mhurhangee/ep-ind-claims huggingface dataset:
An absorbent dressing for treating a tissue site, comprising: an ion-exchange media adapted to reduce an ionic concentration of fluid from the tissue site; and an absorbent adapted to absorb fluid with the reduced ionic concentration; wherein the absorbent is formed into a plurality of fiber cores, and the ion-exchange media is dispersed in a filter layer material around each of the fiber cores, wherein the ion-exchange media comprises: cation-exchange media; anion-exchange media; and the cation-exchange media and the anion-exchange media are dispersed throughout the filter layer material around each of the fiber cores. an ion-exchange media adapted to reduce an ionic concentration of fluid from the tissue site; and an absorbent adapted to absorb fluid with the reduced ionic concentration; wherein the absorbent is formed into a plurality of fiber cores, and the ion-exchange media is dispersed in a filter layer material around each of the fiber cores, wherein the ion-exchange media comprises: cation-exchange media; anion-exchange media; and the cation-exchange media and the anion-exchange media are dispersed throughout the filter layer material around each of the fiber cores. cation-exchange media; anion-exchange media; and the cation-exchange media and the anion-exchange media are dispersed throughout the filter layer material around each of the fiber cores.
A computer-implemented method for evaluating simulations and/or test cases in scenario-based testing and/or homologation of at least partially autonomous driving functions to be tested by means of key performance indicators, comprising the steps: mapping KPIs using KPI plug-ins; dynamically and reusably selecting KPI plug-ins for simulations and/or test cases; selecting at least one KPI plug-in by a KPI plug-in mechanism in the simulation and/or test definition; automatically executing the selected KPI plug-in by the KPI plug-in mechanism during the execution of the KPI plug-in mechanism; determining a KPI value by passing a simulation result to a KPI script of the KPI plug-in; transmitting the simulation result and the KPI value to a test creation and configuration and generating optimized test cases and/or an optimized parameter configuration; and providing an at least partially autonomous driving function optimized using the optimized test cases and/or the optimized parameter configuration. mapping KPIs using KPI plug-ins; dynamically and reusably selecting KPI plug-ins for simulations and/or test cases; selecting at least one KPI plug-in by a KPI plug-in mechanism in the simulation and/or test definition; automatically executing the selected KPI plug-in by the KPI plug-in mechanism during the execution of the KPI plug-in mechanism; determining a KPI value by passing a simulation result to a KPI script of the KPI plug-in; transmitting the simulation result and the KPI value to a test creation and configuration and generating optimized test cases and/or an optimized parameter configuration; and providing an at least partially autonomous driving function optimized using the optimized test cases and/or the optimized parameter configuration.
A helmet, comprising first and second components having a sliding interface between them, wherein the sliding interface is provided between respective sliding surfaces of the first and second components, and the first component comprises a polyketone.
A method for manufacturing a disposable wearing article, comprising: a step of cutting an inner surface web in a length direction thereof to form a first inner surface web and a second inner surface web; a step of spacing the cut first inner surface web and the second inner surface web from each other; a step of manufacturing a first elastic laminated body and a second elastic laminated body by laminating an outer surface web to the first inner surface web and the second inner surface web while inserting an elastic member (4, 5A, 5B) in an extended state in the length direction between them; and a step of attaching an absorber to the first inner surface web and the second inner surface web, characterized in that the inner surface web is cut on a single line in the length direction. a step of cutting an inner surface web in a length direction thereof to form a first inner surface web and a second inner surface web; a step of spacing the cut first inner surface web and the second inner surface web from each other; a step of manufacturing a first elastic laminated body and a second elastic laminated body by laminating an outer surface web to the first inner surface web and the second inner surface web while inserting an elastic member (4, 5A, 5B) in an extended state in the length direction between them; and a step of attaching an absorber to the first inner surface web and the second inner surface web, characterized in that the inner surface web is cut on a single line in the length direction.
An organic compound, represented by following Formula: wherein each of R 1 to R 14 is independently selected from hydrogen, substituted or non-substituted C 6 to C 12 aryl, substituted or non-substituted C 3 to C 11 heteroaryl, substituted or non-substituted C 1 to C 10 alkyl, substituted or non-substituted C 1 to C 10 alkoxy, ether, cyano group, fluorine, tri-fluoro methyl, tri-fluoro methoxy and trimethylsilyl, and at least one of R 1 to R 10 is the cyano group, and wherein at least one of R 11 to R 14 is the cyano group, and A is selected from substituted or non-substituted C 6 to C 30 aryl and substituted or non-substituted C 3 to C 30 heteroaryl.
