mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a plurality of host nodes , each of which comprising a container environment; an application instance proxy executing in each of the container environments; a plurality of switches configured to interconnect the plurality of host nodes; a fabric controller configured to manage the plurality of switches and to implement policies through virtual fabric edge instances executing on each host node; wherein the virtual fabric edge instances are configured to route application traffic from application instances in the container environments to one or more of the switches; wherein, at a given host node, the application instance proxy executing in the container environment is configured to query the virtual fabric edge instance of the given host node for data regarding application functions; wherein the virtual fabric edge instance is configured to request a response to the query from the fabric controller; wherein the fabric controller is configured to transmit a response with the data regarding the application functions to the virtual fabric edge instance; and wherein the virtual fabric instance is configured to cache the response. a plurality of host nodes , each of which comprising a container environment; an application instance proxy executing in each of the container environments; a plurality of switches configured to interconnect the plurality of host nodes; a fabric controller configured to manage the plurality of switches and to implement policies through virtual fabric edge instances executing on each host node; wherein the virtual fabric edge instances are configured to route application traffic from application instances in the container environments to one or more of the switches; wherein, at a given host node, the application instance proxy executing in the container environment is configured to query the virtual fabric edge instance of the given host node for data regarding application functions; wherein the virtual fabric edge instance is configured to request a response to the query from the fabric controller; wherein the fabric controller is configured to transmit a response with the data regarding the application functions to the virtual fabric edge instance; and wherein the virtual fabric instance is configured to cache the response.
A contact medium containing: 0.05 to 2.5 wt.% of a gel-forming agent 0.05 to 3.5 wt.% of a detergent 0.1 to 4.0 wt.% of an emulsifier optionally additives, preferably selected from preservatives, acidifiers, skincare additives, and mixtures thereof, and water as the remaining element, wherein the gel-forming agent is selected from the group consisting of hydroxyethyl cellulose, carboxycellulose, xanthan gum, guar gum, collagen, gelatin, pectins, chitin, starch, alginates, including sodium alginate, potassium alginate, and calcium alginate, and mixtures thereof, the detergent is a non-ionic surfactant or a mixture of non-ionic surfactants, the emulsifier is selected from the group consisting of glycerol mono fatty acid esters and glycerol di-fatty acid esters and mixtures thereof, wherein the remaining fatty acid is preferably derived from C7-C20-saturated fatty acid, C16-C20-monounsaturated fatty acid, and/or C18-C20-diunsaturated fatty acid, preferably from stearic acid, oleic acid, caprylic acid, capric acid, and/or linolenic acid, wherein the contact medium has a pH value in the range of 5 to 7. optionally additives, preferably selected from preservatives, acidifiers, skincare additives, and mixtures thereof, and water as the remaining element, wherein the gel-forming agent is selected from the group consisting of hydroxyethyl cellulose, carboxycellulose, xanthan gum, guar gum, collagen, gelatin, pectins, chitin, starch, alginates, including sodium alginate, potassium alginate, and calcium alginate, and mixtures thereof, the detergent is a non-ionic surfactant or a mixture of non-ionic surfactants, the emulsifier is selected from the group consisting of glycerol mono fatty acid esters and glycerol di-fatty acid esters and mixtures thereof, wherein the remaining fatty acid is preferably derived from C7-C20-saturated fatty acid, C16-C20-monounsaturated fatty acid, and/or C18-C20-diunsaturated fatty acid, preferably from stearic acid, oleic acid, caprylic acid, capric acid, and/or linolenic acid, wherein the contact medium has a pH value in the range of 5 to 7.
A method for managing operation of an aircraft during flight, the method comprising: identifying a current performance of the aircraft during operation of the aircraft using a model of the aircraft and flight state data ; identifying a flight envelope from the current performance of the aircraft ; identifying a current capability of the aircraft from the current performance of the aircraft ; and operating the aircraft within a section defined by an intersection of the flight envelope and a second envelope defining a desired performance for the aircraft , characterized in that the current performance comprises a current lift, a current thrust, and a current drag of the aircraft. identifying a current performance of the aircraft during operation of the aircraft using a model of the aircraft and flight state data ; identifying a flight envelope from the current performance of the aircraft ; identifying a current capability of the aircraft from the current performance of the aircraft ; and operating the aircraft within a section defined by an intersection of the flight envelope and a second envelope defining a desired performance for the aircraft ,
Hand dishwashing composition comprising: at least one surfactant, characterized in that the composition further comprises at least one inorganic salt, wherein the salt is an alkali metal salt and/or an alkaline earth metal salt, solvent, and wherein the viscosity of the composition is 1000 cps to 4000 cps, and wherein the pH of the composition is at least 7.5 and less than 8.5, and wherein the solvent comprises ethanol and cumene sulfonate. at least one surfactant, characterized in that the composition further comprises at least one inorganic salt, wherein the salt is an alkali metal salt and/or an alkaline earth metal salt, solvent, and wherein the viscosity of the composition is 1000 cps to 4000 cps, and wherein the pH of the composition is at least 7.5 and less than 8.5, and wherein the solvent comprises ethanol and cumene sulfonate.
