mhurhangee/patent-ind-claim-en huggingface dataset:
A computing device , comprising: a first portion (302 ) and a second portion (302 ); a temperature sensitive adhesive ; and, micro heaters positioned proximate to the temperature sensitive adhesive , wherein the micro heaters are configured to be selectively energized to supply sufficient thermal energy to the temperature sensitive adhesive to produce a relatively pliant state of the temperature sensitive adhesive where the first and second portions (302 , 302 ) can be positioned proximate to one another; and when the micro heaters are no longer energized, the micro heaters can be selectively electrically connected to other electrical circuitry/components to either be connected to the computing device's ground so that the micro heaters can dissipate electrical charge or to function as an antenna for the computing device and the temperature sensitive adhesive transitions to a second less pliant bonding state to secure the first portion (302 ) and the second portion (302 ); and wherein the micro heaters are configured to be subsequently re-energized to return the temperature sensitive adhesive to the relatively pliant state so that the first portion (302 ) can be separated from the second portion (302 ). a first portion (302 ) and a second portion (302 ); a temperature sensitive adhesive ; and, micro heaters positioned proximate to the temperature sensitive adhesive , wherein the micro heaters are configured to be selectively energized to supply sufficient thermal energy to the temperature sensitive adhesive to produce a relatively pliant state of the temperature sensitive adhesive where the first and second portions (302 , 302 ) can be positioned proximate to one another; and when the micro heaters are no longer energized, the micro heaters can be selectively electrically connected to other electrical circuitry/components to either be connected to the computing device's ground so that the micro heaters can dissipate electrical charge or to function as an antenna for the computing device and the temperature sensitive adhesive transitions to a second less pliant bonding state to secure the first portion (302 ) and the second portion (302 ); and wherein the micro heaters are configured to be subsequently re-energized to return the temperature sensitive adhesive to the relatively pliant state so that the first portion (302 ) can be separated from the second portion (302 ).
A secure connecter set for a liquid circuit, comprising: - a male connector and a female connector , each comprising a proximal coupler and a distal coupler , - the distal coupler of each of the connectors defining a passage and comprising a tubular part, in which a connection element fixedly mounted on the proximal coupler extends coaxially and an elastically deformable membrane , substantially tubular, closed at a distal end by a membrane thickness and mobile between a downstream blocking position, in which the membrane tightly covers a free end of the connection element , and an upstream connection position, in which the connection element passes through the membrane , the tubular part of the distal coupler of the male connector is adapted to be inserted, during connection, into the tubular part of the distal coupler of the female connector, wherein, in a downstream blocking position, the membrane of the female connector: - is encapsulated in the tubular part of the distal coupler , - is flush with the distal end of the distal coupler and - tightly blocks the passage of said distal coupler , the outer surface of the tubular part of the distal coupler of the female connector being smooth and having an unvarying axial cross-section over a substantially continuous part and comprising holding means extending transversally, said surface and said holding means together forming male or female locking means, the connecter set being characterized in that in a downstream blocking position, the membrane of the male connector: - is encapsulated in the tubular part of the distal coupler , - is flush with the distal end of the distal coupler and - tightly blocks the passage of said distal coupler , the outer surface of the tubular part of the distal coupler of the male connector being smooth and having an unvarying axial cross-section over a substantially continuous part and comprising holding means extending transversally, said surface and said holding means together forming male or female locking means. - a male connector and a female connector , each comprising a proximal coupler and a distal coupler , - the distal coupler of each of the connectors defining a passage and comprising a tubular part, in which a connection element fixedly mounted on the proximal coupler extends coaxially and an elastically deformable membrane , substantially tubular, closed at a distal end by a membrane thickness and mobile between a downstream blocking position, in which the membrane tightly covers a free end of the connection element , and an upstream connection position, in which the connection element passes through the membrane , the tubular part of the distal coupler of the male connector is adapted to be inserted, during connection, into the tubular part of the distal coupler of the female connector, - is encapsulated in the tubular part of the distal coupler , - is flush with the distal end of the distal coupler and - tightly blocks the passage of said distal coupler , - is encapsulated in the tubular part of the distal coupler , - is flush with the distal end of the distal coupler and - tightly blocks the passage of said distal coupler ,
A polymerization catalyst system, comprising at least three catalysts, comprising: a metallocene catalyst; a first non-metallocene comprising a ligand complexed to a metal through two or more nitrogen atoms; and a second non-metallocene comprising a catalyst of the formula: or any combinations, wherein X 1 and X 2 are each, independently, phenyl, methyl, chloro, fluoro, or a hydrocarbyl group. a metallocene catalyst; a first non-metallocene comprising a ligand complexed to a metal through two or more nitrogen atoms; and a second non-metallocene comprising a catalyst of the formula: or any combinations, wherein X 1 and X 2 are each, independently, phenyl, methyl, chloro, fluoro, or a hydrocarbyl group.