Device for controlling a driven moving element (3, 4) in the form of a door, a gate or a window, which comprises an electronic unit with an object sensor, wherein the electronic unit is designed, by means of the object sensor, to determine an object distance between the driven moving element (3, 4) and an object in the region of the moving element (3, 4) and to control the movement of the moving element (3, 4) depending on said object distance, wherein the moving element closes and opens an opening, characterised in that the electronic unit is also designed to use a front edge (8, 9) of the moving element (3, 4) for determining the object distance as a reference on the moving element, wherein the front edge is the edge on which a collision between the object and moving element occurs first and which lies at the opening and means are provided to determine the object distance from a distance between the object sensor and the object, a distance (6a, 7a) between the object sensor and the front edge of the moving element (3, 4) and the angle α between the vectors (6, 7 and 10) of the distance directions.
A radiofrequency micro-electromechanical switch, comprising: - a semiconductor and/or insulating substrate having an essentially planar face; - a first RF line capable of conveying a RF signal, said first RF line comprising at least one metal layer, said first RF line being arranged on said face of the substrate; - a second RF line capable of conveying a RF signal, said second RF line comprising at least one metal layer; - a MEMS membrane capable of being deflected by one or more activations of the electrostatic type toward the substrate or in the opposite direction, said MEMS membrane comprising at least one metal layer and being substantially parallel to the substrate and being connected to the first RF line via one or more anchors; - a dome, having an inner face facing said essentially planar face of the substrate and an outer face opposite said inner face, said dome comprising at least one dielectric layer, said dome being arranged between the second RF line and the MEMS membrane, and having one or more anchors on said essentially planar face of the substrate and at least one side opening, said switch being characterized in that said second RF line comprises at least a first section in contact with said essentially planar face of the substrate, and a second section adjacent and electrically connected to said first section, said second section at least partially covering the upper part of said dome, and at least one of said second RF line and said first RF line closing said side opening so as to create a sealed cavity encapsulating said MEMS membrane. - a semiconductor and/or insulating substrate having an essentially planar face; - a first RF line capable of conveying a RF signal, said first RF line comprising at least one metal layer, said first RF line being arranged on said face of the substrate; - a second RF line capable of conveying a RF signal, said second RF line comprising at least one metal layer; - a MEMS membrane capable of being deflected by one or more activations of the electrostatic type toward the substrate or in the opposite direction, said MEMS membrane comprising at least one metal layer and being substantially parallel to the substrate and being connected to the first RF line via one or more anchors; - a dome, having an inner face facing said essentially planar face of the substrate and an outer face opposite said inner face, said dome comprising at least one dielectric layer, said dome being arranged between the second RF line and the MEMS membrane, and having one or more anchors on said essentially planar face of the substrate and at least one side opening,
A method of controlling packet data connectivity in a wireless communication network performed by a node of the wireless communication network, the method comprising: the node (150; 160; 170) of the wireless communication network receiving, from a user equipment, an indication that a limitation of volume charged packet data services is required for the user equipment, wherein the node (150; 160; 170) receives the indication in at least one of - a procedure for attaching the user equipment to the wireless communication network; and - a procedure for configuring packet data network connectivity between the user equipment and the wireless communication network; depending on the received indication, the node (150; 160; 170) preventing transmission of packet data traffic associated with the volume charged packet data services and allowing transmission of packet data traffic associated with one or more other packet data services not subject to volume based charging; and the node (150; 160; 170) configuring at least one packet filter which blocks the packet data traffic associated with the volume charged packet data services and passes the packet data traffic associated with the one or more other packet data services. the node (150; 160; 170) of the wireless communication network receiving, from a user equipment, an indication that a limitation of volume charged packet data services is required for the user equipment, wherein the node (150; 160; 170) receives the indication in at least one of - a procedure for attaching the user equipment to the wireless communication network; and - a procedure for configuring packet data network connectivity between the user equipment and the wireless communication network; - a procedure for attaching the user equipment to the wireless communication network; and - a procedure for configuring packet data network connectivity between the user equipment and the wireless communication network; depending on the received indication, the node (150; 160; 170) preventing transmission of packet data traffic associated with the volume charged packet data services and allowing transmission of packet data traffic associated with one or more other packet data services not subject to volume based charging; and the node (150; 160; 170) configuring at least one packet filter which blocks the packet data traffic associated with the volume charged packet data services and passes the packet data traffic associated with the one or more other packet data services.