Current collector for a non-track-bound, electrically driven vehicle for feeding electrical energy from a twopole overhead line system with two contact wires , comprising - an adjustable lower arm , which can be connected to the vehicle in a rotatable manner via a base joint , - two upper arms , which are connected to the lower arm in a rotatable manner via a knee joint in each case and each carry a contact rocker for contacting one of the contact wires in each case, - two coupling rods , which are connected to one of the upper arms in a rotatable manner in each case via a coupling joint in each case and are hinged such that an adjustment of the lower arm forces an adjustment of the upper arms , and - a compensating rocker for compensating a height difference between the contact rockers , which has a rocker stand and a rocker bar connected thereto in a rotatable manner via a rocker joint , - wherein the rocker stand can be connected to the vehicle in a rotatable manner via a base joint and the rocker bar is connected to the coupling rods in a rotatable manner via compensating joints arranged on both sides of the rocker joint in each case, characterised by - at least one end stop element , which can be connected to the vehicle , for a sensing element arranged on one side of the rocker bar for restricting a rotary movement of the rocker bar about a rocker joint axis of the rocker joint , - wherein, when adjusting the lower arm , the sensing element senses a path in the shape of a circular arc, and - wherein the end stop element has an arc-shaped striking path for the sensing element. - an adjustable lower arm , which can be connected to the vehicle in a rotatable manner via a base joint , - two upper arms , which are connected to the lower arm in a rotatable manner via a knee joint in each case and each carry a contact rocker for contacting one of the contact wires in each case, - two coupling rods , which are connected to one of the upper arms in a rotatable manner in each case via a coupling joint in each case and are hinged such that an adjustment of the lower arm forces an adjustment of the upper arms , and - a compensating rocker for compensating a height difference between the contact rockers , which has a rocker stand and a rocker bar connected thereto in a rotatable manner via a rocker joint , - wherein the rocker stand can be connected to the vehicle in a rotatable manner via a base joint and the rocker bar is connected to the coupling rods in a rotatable manner via compensating joints arranged on both sides of the rocker joint in each case, - at least one end stop element , which can be connected to the vehicle , for a sensing element arranged on one side of the rocker bar for restricting a rotary movement of the rocker bar about a rocker joint axis of the rocker joint , - wherein, when adjusting the lower arm , the sensing element senses a path in the shape of a circular arc, and - wherein the end stop element has an arc-shaped striking path for the sensing element.
A damper assembly comprising a piston and cylinder type damper with a piston assembly mounted for reciprocal movement in a cylinder containing damping fluid, with the piston assembly dividing the interior of the cylinder into two chambers and providing a means of communication for passage of damping fluid between the chambers, the means of communication including a conduit through the piston assembly, with the conduit containing an element in the form of an elongate pin that partly occludes it, wherein the means of communication is arranged to allow passage of more or less damping fluid depending on the position of the piston assembly with respect to the cylinder along its path of reciprocation, the conduit has a stepped bore or the elongate pin has a stepped diameter, the cylinder has a stepped bore with at least two different diameter bore portions , characterised in that the piston assembly has at least two seals , a respective one to suit each bore portion.