A stretchable multi-layer assembly for transfer-printing of an associated curved object, comprising: a stretchable carrier which defines a first outer surface of the assembly; a stretchable image supported on the carrier; the multi-layer assembly including an adhesive second outer surface defined by at least one of the stretchable image and an adhesive layer; the carrier and the stretchable image being penetrable to radiation that cures the adhesive second outer surface for securing the assembly to an associated object. a stretchable carrier which defines a first outer surface of the assembly; a stretchable image supported on the carrier; the multi-layer assembly including an adhesive second outer surface defined by at least one of the stretchable image and an adhesive layer; the carrier and the stretchable image being penetrable to radiation that cures the adhesive second outer surface for securing the assembly to an associated object.
A measurement transducer feed device for process automation technology which is configured for the energy supply of a measurement transducer and for forwarding measurement signals of the measurement transducer to a control unit , wherein the measurement transducer feed device has at least two connecting contacts which are configured for coupling the measurement transducer feed device to the control unit , with a current loop being formed between the two connecting contacts , and with the current loop comprising a power tap which is configured to supply the measurement transducer with electrical energy; and wherein the current loop comprises a current regulation module which is connected or connectable in series to the power tap and to the measurement transducer , characterized by a constant power source which provides a constant voltage to the current regulation module . wherein the measurement transducer feed device has at least two connecting contacts which are configured for coupling the measurement transducer feed device to the control unit , with a current loop being formed between the two connecting contacts , and with the current loop comprising a power tap which is configured to supply the measurement transducer with electrical energy; and wherein the current loop comprises a current regulation module which is connected or connectable in series to the power tap and to the measurement transducer , characterized by a constant power source which provides a constant voltage to the current regulation module .
A method for automated Security Information and Event Management (SIEM) custom correlation rule generation, comprising: receiving log data from a plurality of endpoints in a network; receiving input data about the network from a user by presenting the user with a series of questions about the network, wherein the input data is received in response to the questions, wherein the input data comprises one or more of: an IP address of a network device; network zone information; and network host information; generating a preliminary visualization of the network based on the log data and the input data; displaying the preliminary visualization to the user; receiving feedback from the user about the preliminary visualization; generating, based on the preliminary visualization and the feedback, a visualization of the network; automatically generating, based on the visualization, one or more SIEM custom correlation rules; receiving event data from the plurality of endpoints; applying the one or more SIEM custom correlation rules to the event data in order to determine whether to trigger one or more actions. receiving log data from a plurality of endpoints in a network; receiving input data about the network from a user by presenting the user with a series of questions about the network, wherein the input data is received in response to the questions, wherein the input data comprises one or more of: an IP address of a network device; network zone information; and network host information; an IP address of a network device; network zone information; and network host information; generating a preliminary visualization of the network based on the log data and the input data; displaying the preliminary visualization to the user; receiving feedback from the user about the preliminary visualization; generating, based on the preliminary visualization and the feedback, a visualization of the network; automatically generating, based on the visualization, one or more SIEM custom correlation rules; receiving event data from the plurality of endpoints; applying the one or more SIEM custom correlation rules to the event data in order to determine whether to trigger one or more actions.