A self-cleaning control method for an air conditioner, comprising: controlling, in response to the air conditioner entering a self-cleaning mode, the air conditioner to perform a cooling operation; during the cooling operation of the air conditioner, acquiring a high-pressure-side pressure of an exhaust port of a compressor, and recording a duration of the cooling operation of the air conditioner; controlling, based on the high-pressure-side pressure and the duration of the cooling operation of the air conditioner, the air conditioner to switch to perform a heating operation; during the heating operation of the air conditioner, acquiring a temperature at a bottom of an outdoor heat exchanger, and recording a duration of the heating operation of the air conditioner; and controlling, based on the temperature at the bottom of the outdoor heat exchanger and the duration of the heating operation of the air conditioner, the air conditioner to exit the self-cleaning mode. controlling, in response to the air conditioner entering a self-cleaning mode, the air conditioner to perform a cooling operation; during the cooling operation of the air conditioner, acquiring a high-pressure-side pressure of an exhaust port of a compressor, and recording a duration of the cooling operation of the air conditioner; controlling, based on the high-pressure-side pressure and the duration of the cooling operation of the air conditioner, the air conditioner to switch to perform a heating operation; during the heating operation of the air conditioner, acquiring a temperature at a bottom of an outdoor heat exchanger, and recording a duration of the heating operation of the air conditioner; and controlling, based on the temperature at the bottom of the outdoor heat exchanger and the duration of the heating operation of the air conditioner, the air conditioner to exit the self-cleaning mode.
High strength steel comprising, by weight, carbon: 0.05% to 0.14%, silicon: 0.01.% to 1.0%, manganese: 1.0% to 3.0%, aluminum. 0.01% to 0.1%, chromium: 0.005% to 1.0%, molybdenum: 0.003% to 0.3%, phosphorus: 0.001% to 0.05%, sulfur: 0.01% or less, nitrogen: 0.001% to 0.01%, niobium: 0.005% to 0.06%, titanium: 0.005% to 0.13%, vanadium: 0.003% to 0.2%, boron: 0.0003% to 0.003%, a remainder of iron, and other inevitable impurities, wherein ∗ defined by the following Equations 1 and 2 is 0.022 or more and 0.10 or less, in a microstructure of the high strength steel, the sum of area ratios of ferrite and bainite is 97% to 99%, a remainder of martensite and austenite with an area ratio of 1% to 3%, the number of the austenite structures having a diameter of 10 μm or more per a unit area is 1 × 10 4 /cm 2 or less, including 0 /cm 2, and the number of the austenite structures having a diameter of less than 10 μm per a unit area is 1 × 10 8 /cm 2 or more, wherein the size and number of austenite structures are measured using an Electron Back Scatter Diffraction method; C * = C + N − C + N × S S = Nb / 93 + Ti / 48 + V / 51 + Mo / 96 / C / 12 + N / 14 where each of,, [Nb], [Ti],, and [Mo] refers to a weight percentage of the element. wherein ∗ defined by the following Equations 1 and 2 is 0.022 or more and 0.10 or less, in a microstructure of the high strength steel, the sum of area ratios of ferrite and bainite is 97% to 99%, a remainder of martensite and austenite with an area ratio of 1% to 3%, the number of the austenite structures having a diameter of 10 μm or more per a unit area is 1 × 10 4 /cm 2 or less, including 0 /cm 2, and the number of the austenite structures having a diameter of less than 10 μm per a unit area is 1 × 10 8 /cm 2 or more, wherein the size and number of austenite structures are measured using an Electron Back Scatter Diffraction method; C * = C + N − C + N × S S = Nb / 93 + Ti / 48 + V / 51 + Mo / 96 / C / 12 + N / 14 where each of,, [Nb], [Ti],, and [Mo] refers to a weight percentage of the element.
An apparatus for analyzing reactions, comprising multiple reactors, wherein each reactor is connected to at least two sample vessels assigned only to this reactor, wherein each sample vessel has an adjustable volume.
