mhurhangee/patent-ind-claim-en huggingface dataset:
A slice selection method , characterized by comprising: receiving (S210), by a terminal device, deployment-related slice information, wherein the deployment-related slice information comprises slice identification and slice deployment location information; and selecting (S220), by the terminal device, a slice based on the deployment-related slice information; wherein the receiving (S210), by the terminal device, the deployment-related slice information comprises: receiving, by the terminal device, first indication information from a network device, wherein the first indication information comprises the deployment-related slice information; the selecting (S220), by the terminal device, the slice based on the deployment-related slice information comprises: based on a current location and the slice deployment location information, selecting a slice that can be accessed, and determining, based on the selected slice, at least one of: whether to report a required slice, whether a first cell can be selected as a resident cell or a suitable cell, and whether to perform cell reselection. receiving (S210), by a terminal device, deployment-related slice information, wherein the deployment-related slice information comprises slice identification and slice deployment location information; and selecting (S220), by the terminal device, a slice based on the deployment-related slice information; wherein the receiving (S210), by the terminal device, the deployment-related slice information comprises: receiving, by the terminal device, first indication information from a network device, wherein the first indication information comprises the deployment-related slice information; the selecting (S220), by the terminal device, the slice based on the deployment-related slice information comprises: based on a current location and the slice deployment location information, selecting a slice that can be accessed, and determining, based on the selected slice, at least one of: whether to report a required slice, whether a first cell can be selected as a resident cell or a suitable cell, and whether to perform cell reselection. receiving, by the terminal device, first indication information from a network device, wherein the first indication information comprises the deployment-related slice information; the selecting (S220), by the terminal device, the slice based on the deployment-related slice information comprises: based on a current location and the slice deployment location information, selecting a slice that can be accessed, and determining, based on the selected slice, at least one of: whether to report a required slice, whether a first cell can be selected as a resident cell or a suitable cell, and whether to perform cell reselection.
A cosmetic product, comprising a cosmetic agent for temporarily shaping keratin fibers, comprising a) a cosmetic preparation containing, based on the total weight of the cosmetic preparation, a1) 0.05 to 5.0 wt.% of at least one hydrophobically modified metal oxide powder, selected from the compounds having the INCI names silica dimethyl silylate; a2) 0.1 to 10 wt.% of at least one film-forming polymer; a3) 40 to 95 wt.% ethanol; a4) less than 5 wt.% water; b) a dispensing device having a spray valve; and c) a propellant. a) a cosmetic preparation containing, based on the total weight of the cosmetic preparation, a1) 0.05 to 5.0 wt.% of at least one hydrophobically modified metal oxide powder, selected from the compounds having the INCI names silica dimethyl silylate; a2) 0.1 to 10 wt.% of at least one film-forming polymer; a3) 40 to 95 wt.% ethanol; a4) less than 5 wt.% water; a1) 0.05 to 5.0 wt.% of at least one hydrophobically modified metal oxide powder, selected from the compounds having the INCI names silica dimethyl silylate; a2) 0.1 to 10 wt.% of at least one film-forming polymer; a3) 40 to 95 wt.% ethanol; a4) less than 5 wt.% water; b) a dispensing device having a spray valve; and c) a propellant.
A method of in home preparation of a fabric conditioner, wherein an aqueous concentrated fabric conditioner comprising: a. 10 to 50 wt. % ester linked quaternary ammonium compound; and b. Non-ionic surfactant; is mixed with water to produce an aqueous fabric conditioner composition, wherein the ratio of non-ionic surfactant to cationic fabric softening active is 1:20 to 1:40 by weight and the ratio of concentrated fabric conditioner composition to water is 1:20 to 1:1 by weight. a. 10 to 50 wt. % ester linked quaternary ammonium compound; and b. Non-ionic surfactant; is mixed with water to produce an aqueous fabric conditioner composition, wherein the ratio of non-ionic surfactant to cationic fabric softening active is 1:20 to 1:40 by weight and the ratio of concentrated fabric conditioner composition to water is 1:20 to 1:1 by weight.
An apparatus comprising: - a cooling unit including ∘ at least one container for dry ice , characterized by o permanent magnets on the outer surface ; - at least one metal plate including Gadolinium detachably in connection with the magnets of the cooling unit . - a cooling unit including ∘ at least one container for dry ice , characterized by o permanent magnets on the outer surface ; ∘ at least one container for dry ice , characterized by o permanent magnets on the outer surface ; - at least one metal plate including Gadolinium detachably in connection with the magnets of the cooling unit .