A device for manufacturing a composite component, wherein the device comprises a tool with a first section forming a first confinement surface and a second section forming a second confinement surface , wherein the first section and the second section are movable relative to each other into and out of a fastening configuration, wherein the device comprises a closing mechanism with a closing section forming a third confinement surface , wherein the closing mechanism is directly or indirectly connected to the tool , wherein, when the first and second sections are arranged in the fastening configuration, the first confinement surface and the second confinement surface face one another, and the first section , the second section and the closing mechanism are arranged such that a cavity is formed between the first section , the second section and the closing mechanism , characterised in that , the closing section is transferable from an open configuration into a closed configuration, wherein, when the closing section is in the open configuration, the volume of the cavity is larger than the volume of the cavity when the closing section is in the closed configuration, wherein, when the closing section is in the closed configuration, the third confinement surface extends along a plane , which is arranged perpendicular to each of the first and second confinement surfaces , wherein, when the closing mechanism is heated from a first temperature to a second temperature, the closing section transfers from the open configuration into the closed configuration at a predefined temperature. wherein the device comprises a tool with a first section forming a first confinement surface and a second section forming a second confinement surface , wherein the first section and the second section are movable relative to each other into and out of a fastening configuration, wherein the device comprises a closing mechanism with a closing section forming a third confinement surface , wherein the closing mechanism is directly or indirectly connected to the tool , wherein, when the first and second sections are arranged in the fastening configuration, the first confinement surface and the second confinement surface face one another, and the first section , the second section and the closing mechanism are arranged such that a cavity is formed between the first section , the second section and the closing mechanism , characterised in that , the closing section is transferable from an open configuration into a closed configuration, wherein, when the closing section is in the open configuration, the volume of the cavity is larger than the volume of the cavity when the closing section is in the closed configuration, wherein, when the closing section is in the closed configuration, the third confinement surface extends along a plane , which is arranged perpendicular to each of the first and second confinement surfaces , wherein, when the closing mechanism is heated from a first temperature to a second temperature, the closing section transfers from the open configuration into the closed configuration at a predefined temperature.
A system for removing and concentrating per- and polyfluoroalkyl substances (PFAS) from water, the system comprising: an anion exchange vessel including an anion exchange resin therein configured to remove PFAS from the water; a line coupled to the anion exchange vessel configured to introduce a flow of water contaminated with PFAS such that the PFAS bind to the anion exchange resin in the anion exchange vessel and are thereby removed from the water; a regenerant solution line coupled to the anion exchange vessel configured to introduce a regenerant solution comprising a solvent, water, and a salt or a base to the anion exchange vessel to remove the PFAS from the anion exchange resin in the anion exchange vessel thereby regenerating the anion exchange resin and generating a spent regenerant solution comprising the removed PFAS and regenerant solution ; and a separation and recovery subsystem configured to receive the spent regenerant solution and separate and concentrate the removed PFAS to produce a reclaimed solvent for reuse and a solution comprising removed PFAS , salt or base, and water, the separation and recovery subsystem characterized in that it further comprises a super-loading recovery subsystem including an additional anion exchange resin in an additional exchange vessel configured to receive the solution comprising removed PFAS , salt or base, and water and to separate removed PFAS from the solution by adsorbing removed PFAS onto the additional anion exchange resin in the additional exchange vessel to create an ultra-concentrated PFAS waste product and a solution of concentrated salt or base and water for reuse. an anion exchange vessel including an anion exchange resin therein configured to remove PFAS from the water; a line coupled to the anion exchange vessel configured to introduce a flow of water contaminated with PFAS such that the PFAS bind to the anion exchange resin in the anion exchange vessel and are thereby removed from the water; a regenerant solution line coupled to the anion exchange vessel configured to introduce a regenerant solution comprising a solvent, water, and a salt or a base to the anion exchange vessel to remove the PFAS from the anion exchange resin in the anion exchange vessel thereby regenerating the anion exchange resin and generating a spent regenerant solution comprising the removed PFAS and regenerant solution ; and a separation and recovery subsystem configured to receive the spent regenerant solution and separate and concentrate the removed PFAS to produce a reclaimed solvent for reuse and a solution comprising removed PFAS , salt or base, and water, the separation and recovery subsystem characterized in that it further comprises a super-loading recovery subsystem including an additional anion exchange resin in an additional exchange vessel configured to receive the solution comprising removed PFAS , salt or base, and water and to separate removed PFAS from the solution by adsorbing removed PFAS onto the additional anion exchange resin in the additional exchange vessel to create an ultra-concentrated PFAS waste product and a solution of concentrated salt or base and water for reuse.
