mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile terminal comprising: a case unit comprising a plurality of case parts defining an outer appearance; a waterproof member configured to waterproof a gap between the plurality of case parts and a display unit ; an inner space formed by coupling of the plurality of case parts with the waterproof member; a vent hole that is formed in the case unit and configured to balance an air pressure between an outside and the inner space; a sound output unit mounted in the inner space; an electronic component mounted in the inner space; at least one processor configured to control the sound output unit ; a resonance space (B2) provided in the inner space and configured to resonate sound that is output from the sound output unit ; and a sound hole provided at one side of the case unit and configured to output a first sound, wherein the sound output unit comprises: - a diaphragm positioned on one surface; - a voice coil positioned on a rear surface of the diaphragm; - a ring magnet positioned outside the voice coil, the ring magnet comprising a plurality of unit magnets spaced apart from a corner of the sound output unit ; - a frame configured to expose the diaphragm and to cover a lateral surface and a rear surface of the magnet and the voice coil ; and - a resonance hole formed at a corner of the sound output unit . a case unit comprising a plurality of case parts defining an outer appearance; a waterproof member configured to waterproof a gap between the plurality of case parts and a display unit ; an inner space formed by coupling of the plurality of case parts with the waterproof member; a vent hole that is formed in the case unit and configured to balance an air pressure between an outside and the inner space; a sound output unit mounted in the inner space; an electronic component mounted in the inner space; at least one processor configured to control the sound output unit ; a resonance space (B2) provided in the inner space and configured to resonate sound that is output from the sound output unit ; and a sound hole provided at one side of the case unit and configured to output a first sound, wherein the sound output unit comprises: - a diaphragm positioned on one surface; - a voice coil positioned on a rear surface of the diaphragm; - a ring magnet positioned outside the voice coil, the ring magnet comprising a plurality of unit magnets spaced apart from a corner of the sound output unit ; - a frame configured to expose the diaphragm and to cover a lateral surface and a rear surface of the magnet and the voice coil ; and - a resonance hole formed at a corner of the sound output unit . - a diaphragm positioned on one surface; - a voice coil positioned on a rear surface of the diaphragm; - a ring magnet positioned outside the voice coil, the ring magnet comprising a plurality of unit magnets spaced apart from a corner of the sound output unit ; - a frame configured to expose the diaphragm and to cover a lateral surface and a rear surface of the magnet and the voice coil ; and - a resonance hole formed at a corner of the sound output unit .
Method for producing a plastic tank, wherein at least one outer layer of the tank wall of the plastic tank is composed of a first material, wherein a reinforcing sheet , which is composed at least partially of the first material, is attached to an outer layer of the tank wall of the plastic tank in at least one region, wherein first of all the tank wall is prepared as a hot extrudate , characterized in that the reinforcing sheet is secured, in particular welded, on the extrudate outside a shaping tool , wherein outside the shaping tool , the reinforcing sheet is secured on the extrudate by means of an extendable ram , wherein the ram is pressed into the hot extrudate in a force- or travel-controlled manner in order to secure the reinforcing sheet on the hot extrudate outside the shaping tool , in that the extrudate is then introduced with the secured reinforcing sheet into the shaping tool , and is shaped in the shaping tool to form the tank wall of the plastic tank, whereby the reinforcing sheet is secured more strongly on the tank wall , in particular welded more strongly to the tank wall .