A method for manufacturing an aerogel-containing composite, said method comprising the steps of: providing starting materials comprising fibres, aerogel particulate material, binder and filler, wherein the fibres comprise first fibres, and wherein the filler is a fire retardant, wherein fibres are provided in an amount of from 3 to 80 wt % of the total weight of starting materials, wherein aerogel particulate material is provided in an amount of from 10 to 75 wt % of the total weight of starting materials, wherein binder is provided in an amount of from 1 to 30 wt % of the total weight of starting materials, wherein filler is provided in an amount of 1 to 55 wt % of the total weight of starting materials, suspending the fibres and the filler in a primary air flow and suspending the aerogel particulate material in the primary air flow, thereby mixing the suspended aerogel particulate material with the suspended fibres and filler, mixing the binder with the fibres and/or aerogel particulate material before, during or after mixing of the fibres with the aerogel particulate material and filler, collecting the mixture of fibres, aerogel particulate material, filler and binder and pressing and curing the mixture to provide a consolidated composite with a density of from 120 kg/m 3 to 800 kg/m 3 . providing starting materials comprising fibres, aerogel particulate material, binder and filler, wherein the fibres comprise first fibres, and wherein the filler is a fire retardant, wherein fibres are provided in an amount of from 3 to 80 wt % of the total weight of starting materials, wherein aerogel particulate material is provided in an amount of from 10 to 75 wt % of the total weight of starting materials, wherein binder is provided in an amount of from 1 to 30 wt % of the total weight of starting materials, wherein filler is provided in an amount of 1 to 55 wt % of the total weight of starting materials, suspending the fibres and the filler in a primary air flow and suspending the aerogel particulate material in the primary air flow, thereby mixing the suspended aerogel particulate material with the suspended fibres and filler, mixing the binder with the fibres and/or aerogel particulate material before, during or after mixing of the fibres with the aerogel particulate material and filler, collecting the mixture of fibres, aerogel particulate material, filler and binder and pressing and curing the mixture to provide a consolidated composite with a density of from 120 kg/m 3 to 800 kg/m 3 .
A method, implemented by a network application executed by a processor device, for automating network management tasks associated with a computer network, the computer network comprising a plurality of network devices, the method comprising: retrieving a device queue including information of a plurality of network devices of the computer network in the device queue; and for each network device in the device queue: extracting topological information associated with the respective network device; performing a first execution flow associated with the network device including executing a network command customized for the network device based on a type of the network device; performing a second execution flow associated with another network device including executing a network command customized for the another network device based on a type of the another network device, wherein the another network device is determined as a neighbour device or a next hop device from the extracted topological information; and processing execution results of the first and second execution flows based on data retrieved from executing the respective network command on the network device and the another network device. retrieving a device queue including information of a plurality of network devices of the computer network in the device queue; and for each network device in the device queue: extracting topological information associated with the respective network device; performing a first execution flow associated with the network device including executing a network command customized for the network device based on a type of the network device; performing a second execution flow associated with another network device including executing a network command customized for the another network device based on a type of the another network device, wherein the another network device is determined as a neighbour device or a next hop device from the extracted topological information; and processing execution results of the first and second execution flows based on data retrieved from executing the respective network command on the network device and the another network device. extracting topological information associated with the respective network device; performing a first execution flow associated with the network device including executing a network command customized for the network device based on a type of the network device; performing a second execution flow associated with another network device including executing a network command customized for the another network device based on a type of the another network device, wherein the another network device is determined as a neighbour device or a next hop device from the extracted topological information; and processing execution results of the first and second execution flows based on data retrieved from executing the respective network command on the network device and the another network device.
An electronic device comprising: a housing ; a rectifier configured to rectify power provided through a first port and a second port of a power receiving circuit ; and the power receiving circuit disposed within the housing and including a conductive pattern unit for receiving the power wirelessly, wherein the conductive pattern unit comprises: a main coil ; a first sub-coil , wherein a first end of the first sub-coil is connected to a first end of the main coil and a second end of the first sub-coil is connected to the first port , and a second sub-coil , wherein a first end of the second sub-coil is connected to a second end of the main coil and a second end of the second sub-coil is connected to the second port , characterized in that a diameter of the first sub-coil and a diameter of the second sub-coil are smaller than a diameter of the main coil , and each of the first sub-coil and the second-sub-coil has a resonance frequency corresponding to a frequency of electromagnetic waves generated according to converting, by the rectifier, the power to direct current, DC, power. a housing ; a rectifier configured to rectify power provided through a first port and a second port of a power receiving circuit ; and the power receiving circuit disposed within the housing and including a conductive pattern unit for receiving the power wirelessly, wherein the conductive pattern unit comprises: a main coil ; a first sub-coil , wherein a first end of the first sub-coil is connected to a first end of the main coil and a second end of the first sub-coil is connected to the first port , and a second sub-coil , wherein a first end of the second sub-coil is connected to a second end of the main coil and a second end of the second sub-coil is connected to the second port , characterized in that a diameter of the first sub-coil and a diameter of the second sub-coil are smaller than a diameter of the main coil , and each of the first sub-coil and the second-sub-coil has a resonance frequency corresponding to a frequency of electromagnetic waves generated according to converting, by the rectifier, the power to direct current, DC, power. a main coil ; a first sub-coil , wherein a first end of the first sub-coil is connected to a first end of the main coil and a second end of the first sub-coil is connected to the first port , and a second sub-coil , wherein a first end of the second sub-coil is connected to a second end of the main coil and a second end of the second sub-coil is connected to the second port , characterized in that a diameter of the first sub-coil and a diameter of the second sub-coil are smaller than a diameter of the main coil , and each of the first sub-coil and the second-sub-coil has a resonance frequency corresponding to a frequency of electromagnetic waves generated according to converting, by the rectifier, the power to direct current, DC, power.