A method for detecting spikes in an input signal comprising: applying an output from at least one sensor to a resistive switching component , wherein a voltage of the output varies depending on the input signal and wherein the resistive switching component is configured to undergo a volatile resistive state change from an initial resistive state to a further resistive state when a voltage with a magnitude less than or equal to an upper threshold value is applied across the resistive switching component , and the volatile resistive state change is such that the resistive switching component spontaneously relaxes from the further resistive state towards or beyond the initial resistive state after the magnitude of the voltage subsequently falls; said applying the output from the at least one sensor resulting in the resistive switching component undergoing volatile resistive state changes; sampling a further signal that is dependent on a resistance of the resistive switching component ; and identifying, using the sampled further signal, a sequence of volatile resistive state changes corresponding to spikes in the input signal, wherein the identifying comprises determining that a magnitude of a change in the further signal and/or a rate of change of the magnitude of the further signal is greater than a predetermined value. applying an output from at least one sensor to a resistive switching component , wherein a voltage of the output varies depending on the input signal and wherein the resistive switching component is configured to undergo a volatile resistive state change from an initial resistive state to a further resistive state when a voltage with a magnitude less than or equal to an upper threshold value is applied across the resistive switching component , and the volatile resistive state change is such that the resistive switching component spontaneously relaxes from the further resistive state towards or beyond the initial resistive state after the magnitude of the voltage subsequently falls; said applying the output from the at least one sensor resulting in the resistive switching component undergoing volatile resistive state changes; sampling a further signal that is dependent on a resistance of the resistive switching component ; and identifying, using the sampled further signal, a sequence of volatile resistive state changes corresponding to spikes in the input signal, wherein the identifying comprises determining that a magnitude of a change in the further signal and/or a rate of change of the magnitude of the further signal is greater than a predetermined value.
A distributed fibre optic sensor comprising: an interrogator for, in use, interrogating a sensing optical fibre to perform distributed acoustic sensing and provide a measurement signal from each of a plurality of channels corresponding to sensing portions of the sensing optical fibre; and a processor configured to analyse said measurement signals to detect a first characteristic signature, said first characteristic signature comprising a variation in the measurement signal from a plurality of channels that applies for a first channel and substantially all downstream channels and which occurs simultaneously on all such channels. an interrogator for, in use, interrogating a sensing optical fibre to perform distributed acoustic sensing and provide a measurement signal from each of a plurality of channels corresponding to sensing portions of the sensing optical fibre; and a processor configured to analyse said measurement signals to detect a first characteristic signature, said first characteristic signature comprising a variation in the measurement signal from a plurality of channels that applies for a first channel and substantially all downstream channels and which occurs simultaneously on all such channels.
A whippable liquid dairy cream composition containing 13 - 28 wt.% milk fat, said composition comprising: a. 35 - 60 wt% dairy cream, which dairy cream preferably has a milk fat content between 38 - 46 wt. % by weight of the dairy cream; b. 0.05 - 0.15 wt.% of a first emulsifier comprising mono- and/or diglycerides of fatty acids having an iodine value of less than 10; c. 0.1 - 0.35 wt.% of a second emulsifier comprising mono- and/or diglycerides of fatty acids having an iodine value of 40 - 80; d. 0.05 - 0.15 wt.% of a third emulsifier comprising mono- and/or diglycerides of fatty acids having an iodine value of 85 - 150; e. 0.4 -1.2 wt.% of a fourth emulsifier selected from the group of lactic acid esters of mono- and/or diglycerides of fatty acids, acetic acid esters of mono- and/or diglycerides of fatty acids, and mixtures thereof; f. 20 - 58 wt.% water, milk or mixtures thereof; and wherein the first, second, third and fourth emulsifier differ from each other, with weight percentages being based on total weight of the whippable liquid dairy cream composition. a. 35 - 60 wt% dairy cream, which dairy cream preferably has a milk fat content between 38 - 46 wt. % by weight of the dairy cream; b. 0.05 - 0.15 wt.% of a first emulsifier comprising mono- and/or diglycerides of fatty acids having an iodine value of less than 10; c. 0.1 - 0.35 wt.% of a second emulsifier comprising mono- and/or diglycerides of fatty acids having an iodine value of 40 - 80; d. 0.05 - 0.15 wt.% of a third emulsifier comprising mono- and/or diglycerides of fatty acids having an iodine value of 85 - 150; e. 0.4 -1.2 wt.% of a fourth emulsifier selected from the group of lactic acid esters of mono- and/or diglycerides of fatty acids, acetic acid esters of mono- and/or diglycerides of fatty acids, and mixtures thereof; f. 20 - 58 wt.% water, milk or mixtures thereof;