A gasket for a percutaneous catheter introducer comprising: a first surface , a second surface and an outer periphery extending between the first and second surfaces; a first slit formed into the first surface having an inner surface defining a first gap ; a second slit formed into the second surface having an inner surface defining a second gap ; and characterized in further comprising a notch extending into the first gap of the first slit forming a bump on the inner surface of the first slit , wherein the second slit intersects the first slit at the notch such that the notch prevents the first and second slits from being in fluid communication. a first surface , a second surface and an outer periphery extending between the first and second surfaces; a first slit formed into the first surface having an inner surface defining a first gap ; a second slit formed into the second surface having an inner surface defining a second gap ; and characterized in further comprising a notch extending into the first gap of the first slit forming a bump on the inner surface of the first slit , wherein the second slit intersects the first slit at the notch such that the notch prevents the first and second slits from being in fluid communication.
Method for producing a component from a fiber composite material, comprising the steps: introducing a fiber impregnated with a matrix on the inner mold of a mold space formed between the inner mold and an outer mold ; introducing a separation membrane onto the fiber impregnated with the matrix in such a way that a cavity extending along the shell surface of the outer mold is formed between the outer mold and the separation membrane ; pressurizing the cavity with thermal oil at a pressure greater than ambient pressure in such a way that the thermal oil acts on the separation membrane with the pressure; heating the thermal oil above a glass transition temperature of the matrix; and cooling the thermal oil below the glass transition temperature of the matrix, wherein the pressure of the thermal oil acting on the separation membrane is kept substantially constant at least during cooling to below the glass transition temperature, wherein a substantially constant pressure means that the pressure does not change by more than ±5% during the cooling phase. introducing a fiber impregnated with a matrix on the inner mold of a mold space formed between the inner mold and an outer mold ; introducing a separation membrane onto the fiber impregnated with the matrix in such a way that a cavity extending along the shell surface of the outer mold is formed between the outer mold and the separation membrane ; pressurizing the cavity with thermal oil at a pressure greater than ambient pressure in such a way that the thermal oil acts on the separation membrane with the pressure; heating the thermal oil above a glass transition temperature of the matrix; and cooling the thermal oil below the glass transition temperature of the matrix, wherein the pressure of the thermal oil acting on the separation membrane is kept substantially constant at least during cooling to below the glass transition temperature, wherein a substantially constant pressure means that the pressure does not change by more than ±5% during the cooling phase.
Method for the purification of methane, wherein an impure methane is contacted with an active compound comprising a heterolytically cleavable bond between two atoms, each selected from the group consisting of nitrogen, phosphorus, sulphur and oxygen, wherein the active compound corresponds to formula (I) ALK-SO 2 -O-O-X (I) or formula (II) ALK-SO 2 -O-O-SO 2 -X (II) wherein ALK is a branched or unbranched alkyl group, especially a methyl, ethyl, propyl, butyl, isopropyl, isobutyl group, or a higher alkyl group, an X = hydrogen, zinc, aluminium, an alkali or alkaline earth metal, and wherein the impure methane is methane comprising higher alkane impurities.
A lace provided with a tubular lace body of elastic material, comprising: knobby portions repeatedly placed at intervals, whose diameter varies depending on the tension on the knobby portion in an axial direction, characterized in that: the elastic material is braided by rubber-like and less-elastic normal material. knobby portions repeatedly placed at intervals, whose diameter varies depending on the tension on the knobby portion in an axial direction, characterized in that: the elastic material is braided by rubber-like and less-elastic normal material.
A Group III nitride based light emitting diode , comprising: an n-type Group III nitride layer ; a Group III nitride based superlattice on the n-type Group III nitride layer , the superlattice having at least two periods of alternating layers of InxGa 1-X N and In Y Ga 1-Y N where 0 ≤ X < 1 and 0 ≤ Y < 1 and X is not equal to Y; a Group III nitride based active region comprising a plurality of InGaN quantum wells on the superlattice opposite the n-type Group III nitride layer ; and an undoped AlGaN layer directly on the active region and remote from the superlattice , wherein the Al composition of the undoped AlGaN layer is graded and wherein the undoped AlGaN layer has an Al composition of 10 to 30%. an n-type Group III nitride layer ; a Group III nitride based superlattice on the n-type Group III nitride layer , the superlattice having at least two periods of alternating layers of InxGa 1-X N and In Y Ga 1-Y N where 0 ≤ X < 1 and 0 ≤ Y < 1 and X is not equal to Y; a Group III nitride based active region comprising a plurality of InGaN quantum wells on the superlattice opposite the n-type Group III nitride layer ; and an undoped AlGaN layer directly on the active region and remote from the superlattice , wherein the Al composition of the undoped AlGaN layer is graded and wherein the undoped AlGaN layer has an Al composition of 10 to 30%.