A method for producing nanofibres based on self-assembling peptides (SAP), comprising: - preparing a first solution based on self-assembling peptides; - preparing a second solution based on a coating polymer; - subjecting said first solution and said second solution to a co-electrospinning step, in which said first solution and said second solution are electrospun at the same time, said second solution being electrospun around said first solution so as to produce nanofibres having a central core formed by said self-assembling peptides and an outer layer, which surrounds said core and is formed by said coating polymer. - preparing a first solution based on self-assembling peptides; - preparing a second solution based on a coating polymer; - subjecting said first solution and said second solution to a co-electrospinning step, in which said first solution and said second solution are electrospun at the same time, said second solution being electrospun around said first solution so as to produce nanofibres having a central core formed by said self-assembling peptides and an outer layer, which surrounds said core and is formed by said coating polymer.
A heat pump element comprising: a thin-film polymer or ceramic material within a range of 0.1 microns - 100 microns thickness; and electrodes coupled to both sides of the thin-film material to form an electroded active thin-film material , wherein the thin-film material is separated by, and in intimate contact with, a heat transfer fluid in channels within a range of 10 microns - 10 millimeters thickness, in which the fluid is capable of being translated back and forth through the element by an imposed pressure field; and wherein the thin-film material is made in some part of at least one of: polyvinylidene fluoride (PVDF), a liquid crystal polymer (LCP), and barium strontium titanate (BST). a thin-film polymer or ceramic material within a range of 0.1 microns - 100 microns thickness; and electrodes coupled to both sides of the thin-film material to form an electroded active thin-film material , wherein the thin-film material is separated by, and in intimate contact with, a heat transfer fluid in channels within a range of 10 microns - 10 millimeters thickness, in which the fluid is capable of being translated back and forth through the element by an imposed pressure field; and wherein the thin-film material is made in some part of at least one of: polyvinylidene fluoride (PVDF), a liquid crystal polymer (LCP), and barium strontium titanate (BST).
A nitrogen-containing multi-block copolymer comprising: at least one A block comprising polyisoprene having isoprene repeat units and wherein no more than 1 mole percent of the isoprene repeat units are aminated; and at least one B block comprising amino-functionalized polybutadiene, the amino-functionalized polybutadiene comprising pendant groups of Formula (I-A) *-CH 2 CH 2 CH 2 -NR 1 R 2 (I-A) wherein R 1 is hydrogen, alkyl, or aryl and R 2 is an alkyl or aryl; or R 1 and R 2 together with the nitrogen to which they are both attached form a heterocyclic ring wherein the heterocyclic ring is saturated wherein optionally the heterocyclic ring comprises 0 to 2 additional heteroatoms wherein the additional heteroatoms are selected from nitrogen or oxygen; and an asterisk ( * ) denotes the point of attachment of the pendant groups to a carbon atom in the polymeric backbone. at least one A block comprising polyisoprene having isoprene repeat units and wherein no more than 1 mole percent of the isoprene repeat units are aminated; and at least one B block comprising amino-functionalized polybutadiene, the amino-functionalized polybutadiene comprising pendant groups of Formula (I-A) *-CH 2 CH 2 CH 2 -NR 1 R 2 (I-A) wherein R 1 is hydrogen, alkyl, or aryl and R 2 is an alkyl or aryl; or R 1 and R 2 together with the nitrogen to which they are both attached form a heterocyclic ring wherein the heterocyclic ring is saturated wherein optionally the heterocyclic ring comprises 0 to 2 additional heteroatoms wherein the additional heteroatoms are selected from nitrogen or oxygen; and an asterisk ( * ) denotes the point of attachment of the pendant groups to a carbon atom in the polymeric backbone. R 1 is hydrogen, alkyl, or aryl and R 2 is an alkyl or aryl; or R 1 and R 2 together with the nitrogen to which they are both attached form a heterocyclic ring wherein the heterocyclic ring is saturated wherein optionally the heterocyclic ring comprises 0 to 2 additional heteroatoms wherein the additional heteroatoms are selected from nitrogen or oxygen; and an asterisk ( * ) denotes the point of attachment of the pendant groups to a carbon atom in the polymeric backbone.