Device for the optical capture of fingerprints, comprising: - an illumination means designed to emit first light radiation having at least one first wavelength and second light radiation having at least one second wavelength different from the first; - an optical sensor sensitive to the light radiation at the first wavelength and at the second wavelength; - a control means for controlling the illumination means and the detection means, which is designed to sequentially control: - the illumination by the first light radiation and a first capture of a first image by the optical sensor; - the illumination by the second light radiation and a second capture of a second image by the optical sensor; the control means being designed to: - control, on the basis of a level of detection of the first light radiation by the optical sensor, at least one emission parameter of the second light radiation in order to optimize the quality of the second image; - process the second image in order to extract therefrom biometric characteristics representative of a fingerprint. - an illumination means designed to emit first light radiation having at least one first wavelength and second light radiation having at least one second wavelength different from the first; - an optical sensor sensitive to the light radiation at the first wavelength and at the second wavelength; - a control means for controlling the illumination means and the detection means, which is designed to sequentially control: - the illumination by the first light radiation and a first capture of a first image by the optical sensor; - the illumination by the second light radiation and a second capture of a second image by the optical sensor; the control means being designed to: - control, on the basis of a level of detection of the first light radiation by the optical sensor, at least one emission parameter of the second light radiation in order to optimize the quality of the second image; - process the second image in order to extract therefrom biometric characteristics representative of a fingerprint. - the illumination by the first light radiation and a first capture of a first image by the optical sensor; - the illumination by the second light radiation and a second capture of a second image by the optical sensor; the control means being designed to: - control, on the basis of a level of detection of the first light radiation by the optical sensor, at least one emission parameter of the second light radiation in order to optimize the quality of the second image; - process the second image in order to extract therefrom biometric characteristics representative of a fingerprint. - control, on the basis of a level of detection of the first light radiation by the optical sensor, at least one emission parameter of the second light radiation in order to optimize the quality of the second image; - process the second image in order to extract therefrom biometric characteristics representative of a fingerprint.
A refrigerant circuit , including a refrigerant compressor unit , a heat exchanger that emits heat and is arranged in the refrigerant circuit on the pressure side of the refrigerant compressor unit , a high-pressure conduit which connects a pressure connector of the refrigerant compressor unit with an input of the heat exchanger that emits heat an expansion unit and a cooling stage having at least one heat-absorbing heat exchanger , wherein the expansion unit comprises an expansion system having a subcooling unit for subcooling a mass flow of a refrigerant that is supplied to the expansion unit , having an expansion/compression unit including an expander stage and a compressor stage , having a branching point that splits off a subcooling mass flow (U) from a total mass flow (G) supplied to the expansion unit and that is connected to a supply conduit that guides the subcooling mass flow to an inlet of the subcooling unit , having an expansion member that is provided in the supply conduit and that expands the subcooling mass flow (U) to a subcooling pressure (PU), having a connection conduit that supplies the subcooling mass flow (U) exiting from the subcooling unit to the compression stage , which for its part compresses the subcooling mass flow (U) to a return high pressure (PR), characterised in that the expander stage and the compressor stage of the expansion/compression unit are coupled in a mechanically functional manner, in that the refrigerant circuit comprises a high-pressure return conduit , which connects a high-pressure outlet connector of the expansion unit with the high-pressure conduit , in that the return high pressure (PR) corresponds at least to a high pressure (PH1) of a compressor mass flow (V), to which the subcooling mass flow (U) is supplied from the high-pressure outlet connector via the high-pressure return conduit , and in that an electrically operated controller that detects an ambient temperature and/or a temperature of the mass flow of refrigerant that is supplied to the expansion unit and/or the expander stage , and in accordance with this temperature adjusts an inlet pressure of the expansion unit or the expansion/compression unit by controlling the subcooling mass flow (U) using the expansion member that is electrically controlled by the controller .
A process for preparing a polyolefin composition comprising bimodal or multimodal polyolefin in an extruder device comprising the steps of a) supplying a bimodal or multimodal polyolefin in form of a polyolefin powder having a mass-median-diameter D50 of the polyolefin particles in the range from 300 μm to 2500 μm to a mixing device, wherein D50 is determined by dry sieving analysis according to DIN 53477 (November 1992) using the method described in the description; b) supplying one or more additives to the mixing device; c) mixing the polyolefin powder and the additives at a temperature in the range from 10°C to 120°C without melting the polyolefin powder to form a mixture; d) transferring the mixture of polyolefin powder and additives from the mixing device into the extruder device; e) melting and homogenizing the mixture of polyolefin powder and additives within the extruder device to form a molten polyolefin composition; and f) pelletizing the molten polyolefin composition, wherein one of the additives is an organic peroxide. a) supplying a bimodal or multimodal polyolefin in form of a polyolefin powder having a mass-median-diameter D50 of the polyolefin particles in the range from 300 μm to 2500 μm to a mixing device, wherein D50 is determined by dry sieving analysis according to DIN 53477 (November 1992) using the method described in the description; b) supplying one or more additives to the mixing device; c) mixing the polyolefin powder and the additives at a temperature in the range from 10°C to 120°C without melting the polyolefin powder to form a mixture; d) transferring the mixture of polyolefin powder and additives from the mixing device into the extruder device; e) melting and homogenizing the mixture of polyolefin powder and additives within the extruder device to form a molten polyolefin composition; and f) pelletizing the molten polyolefin composition, wherein one of the additives is an organic peroxide.
