mhurhangee/patent-ind-claim-en huggingface dataset:
Spark plug , comprising - a housing , - an insulator arranged in the housing , - a centre electrode arranged in the insulator , - a terminal stud arranged in the insulator , - a resistance element , which is arranged in the insulator , and is spatially arranged between the centre electrode and the terminal stud and electrically connects the centre electrode to the terminal stud , wherein the resistance element contains a resistance panat , wherein the resistance panat contains conductive particles and non-conductive particles , wherein at least 80% of the non-conductive particles have a diameter of at most 20 μm, and wherein the non-conductive particles are glass particles and ceramic particles, and - a ground electrode , which is arranged on an end face of the housing on the combustion chamber side and forms a spark gap together with the centre electrode , characterized in that the proportion of glass particles in the resistance panat is less than or equal to 30wt.%. - a housing , - an insulator arranged in the housing , - a centre electrode arranged in the insulator , - a terminal stud arranged in the insulator , - a resistance element , which is arranged in the insulator , and is spatially arranged between the centre electrode and the terminal stud and electrically connects the centre electrode to the terminal stud , wherein the resistance element contains a resistance panat , wherein the resistance panat contains conductive particles and non-conductive particles , wherein at least 80% of the non-conductive particles have a diameter of at most 20 μm, and wherein the non-conductive particles are glass particles and ceramic particles, and - a ground electrode , which is arranged on an end face of the housing on the combustion chamber side and forms a spark gap together with the centre electrode ,
An anode active material for secondary batteries, capable of intercalating and deintercalating ions, the anode active material comprising: a core comprising a crystalline carbon-based material; and a composite coating layer comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon, and a hydrophilic material, wherein the composite coating layer has (i) a structure in which a filler comprising a hydrophilic material is incorporated in a matrix comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon, or (ii) a structure in which a filler comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon is incorporated in a matrix comprising a hydrophilic material; wherein the hydrophilic material is at least one selected from oxides, nitrides and carbides that exhibit relatively high hydrophilicity compared to one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon and do not react with lithium, wherein the oxide is at least one selected from the group consisting of aluminum oxide, magnesium oxide and zirconium oxide, wherein the nitride is silicon nitride, wherein the carbide is at least one selected from the group consisting of silicon carbide and cobalt carbide, and characterized in that an amount of the composite coating layer is 0.5 to 20% by weight, based on the total amount of the anode active material. a core comprising a crystalline carbon-based material; and a composite coating layer comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon, and a hydrophilic material, wherein the composite coating layer has (i) a structure in which a filler comprising a hydrophilic material is incorporated in a matrix comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon, or (ii) a structure in which a filler comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon is incorporated in a matrix comprising a hydrophilic material; wherein the hydrophilic material is at least one selected from oxides, nitrides and carbides that exhibit relatively high hydrophilicity compared to one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon and do not react with lithium, wherein the oxide is at least one selected from the group consisting of aluminum oxide, magnesium oxide and zirconium oxide, wherein the nitride is silicon nitride, wherein the carbide is at least one selected from the group consisting of silicon carbide and cobalt carbide, and characterized in that an amount of the composite coating layer is 0.5 to 20% by weight, based on the total amount of the anode active material.
An image forming apparatus comprising: an ejection head including a plurality of ejection ports configured to eject liquid; a flow path for supplying liquid to the plurality of ejection ports ; and a control unit configured to control the amount of liquid to be ejected from the ejection ports , wherein a plurality of areas including the ejection ports in the ejection head are set, in accordance with a degree of pressure loss in the flow path, a plurality of threshold values, associated with each of the plurality of areas, are set to the amount of ejection per unit time from the ejection ports provided in the areas, the plurality of threshold values corresponding to the plurality of areas are different values, and the control unit is configured to control the amount of liquid ejected per unit time to be equal to or smaller than the threshold value for each of the areas. an ejection head including a plurality of ejection ports configured to eject liquid; a flow path for supplying liquid to the plurality of ejection ports ; and a control unit configured to control the amount of liquid to be ejected from the ejection ports , wherein a plurality of areas including the ejection ports in the ejection head are set, in accordance with a degree of pressure loss in the flow path, a plurality of threshold values, associated with each of the plurality of areas, are set to the amount of ejection per unit time from the ejection ports provided in the areas, the plurality of threshold values corresponding to the plurality of areas are different values, and the control unit is configured to control the amount of liquid ejected per unit time to be equal to or smaller than the threshold value for each of the areas.