A method for generating a feedback signal from a mobile station to a base station in a wireless communication system using a feedback channel supporting at least two modes, the method comprising: determining whether to generate a feedback signal for the feedback channel according to a first mode using a coherent modulation/demodulation scheme or a second mode using a non-coherent modulation/demodulation scheme, and generating the feedback signal according to the determined mode. determining whether to generate a feedback signal for the feedback channel according to a first mode using a coherent modulation/demodulation scheme or a second mode using a non-coherent modulation/demodulation scheme, and generating the feedback signal according to the determined mode.
A method of tracking targets in a fibre optic distributed acoustic sensing (DAS) network comprising: tracking targets at each of a plurality of tracker nodes of the DAS network, wherein each tracker node: receives measurement signals from one or more DAS sensors ; applies a tracking algorithm to said measurement signals to track any targets in a tracker zone corresponding to an area monitored by said one or more DAS sensors; and maintains, for each target, a tracking dataset of target properties for tracking that target; the method further comprising: identifying when a first target in a first tracker zone of a first tracker node (106-2) is approaching a second tracker zone of a second tracker node (106-3) and supplying from the first tracker node to the second tracker node a Target Descriptor for the first target wherein the Target Descriptor comprises at least some of the tracking dataset for the first target; and using the Target Descriptor at the second tracker node to track any entry of the first target into the second tracker zone. tracking targets at each of a plurality of tracker nodes of the DAS network, wherein each tracker node: receives measurement signals from one or more DAS sensors ; applies a tracking algorithm to said measurement signals to track any targets in a tracker zone corresponding to an area monitored by said one or more DAS sensors; and maintains, for each target, a tracking dataset of target properties for tracking that target; receives measurement signals from one or more DAS sensors ; applies a tracking algorithm to said measurement signals to track any targets in a tracker zone corresponding to an area monitored by said one or more DAS sensors; and maintains, for each target, a tracking dataset of target properties for tracking that target; the method further comprising: identifying when a first target in a first tracker zone of a first tracker node (106-2) is approaching a second tracker zone of a second tracker node (106-3) and supplying from the first tracker node to the second tracker node a Target Descriptor for the first target wherein the Target Descriptor comprises at least some of the tracking dataset for the first target; and using the Target Descriptor at the second tracker node to track any entry of the first target into the second tracker zone. identifying when a first target in a first tracker zone of a first tracker node (106-2) is approaching a second tracker zone of a second tracker node (106-3) and supplying from the first tracker node to the second tracker node a Target Descriptor for the first target wherein the Target Descriptor comprises at least some of the tracking dataset for the first target; and using the Target Descriptor at the second tracker node to track any entry of the first target into the second tracker zone.
A compression garment formed as a single fabric layer, including: a moisture absorbent material, composed of fibres having a hydrophilic core and a hydrophobic surface, forming at least predominantly an inner surface of the single fabric layer; and a wicking material, composed of fibres having a hydrophilic surface and low moisture absorption, forming at least predominantly an outer surface of the single fabric layer; wherein the single fabric layer is knitted from threads of at least the first and second materials. a moisture absorbent material, composed of fibres having a hydrophilic core and a hydrophobic surface, forming at least predominantly an inner surface of the single fabric layer; and a wicking material, composed of fibres having a hydrophilic surface and low moisture absorption, forming at least predominantly an outer surface of the single fabric layer; wherein the single fabric layer is knitted from threads of at least the first and second materials.
An anti-fire safety system for a transport vehicle having one or more storage tanks storing hydrogen (H 2 ), the anti-fire safety system being characterized in that it comprises at least: - a first hydrogen-releasing system which is configured, notably in case of a fire event on board of vehicle , to release outside the vehicle hydrogen (H 2 ) contained in at least one of the storage tanks ; and - a second release system which is arranged to intervene and bypass the first hydrogen release system under predetermined operative conditions, wherein the second release system is configured to transform by means of a chemical reaction, at least a part of bypassed hydrogen (H 2 ) flowing outward from at least one storage tank , into at least one different substance. - a first hydrogen-releasing system which is configured, notably in case of a fire event on board of vehicle , to release outside the vehicle hydrogen (H 2 ) contained in at least one of the storage tanks ; and - a second release system which is arranged to intervene and bypass the first hydrogen release system under predetermined operative conditions, wherein the second release system is configured to transform by means of a chemical reaction, at least a part of bypassed hydrogen (H 2 ) flowing outward from at least one storage tank , into at least one different substance.