Pressure-sensitive adhesive strip redetachable without residue or destruction by extensive stretching substantially in the bond plane, comprising a layer HK1 of pressure-sensitive adhesive, characterized in that at least one surface of the pressure-sensitive adhesive layer HK1 has one or more, preferably two or more, pressure-sensitively adhesive structural elements, which lead to a structured surface profile of the pressure-sensitive adhesive strip, where preferably the pressure-sensitive adhesive layer HK1 and the structural elements together constitute a single-layer construction where the structural elements independently of one another have a width of 500 to 5000 pm and the distances between adjacent structural elements independently of one another are 1000 to 25 000 pm. at least one surface of the pressure-sensitive adhesive layer HK1 has one or more, preferably two or more, pressure-sensitively adhesive structural elements, which lead to a structured surface profile of the pressure-sensitive adhesive strip, where preferably the pressure-sensitive adhesive layer HK1 and the structural elements together constitute a single-layer construction where the structural elements independently of one another have a width of 500 to 5000 pm and the distances between adjacent structural elements independently of one another are 1000 to 25 000 pm.
An apparatus for wireless communication, comprising: a first transceiver configured to transmit and receive signals in a first frequency band; a second transceiver configured to transmit and receive signals in a second frequency band; and a processing system coupled to the first transceiver and the second transceiver and configured to dynamically assign transmission operations or reception operations of a signal in the first frequency band to the second transceiver , characterised in that the processing system is configured to determine whether at least one of: the transmission operations and reception operations of the signals in the first frequency band are time-division duplexed, TDD; or transmission operations and reception operations of the signals in the second frequency band are time-division duplexed, TDD; and the processing system is configured to dynamically assign either the transmission operations or the reception operations of the signal in the first frequency band to the second transceiver based on the determination. a first transceiver configured to transmit and receive signals in a first frequency band; a second transceiver configured to transmit and receive signals in a second frequency band; and a processing system coupled to the first transceiver and the second transceiver and configured to dynamically assign transmission operations or reception operations of a signal in the first frequency band to the second transceiver , characterised in that the processing system is configured to determine whether at least one of: the transmission operations and reception operations of the signals in the first frequency band are time-division duplexed, TDD; or transmission operations and reception operations of the signals in the second frequency band are time-division duplexed, TDD; and the transmission operations and reception operations of the signals in the first frequency band are time-division duplexed, TDD; or transmission operations and reception operations of the signals in the second frequency band are time-division duplexed, TDD; and the processing system is configured to dynamically assign either the transmission operations or the reception operations of the signal in the first frequency band to the second transceiver based on the determination.