A cosmetic process for treating keratin fibers, preferably the hair, comprising at least the steps consisting in: a) applying to said keratin fibers a composition containing at least one substance chosen from non-silicone polymers, said composition being free of alkali metal or alkaline-earth metal hydroxides at a pH above 12 or of reducing agents for cleaving the disulfide bonds, b) applying a mechanical tension to said keratin fibers, and c) exposing said keratin fibers under mechanical tension to microwaves, at a pressure ranging from 50 000 to 250 000 Pa, in the presence of at least one solvent in vapor form on contact with the keratin fibers and without there being complete drying of the keratin fibers throughout the entire exposure to the microwaves, the solvent(s) in vapor form being entirely generated by evaporating at least one compound present, before emission of the microwaves, on contact with the keratin fibers, step a) taking place prior to step c). a) applying to said keratin fibers a composition containing at least one substance chosen from non-silicone polymers, said composition being free of alkali metal or alkaline-earth metal hydroxides at a pH above 12 or of reducing agents for cleaving the disulfide bonds, b) applying a mechanical tension to said keratin fibers, and c) exposing said keratin fibers under mechanical tension to microwaves, at a pressure ranging from 50 000 to 250 000 Pa, in the presence of at least one solvent in vapor form on contact with the keratin fibers and without there being complete drying of the keratin fibers throughout the entire exposure to the microwaves,
A method for determining flow properties of a multiphase mixture, the method comprising steps of: flowing the multiphase mixture through a section of pipe in a phase separated flow regime, wherein the phase separated flow regime comprises a flow of the multiphase mixture in which a liquid phase of the multiphase mixture and a gas phase of the multiphase mixture are separated; measuring a differential pressure across a diameter of the section of pipe; and using a density of the gas phase, a density of the liquid phase and the measured differential pressure to determine a liquid layer thickness of the liquid phase of the multiphase mixture flowing in the section of pipe, characterised in that it further comprises, after the first step of flowing the multiphase mixture through a section of pipe in a phase separated flow regime, the step of using one or more ultrasonic transducers to determine when the multiphase mixture is flowing through the pipe in the phase separated flow regime. flowing the multiphase mixture through a section of pipe in a phase separated flow regime, wherein the phase separated flow regime comprises a flow of the multiphase mixture in which a liquid phase of the multiphase mixture and a gas phase of the multiphase mixture are separated; measuring a differential pressure across a diameter of the section of pipe; and using a density of the gas phase, a density of the liquid phase and the measured differential pressure to determine a liquid layer thickness of the liquid phase of the multiphase mixture flowing in the section of pipe, characterised in that it further comprises, after the first step of flowing the multiphase mixture through a section of pipe in a phase separated flow regime, the step of using one or more ultrasonic transducers to determine when the multiphase mixture is flowing through the pipe in the phase separated flow regime.
An ultrasound system, comprising: an ultrasound data acquisition unit configured to acquire ultrasound data for obtaining a plurality of ultrasound images corresponding to a plurality of steering angles; a storage unit for storing at least one beam profile indicating a spreading degree of an ultrasound beam according to depth based on at least one focusing point; and a processing unit configured to form an ultrasound spatial compound image based on the ultrasound data and the at least one beam profile, characterized in that the processing unit is configured to set an amount of blurring corresponding to spreading of the ultrasound beam according to the depth based on the at least one beam profile, to remove the blurring from the plurality of ultrasound images based on the amount of blurring, and to form the ultrasound spatial compound image by compounding the plurality of ultrasound images from which the blurring was removed, wherein the amount of blurring is equal to the beam profile, and wherein for each pixel of each of the plurality of the ultrasound images the processing unit removes the blurring from the respective ultrasound images by comparing the pixel value of the pixel to the pixel values of the adjacent pixels at the same depth and by increasing the pixel value of the pixel based on the amount of blurring if the pixel value is higher than the pixel values of the adjacent pixels, not modifying the pixel value of the pixel if it is equal to the pixel values of the adjacent pixels, and decreasing the pixel value of the pixel based on the amount of blurring in all other cases. an ultrasound data acquisition unit configured to acquire ultrasound data for obtaining a plurality of ultrasound images corresponding to a plurality of steering angles; a storage unit for storing at least one beam profile indicating a spreading degree of an ultrasound beam according to depth based on at least one focusing point; and a processing unit configured to form an ultrasound spatial compound image based on the ultrasound data and the at least one beam profile, characterized in that the processing unit is configured to set an amount of blurring corresponding to spreading of the ultrasound beam according to the depth based on the at least one beam profile, to remove the blurring from the plurality of ultrasound images based on the amount of blurring, and to form the ultrasound spatial compound image by compounding the plurality of ultrasound images from which the blurring was removed, wherein the amount of blurring is equal to the beam profile, and wherein for each pixel of each of the plurality of the ultrasound images the processing unit removes the blurring from the respective ultrasound images by comparing the pixel value of the pixel to the pixel values of the adjacent pixels at the same depth and by increasing the pixel value of the pixel based on the amount of blurring if the pixel value is higher than the pixel values of the adjacent pixels, not modifying the pixel value of the pixel if it is equal to the pixel values of the adjacent pixels, and decreasing the pixel value of the pixel based on the amount of blurring in all other cases.