A load handling device for a transportation unit, the device comprising: a folding handling arm (BP), equipped with a handling head (HH) and at least two successive arm parts (BP1, BP2), in which the arm parts (BP1, BP2) are connected to each other by a folding fastening RA, the device further comprising a suspension structure (HS) to suspend said handling arm (BP) for the purpose of supporting it, the device further comprising a rotating structure (RS) to turn said handling arm by turning the suspension structure in relation to a support frame located at the upper part of a cargo space of the transportation unit, characterised in that the suspension structure (HS) of the handling arm (BP) is essentially a rotationally symmetrical, rotation ring structure disc that is rotatable in relation to its support frame (SF) with said rotating structure (RS) in order to suspend the handling arm (BP) for the purpose of supporting it, wherein the support frame (SF) delimits the rotation ring structure (HS) within it. a folding handling arm (BP), equipped with a handling head (HH) and at least two successive arm parts (BP1, BP2), in which the arm parts (BP1, BP2) are connected to each other by a folding fastening RA, the device further comprising a suspension structure (HS) to suspend said handling arm (BP) for the purpose of supporting it, the device further comprising a rotating structure (RS) to turn said handling arm by turning the suspension structure in relation to a support frame located at the upper part of a cargo space of the transportation unit, characterised in that the suspension structure (HS) of the handling arm (BP) is essentially a rotationally symmetrical, rotation ring structure disc that is rotatable in relation to its support frame (SF) with said rotating structure (RS) in order to suspend the handling arm (BP) for the purpose of supporting it, wherein the support frame (SF) delimits the rotation ring structure (HS) within it.
Interconnect module between an electrical circuit breaker and an electrical contactor , the interconnect module comprising: - a housing , - a plurality of electrical power conductors housed inside the housing, each of the electrical power conductors being adapted to electrically connect an electrical output of a circuit breaker to an electrical input of a contactor in order to ensure the flow of an electrical supply current from the circuit breaker to the contactor, - a current-measuring apparatus adapted to measure values of the current flowing through the electrical power conductors , and - an electronic processing unit , each electrical power conductor comprising a flat central portion , an upper portion and a lower portion , the upper and lower portions projecting perpendicularly relative to the central portion from opposite ends of the central portion, the electronic processing unit being formed on an electronic board , the electrical conductors passing through the electronic board by means of through-holes formed in the electronic board , the current-measuring apparatus being fixed to a face of the electronic board ; characterised in that the interconnect module further comprises an electrical voltage sensor for detecting an electrical voltage (Vp) between at least two of the electrical power conductors , in that the electronic processing unit is provided with an interface for connection to a data bus and is programmed to transmit the values measured by the measuring apparatus to the data bus , the electronic processing unit also being electrically connected to the voltage sensor and being programmed to transmit a signal to the data bus when such an electrical voltage (Vp) is detected by the voltage sensor , and in that the voltage sensor comprises at least one electrically conductive plate arranged on an opposite face of the electronic board, at a distance from and facing one of the electrical power conductors , opposite a plate formed on the central portion of one of the electrical power conductors, the electrical voltage (Vp) being detected as a function of the value of the electrical capacitance (C1, C2) between the electrically conductive plate and the corresponding electrical power conductor. - a housing , - a plurality of electrical power conductors housed inside the housing, each of the electrical power conductors being adapted to electrically connect an electrical output of a circuit breaker to an electrical input of a contactor in order to ensure the flow of an electrical supply current from the circuit breaker to the contactor, - a current-measuring apparatus adapted to measure values of the current flowing through the electrical power conductors , and - an electronic processing unit ,
A method for identifying a person by an elevator system (10, 10', 10"), the method comprising: acquiring identification data of the person with an identification device ; matching the identification data with user profiles of a plurality of persons, which user profiles are stored in an identification database ; when a user profile is found based on the identification data : switching in a personal mode, which is associated with the user profile and interacting with the person in the personal mode, wherein switching in the personal mode is only valid within a time period, and when the user profile has been found outside the time period, switching in the anonymous mode; when no user profile is found: switching in an anonymous mode, and interacting with the person in the anonymous mode. acquiring identification data of the person with an identification device ; matching the identification data with user profiles of a plurality of persons, which user profiles are stored in an identification database ; when a user profile is found based on the identification data : switching in a personal mode, which is associated with the user profile and interacting with the person in the personal mode, wherein switching in the personal mode is only valid within a time period, and when the user profile has been found outside the time period, switching in the anonymous mode; when no user profile is found: switching in an anonymous mode, and interacting with the person in the anonymous mode.