An aerosolisable formulation comprising: i. one or more aerosol-forming agents; and ii. a flavouring agent, wherein the flavouring agent is an extract obtained from an alcoholic beverage, and wherein the extract contains less than about 5% v/v ethanol. i. one or more aerosol-forming agents; and ii. a flavouring agent,
A method for preparing a resin composition for optical material by melt kneading 1) 90% to 99% by weight of polymethyl methacrylate; and 2) 1% to 10% by weight of polycarbonate, wherein the polymethyl methacrylate includes methyl acrylate in an amount of 1% to 5% by weight based on the total weight of the polymethyl methacrylate, the starting material polymethyl methacrylate has a glass transition temperature of 110°C or more and 117°C or less, the starting material polycarbonate has a glass transition temperature of 125°C or more and less than 135°C, the glass transition temperature difference between the starting material polymethyl methacrylate and the starting material polycarbonate is less than 20°C, and the glass transition temperature of the starting material polymethyl methacrylate is measured using a differential scanning calorimeter (DSC) manufactured by Mettler Toledo under conditions of temperature raising rate of 10°C/min. 1) 90% to 99% by weight of polymethyl methacrylate; and 2) 1% to 10% by weight of polycarbonate, wherein the polymethyl methacrylate includes methyl acrylate in an amount of 1% to 5% by weight based on the total weight of the polymethyl methacrylate, the starting material polymethyl methacrylate has a glass transition temperature of 110°C or more and 117°C or less, the starting material polycarbonate has a glass transition temperature of 125°C or more and less than 135°C, the glass transition temperature difference between the starting material polymethyl methacrylate and the starting material polycarbonate is less than 20°C, and the glass transition temperature of the starting material polymethyl methacrylate is measured using a differential scanning calorimeter (DSC) manufactured by Mettler Toledo under conditions of temperature raising rate of 10°C/min. wherein the polymethyl methacrylate includes methyl acrylate in an amount of 1% to 5% by weight based on the total weight of the polymethyl methacrylate, the starting material polymethyl methacrylate has a glass transition temperature of 110°C or more and 117°C or less, the starting material polycarbonate has a glass transition temperature of 125°C or more and less than 135°C, the glass transition temperature difference between the starting material polymethyl methacrylate and the starting material polycarbonate is less than 20°C, and the glass transition temperature of the starting material polymethyl methacrylate is measured using a differential scanning calorimeter (DSC) manufactured by Mettler Toledo under conditions of temperature raising rate of 10°C/min.
An electronic device comprising: a housing including a first surface and a second surface facing away from the first surface ; a display of which at least part of the display is disposed in the housing in a second surface direction; and a battery of which at least part of the battery is disposed in the housing in a first surface direction, wherein the housing comprises a battery mounting portion including a recess disposed in the first surface, and wherein the battery is attached to the battery mounting portion by an adhesive member , characterized in that the battery mounting portion is defined by a support rib , which includes at least one solvent input slot , wherein the recess is connected to the at least one solvent input slot , and wherein the recess is arranged to diffuse a solvent that is provided from the at least one solvent input slot through the recess to decrease an adhesive strength of the adhesive member . a housing including a first surface and a second surface facing away from the first surface ; a display of which at least part of the display is disposed in the housing in a second surface direction; and a battery of which at least part of the battery is disposed in the housing in a first surface direction, wherein the housing comprises a battery mounting portion including a recess disposed in the first surface, and wherein the battery is attached to the battery mounting portion by an adhesive member , characterized in that the battery mounting portion is defined by a support rib , which includes at least one solvent input slot , wherein the recess is connected to the at least one solvent input slot , and wherein the recess is arranged to diffuse a solvent that is provided from the at least one solvent input slot through the recess to decrease an adhesive strength of the adhesive member .
A method for providing a security service, comprising: in response to receiving, at a first controller, a first request to create a first service chain for an application in a network, obtaining configuration information associated with a security service from the first request; generating, based on the configuration information, a second request to create a sequence of security functions associated with the first service chain, wherein the sequence of security functions is user-oriented; sending the second request to a second controller so as to create the sequence of security functions in the network; and in response to receiving from the second controller an acknowledgement for the sequence of security functions, creating the first service chain based on the sequence of security functions; wherein creating the first service chain based on the sequence of security functions comprises: deploying, in a predetermined order, the sequence of security functions into the first service chain, the sequence of security functions including at least one of authentication and authorization functions. in response to receiving, at a first controller, a first request to create a first service chain for an application in a network, obtaining configuration information associated with a security service from the first request; generating, based on the configuration information, a second request to create a sequence of security functions associated with the first service chain, wherein the sequence of security functions is user-oriented; sending the second request to a second controller so as to create the sequence of security functions in the network; and in response to receiving from the second controller an acknowledgement for the sequence of security functions, creating the first service chain based on the sequence of security functions; wherein creating the first service chain based on the sequence of security functions comprises: deploying, in a predetermined order, the sequence of security functions into the first service chain, the sequence of security functions including at least one of authentication and authorization functions.