundle; a refrigerant flowpath extending from a refrigerant inlet to a refrigerant outlet and in heat transfer relation with the coolant flowpath; and a vertical gap between the upper tube bundle and the lower tube bundle and comprising at least 50% of a free volume of a refrigerant space within the shell; a pump coupled to the refrigerant outlet of the single condenser/accumulator unit; and a heat exchanger having a refrigerant inlet coupled to the pump and a refrigerant outlet coupled to the refrigerant inlet of the single condenser/accumulator unit, the method comprising: operating in a first condition wherein a surface of a liquid accumulation of the refrigerant in the shell is within the gap; operating in a second condition, at higher cooling load than the first condition, wherein the surface of the liquid accumulation of the refrigerant in the shell is also within the gap but higher than in the first condition; and shutting down the pump to go into a third condition wherein the surface of the liquid accumulation of the refrigerant in the shell is above the gap. a single condenser/accumulator unit, wherein a condenser, a sub-cooler and an accumulator are combined, the single condenser/accumulator unit comprising a shell; a coolant flowpath extending from a coolant inlet to a coolant outlet; an upper tube bundle within the shell, a first branch of the coolant flowpath passing through tubes of the upper tube bundle; a lower tube bundle within the shell, a second branch of the coolant flowpath passing through tubes of the lower tube bundle; a refrigerant flowpath extending from a refrigerant inlet to a refrigerant outlet and in heat transfer relation with the coolant flowpath; and a vertical gap between the upper tube bundle and the lower tube bundle and comprising at least 50% of a free volume of a refrigerant space within the shell; a pump coupled to the refrigerant outlet of the single condenser/accumulator unit; and a heat exchanger having a refrigerant inlet coupled to the pump and a refrigerant outlet coupled to the refrigerant inlet of the single condenser/accumulator unit, operating in a first condition wherein a surface of a liquid accumulation of the refrigerant in the shell is within the gap; operating in a second condition, at higher cooling load than the first condition, wherein the surface of the liquid accumulation of the refrigerant in the shell is also within the gap but higher than in the first condition; and shutting down the pump to go into a third condition wherein the surface of the liquid accumulation of the refrigerant in the shell is above the gap.
A mesh for use in a nebulizer for atomizing and nebulizing liquid, wherein the mesh is used to nebulize the liquid, and configured to have a plurality of through holes; wherein each of the plurality of through holes has a tapered shape whose width is gradually narrowed towards an outlet surface side of the mesh; wherein platinum is used as a main component of a material of the mesh, characterized in that each of the plurality of through holes has a taper angle at the outlet surface side that ranges from 3 degrees to 30 degrees.
A soil nematode control emulsion concentrate consisting of: 5 to 20 percent by weight of a 16-membered ring macrolide compound; 20 to 70 percent by weight of a surfactant, wherein the surfactant is a combination of an anionic surfactant and a non-ionic surfactant, wherein the anionic surfactant is any selected from the group consisting of alkyl benzene sulfonate, alkyl naphthalene sulfonate, dialkyl sulfosuccinate, and polyoxyalkylene allyl phenyl ether sulfate, and wherein the non-ionic surfactant is any selected from the group consisting of polyoxyethylene styrylphenyl ether and polyoxyalkylene allyl phenyl ether; and one or more water-soluble solvents having a boiling point of 150°C or higher, wherein the one or more water-soluble solvents are selected from the group consisting of butyl lactate, ethyl lactate, dipropylene glycol, polypropylene glycol, diethylene glycol monobutyl ether, dimethyl sulfoxide, and N-methylpyrrolidone. 5 to 20 percent by weight of a 16-membered ring macrolide compound; 20 to 70 percent by weight of a surfactant, wherein the surfactant is a combination of an anionic surfactant and a non-ionic surfactant, wherein the anionic surfactant is any selected from the group consisting of alkyl benzene sulfonate, alkyl naphthalene sulfonate, dialkyl sulfosuccinate, and polyoxyalkylene allyl phenyl ether sulfate, and wherein the non-ionic surfactant is any selected from the group consisting of polyoxyethylene styrylphenyl ether and polyoxyalkylene allyl phenyl ether; and one or more water-soluble solvents having a boiling point of 150°C or higher, wherein the one or more water-soluble solvents are selected from the group consisting of butyl lactate, ethyl lactate, dipropylene glycol, polypropylene glycol, diethylene glycol monobutyl ether, dimethyl sulfoxide, and N-methylpyrrolidone.