A manufacturing method of a fluid control device , the fluid control device comprises a housing , a piezoelectric actuator and a deformable substrate , wherein the piezoelectric actuator comprises a piezoelectric element , an outer frame , at least one bracket and a vibration plate , and the deformable substrate comprises a flexible plate and a communication plate , wherein the communication plate comprises at least one inlet , the housing comprises at least one outlet , and the flexible plate comprises a movable part and a central aperture , the manufacturing method characterized in: (a) stacking and coupling the flexible plate and the communication plate of the deformable substrate , and implementing a preformed synchronous deformation process thereon to form a preformed synchronously-deformed structure defined by the flexible plate and the communication plate collaboratively; and (b) coupling the housing , the piezoelectric actuator and the deformable substrate which are sequentially stacked, wherein the preformed synchronously-deformed structure is aligned with the vibration plate to define a specified depth (δ) between the movable part of the flexible plate and the vibration plate . (a) stacking and coupling the flexible plate and the communication plate of the deformable substrate , and implementing a preformed synchronous deformation process thereon to form a preformed synchronously-deformed structure defined by the flexible plate and the communication plate collaboratively; and (b) coupling the housing , the piezoelectric actuator and the deformable substrate which are sequentially stacked, wherein the preformed synchronously-deformed structure is aligned with the vibration plate to define a specified depth (δ) between the movable part of the flexible plate and the vibration plate .
Axial pump device with an impeller and with at least one flow-engagement element having at least one contact surface , which is configured for dividing up a medium that is to be transported; the flow-engagement element being embodied as a stator holding element which is configured to connect a stator core , which carries the impeller , to a stator sleeve , which guides the medium that is to be transported inside, via a loadbearing connection, wherein the contact surface has a convex curvature at least with respect to a gap direction, characterised in that a distance between the impeller and the stator holding element is equivalent to at least 25 % of a diameter of the impeller . the flow-engagement element being embodied as a stator holding element which is configured to connect a stator core , which carries the impeller , to a stator sleeve , which guides the medium that is to be transported inside, via a loadbearing connection, wherein the contact surface has a convex curvature at least with respect to a gap direction, characterised in that a distance between the impeller and the stator holding element is equivalent to at least 25 % of a diameter of the impeller .
Method for tracking process parameters in the production of rubber products, in particular unvulcanized treads for vehicle pneumatic tyres, comprising the steps of: a) producing an unvulcanized rubber product, comprising a crosslinkable rubber mixture, and b) applying an identification to a surface of the unvulcanized rubber product, wherein the identification comprises information about one or more process parameters of production and/or is linked with information about one or more process parameters of production by way of a system for data processing, wherein applying the identification is carried out by producing depressions on the surface using a material-removing method and/or an impressing method, wherein the depressions produced have a depth of 100 μm or less. a) producing an unvulcanized rubber product, comprising a crosslinkable rubber mixture, and b) applying an identification to a surface of the unvulcanized rubber product, wherein the identification comprises information about one or more process parameters of production and/or is linked with information about one or more process parameters of production by way of a system for data processing, wherein applying the identification is carried out by producing depressions on the surface using a material-removing method and/or an impressing method, wherein the depressions produced have a depth of 100 μm or less.
Contact carrier for a plug-in connector , having a side wall , a contact fixing which is designed to fix at least one contact element on the contact carrier , and an insertion opening , which is arranged on the side wall , for inserting a tool, wherein the contact fixing has two portions between which the tool can be inserted, and wherein the contact fixing is designed to fix a contact element arranged on the contact carrier in a fixing position, and can be brought out of the fixing position into a release position in order to release the contact element from the contact carrier by the tool being brought into operative connection with the contact fixing via the insertion opening , wherein the portions of the contact fixing are each connected to the side wall of the contact carrier at a connecting point , characterized in that the two portions of the contact fixing form a V-shaped, U-shaped, conical or frustoconical tool pocket .