A mobile device comprising: a capturing unit ; a display for displaying an image of a cleaning robot obtained from the capturing unit and receiving a touch input; and a controller for determining whether the mobile device has been moved between the displaying of the image of the cleaning robot and the receiving of the touch input; wherein if the mobile device has not been moved, the controller is configured to control the cleaning robot to move to a location that corresponds to the touch input, and if the mobile device has been moved, the controller is configured to determine the extent of moving of the mobile device to determine the location of the touch input on a map received from the cleaning robot , and control the cleaning robot to move to a location that corresponds to the touch input by outputting the map with added location information of the touch input to the cleaning robot or by transmitting a data signal about a moving distance and heading angle of the cleaning robot to the cleaning robot . a capturing unit ; a display for displaying an image of a cleaning robot obtained from the capturing unit and receiving a touch input; and a controller for determining whether the mobile device has been moved between the displaying of the image of the cleaning robot and the receiving of the touch input; wherein if the mobile device has not been moved, the controller is configured to control the cleaning robot to move to a location that corresponds to the touch input, and if the mobile device has been moved, the controller is configured to determine the extent of moving of the mobile device to determine the location of the touch input on a map received from the cleaning robot , and control the cleaning robot to move to a location that corresponds to the touch input by outputting the map with added location information of the touch input to the cleaning robot or by transmitting a data signal about a moving distance and heading angle of the cleaning robot to the cleaning robot .
A filter element , comprising: top and bottom end caps, the bottom end cap defining a central opening , a tubular ring of filter media extending between the top and bottom end caps, the tubular ring of filter media defining a central open volume , a bleed chamber defined proximate the bottom end cap , a snorkel in fluid communication with the bleed chamber and extending along the outside of the filter media with a vent opening closer to the top end cap than the bottom end cap , characterized in that the filter element comprises first and second annular seals proximate the bottom end cap , the bleed chamber defined at least in part between the first and second annular seals, with the seals serving to seal off the blead chamber from the filter fuel flow and to seal the bleed chamber around a standpipe when extending into the filter element .
A method of making a reinforcement for a composite component, the method comprising depositing an oxide coating onto a silicon carbide containing fiber, depositing a silicon-containing coating, the silicon-containing coating including silicon carbide, onto the oxide coating, and heating the coated fiber to a predetermined temperature between 800 and 1500 degrees Celsius to form a predetermined amount of a silicate in the silicon-containing coating at the interface of the oxide coating and the silicon-containing coating.
Electrical circuit (SES), comprising - an energy converter (EW), - an energy store (ES), - a first connection (A1) and a second connection (A2), wherein - the energy converter (EW) is electrically coupled to the first (A1) and the second (A2) connection, - the energy store (ES) is electrically coupled to the first (A1) and the second (A2) connection, - the energy converter (EW) is suitable and intended for charging the energy store (ES) at discrete time periods, - the energy converter (EW) comprises a solar cell (SW), and - the energy store (ES) comprises a solid-state accumulator (FKA), further comprising a varistor (V) that is connected in parallel with the energy store (ES) and in parallel with the energy converter (EW), and characterized in that the electrical circuit is configured in such a way as to provide a continuous output of energy at both connections of the solid-state accumulator. - an energy converter (EW), - an energy store (ES), - a first connection (A1) and a second connection (A2), - the energy converter (EW) is electrically coupled to the first (A1) and the second (A2) connection, - the energy store (ES) is electrically coupled to the first (A1) and the second (A2) connection, - the energy converter (EW) is suitable and intended for charging the energy store (ES) at discrete time periods, - the energy converter (EW) comprises a solar cell (SW), and - the energy store (ES) comprises a solid-state accumulator (FKA),
A method for remote assistance, the method comprising: determining a state of a machine deployed at a working site; adjusting a digital twin of the machine to be in the same state as the machine deployed at a working site; rendering the digital twin at a remote site using a remote rendering device to enable a remote person at the remote site to perform an operation on the digital twin; and mapping an effect of the operation rendered as visual assistance information directly onto the machine at the working site using a local rendering device , the local rendering device deployed at the working site in proximity to the machine . determining a state of a machine deployed at a working site; adjusting a digital twin of the machine to be in the same state as the machine deployed at a working site; rendering the digital twin at a remote site using a remote rendering device to enable a remote person at the remote site to perform an operation on the digital twin; and mapping an effect of the operation rendered as visual assistance information directly onto the machine at the working site using a local rendering device , the local rendering device deployed at the working site in proximity to the machine .