A method for producing a CO 2 gas separation membrane, comprising the steps of: preparing a coating liquid by dissolving, in a medium, a composition for a CO 2 separation membrane comprising: at least one compound selected from the group consisting of an alkali metal carbonate, an alkali metal bicarbonate, and an alkali metal hydroxide; a crosslinked polymer in which a polymer having a carboxyl group has been crosslinked; and a non-crosslinked polymer obtainable by polymerization of one or more monomers selected from the group consisting of vinyl acetate, acrylic acid, methacrylic acid, vinyl esters of fatty acids with 2 to 16 carbon atoms, acrylic acid alkyl esters having an alkyl group with 1 to 16 carbon atoms, methacrylic acid alkyl esters having an alkyl group with 1 to 16 carbon atoms, itaconic acid, itaconic acid dialkyl esters having an alkyl group with 1 to 16 carbon atoms, crotonic acid, crotonic acid alkyl esters having an alkyl group with 1 to 16 carbon atoms, acrylamide and acrylonitrile; wherein the non-crosslinked polymer content is 2wt% to 90wt% based on the total amount of the crosslinked polymer and non-crosslinked polymer; forming a coating film by applying the prepared coating liquid onto a supporting layer including a porous membrane; and forming a separation-functional layer by removing the medium from the formed coating film. preparing a coating liquid by dissolving, in a medium, a composition for a CO 2 separation membrane comprising: at least one compound selected from the group consisting of an alkali metal carbonate, an alkali metal bicarbonate, and an alkali metal hydroxide; a crosslinked polymer in which a polymer having a carboxyl group has been crosslinked; and a non-crosslinked polymer obtainable by polymerization of one or more monomers selected from the group consisting of vinyl acetate, acrylic acid, methacrylic acid, vinyl esters of fatty acids with 2 to 16 carbon atoms, acrylic acid alkyl esters having an alkyl group with 1 to 16 carbon atoms, methacrylic acid alkyl esters having an alkyl group with 1 to 16 carbon atoms, itaconic acid, itaconic acid dialkyl esters having an alkyl group with 1 to 16 carbon atoms, crotonic acid, crotonic acid alkyl esters having an alkyl group with 1 to 16 carbon atoms, acrylamide and acrylonitrile; wherein the non-crosslinked polymer content is 2wt% to 90wt% based on the total amount of the crosslinked polymer and non-crosslinked polymer; forming a coating film by applying the prepared coating liquid onto a supporting layer including a porous membrane; and forming a separation-functional layer by removing the medium from the formed coating film.
A power supply system for powering an LED lamp unit , having a normal mode of operation in which a mains input of a driver of the lamp unit is supplied by mains power , and an emergency mode of operation, in which the LED lamp unit is supplied by a charge storage device , the power supply system comprising an emergency mode converter means operable to step-up the voltage from the charge storage device for powering the lamp unit ; characterised in that the emergency mode converter means is operable to supply the mains input of the driver for powering the lamp unit and configured to control in a way to draw a fixed discharge current from the charge storage device . the power supply system comprising an emergency mode converter means operable to step-up the voltage from the charge storage device for powering the lamp unit ; characterised in that the emergency mode converter means is operable to supply the mains input of the driver for powering the lamp unit and configured to control in a way to draw a fixed discharge current from the charge storage device .
A switch device , comprising: a substrate ; an operation knob that is arranged above the substrate and that comprises an operation surface formed into a shape comprising a long axis and a short axis; a switch contact that is arranged on the substrate corresponding to a region in the operation surface between the long axis and the short axis, and that allows a switching operation according to a press operation of the operation knob ; a first resilient dome that is arranged on the substrate corresponding to an end in the long axis, and that is resiliently deformable and is configured to bias the operation knob in a direction separating from the substrate ; and a second resilient dome that is resiliently deformable and arranged corresponding to the region in the operation surface between the long axis and the short axis, and that allows a switching operation of the switch contact , wherein, when the operation knob is pressed, the first resilient dome fails to reverse and the second resilient dome reverses. a substrate ; an operation knob that is arranged above the substrate and that comprises an operation surface formed into a shape comprising a long axis and a short axis; a switch contact that is arranged on the substrate corresponding to a region in the operation surface between the long axis and the short axis, and that allows a switching operation according to a press operation of the operation knob ; a first resilient dome that is arranged on the substrate corresponding to an end in the long axis, and that is resiliently deformable and is configured to bias the operation knob in a direction separating from the substrate ; and a second resilient dome that is resiliently deformable and arranged corresponding to the region in the operation surface between the long axis and the short axis, and that allows a switching operation of the switch contact , wherein, when the operation knob is pressed, the first resilient dome fails to reverse and the second resilient dome reverses.