mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoplastic resin composition, comprising: • from 10 to 80 weight percent of a partially crystalline polyester component selected from the group consisting of terephthalate-derived polyesters, naphthalate derived polyesters, succinate-derived polyesters, and furanoate-derived polyesters; or combinations thereof; • from 1.5 to 40 weight percent of an amorphous high heat copolyester resin that is produced by polymerizing a monomer mixture comprising a mixture of spiroglycol, ethylene glycol and terephthalic acid and or an ester thereof (SPG PET) and having a glass transition temperature (T g ) of 85 to 130°C measured according to the method detailed in the description; and • from 0.01 to 5 weight percent of an antioxidant, mold release agent, stabilizer, or a combination thereof. • from 10 to 80 weight percent of a partially crystalline polyester component selected from the group consisting of terephthalate-derived polyesters, naphthalate derived polyesters, succinate-derived polyesters, and furanoate-derived polyesters; or combinations thereof; • from 1.5 to 40 weight percent of an amorphous high heat copolyester resin that is produced by polymerizing a monomer mixture comprising a mixture of spiroglycol, ethylene glycol and terephthalic acid and or an ester thereof (SPG PET) and having a glass transition temperature (T g ) of 85 to 130°C measured according to the method detailed in the description; and • from 0.01 to 5 weight percent of an antioxidant, mold release agent, stabilizer, or a combination thereof.
Device for packaging a product comprising: - a principle body including a receptacle comprising an interior space designed to contain the product and a neck projecting from an upper wall of the receptacle and having an orifice , and an expulsion device fixed to the neck , said expulsion device comprising an upper portion and a lower portion of the expulsion device , the upper and lower portions being separated from one another by a shoulder , the shoulder bearing on the end of the neck , the lower portion being located inside the orifice of the neck , - a cap designed to be positioned above the receptacle in a stable closed position, the cap having a housing for receiving an end of the upper portion of the expulsion device , and - a magnetic closure system comprising a first magnetic means borne by the cap and a second magnetic means borne by the principle body, such that the first magnetic means and the second magnetic means are positioned by magnetic cohesion relative to one another in the stable closed position of the cap , the cap in the stable closed position being retained on the principle body by the magnetic closure system, wherein the second magnetic means is located around the upper portion of the expulsion device , and wherein, in the stable closed position, the first magnetic means is located around the upper portion of the expulsion device and above the shoulder . - a principle body including a receptacle comprising an interior space designed to contain the product and a neck projecting from an upper wall of the receptacle and having an orifice , and an expulsion device fixed to the neck , said expulsion device comprising an upper portion and a lower portion of the expulsion device , the upper and lower portions being separated from one another by a shoulder , the shoulder bearing on the end of the neck , the lower portion being located inside the orifice of the neck , - a cap designed to be positioned above the receptacle in a stable closed position, the cap having a housing for receiving an end of the upper portion of the expulsion device , and - a magnetic closure system comprising a first magnetic means borne by the cap and a second magnetic means borne by the principle body, such that the first magnetic means and the second magnetic means are positioned by magnetic cohesion relative to one another in the stable closed position of the cap , the cap in the stable closed position being retained on the principle body by the magnetic closure system,
A method performed by an Internet Protocol Multimedia Subsystem, IMS, node , for handling a setup of a session between a first User Equipment, UE, and a second UE , in a communications network , the method comprising: receiving a request to setup a session from the first UE to the second UE , wherein the request indicates a privacy value which the first UE has requested to apply for the session, sending a request to a server node , which request comprises an identity of the first UE and the privacy value, and which request requests the server node to analyse a reputation of the first UE based on the identity of the first UE and the privacy value, receiving a response from the server node , which response indicates the analysed reputation of the first UE , and deciding how to handle the session setup and session privacy, based on the analysed reputation of the first UE . receiving a request to setup a session from the first UE to the second UE , wherein the request indicates a privacy value which the first UE has requested to apply for the session, sending a request to a server node , which request comprises an identity of the first UE and the privacy value, and which request requests the server node to analyse a reputation of the first UE based on the identity of the first UE and the privacy value, receiving a response from the server node , which response indicates the analysed reputation of the first UE , and deciding how to handle the session setup and session privacy, based on the analysed reputation of the first UE .
Thermally insulated component, having a friction-optimised surface of a track for a friction partner, wherein the surface has pores , characterised in that the pores have an entry rounding , the rise (A) of which, being a ratio of the depth (y) of the entry rounding to a length section (x) of the surface or parallel to the surface , has a value of more than 2.5 μm/mm and up to 5.5 μm/mm.
A method for operating a four-stroke dual-fuel or multi-fuel piston engine , the method comprising the steps of - transmitting a first control signal to a gas admission valve for opening the gas admission valve and introducing gaseous fuel into an intake duct and further into a cylinder of the engine , - transmitting a second control signal to a pilot fuel injector for opening the pilot fuel injector and introducing liquid pilot fuel into the cylinder for igniting mixture of intake air and the gaseous fuel introduced via the gas admission valve , - measuring pressure in the cylinder during combustion stroke at a predetermined crank angle, which is after presumed ignition of the fuel and before opening of exhaust valves , - comparing the measured pressure to a predetermined limit value , and - in case the measured pressure exceeds the predetermined limit value, disabling the first control signal , characterized in that in case the measured pressure exceeds the predetermined limit value, also the second control signal is disabled, the cylinder is monitored during the following combustion stroke for detecting possible combustion in the cylinder , and in case combustion is detected, at least the first control signal is kept disabled and an alarm is triggered . - transmitting a first control signal to a gas admission valve for opening the gas admission valve and introducing gaseous fuel into an intake duct and further into a cylinder of the engine , - transmitting a second control signal to a pilot fuel injector for opening the pilot fuel injector and introducing liquid pilot fuel into the cylinder for igniting mixture of intake air and the gaseous fuel introduced via the gas admission valve , - measuring pressure in the cylinder during combustion stroke at a predetermined crank angle, which is after presumed ignition of the fuel and before opening of exhaust valves , - comparing the measured pressure to a predetermined limit value , and - in case the measured pressure exceeds the predetermined limit value, disabling the first control signal ,
A method for regulating pressure in a pressure vessel of a vehicle, the pressure vessel being connected to a pressure source by a plurality of valves arranged in parallel, the method comprising: receiving a maximum pressure threshold value ; receiving a minimum pressure threshold value ; receiving a pressure signal indicating a pressure in the pressure vessel ; upon a value of the pressure signal dropping below the minimum pressure threshold value , opening at least one of the plurality of valves ; and upon a value of the pressure signal rising above the maximum pressure threshold value , closing at least one of the plurality of valves , the method being characterized by : after opening at least one of the plurality of valves , upon the pressure signal indicating that the pressure in the pressure vessel remains below the minimum pressure threshold value , opening at least a second of the plurality of valves , and, after closing at least one of the plurality of valves , upon the pressure signal indicating that the pressure in the pressure vessel remains above the maximum pressure threshold value , closing at least a second of the plurality of valves . receiving a maximum pressure threshold value ; receiving a minimum pressure threshold value ; receiving a pressure signal indicating a pressure in the pressure vessel ; upon a value of the pressure signal dropping below the minimum pressure threshold value , opening at least one of the plurality of valves ; and upon a value of the pressure signal rising above the maximum pressure threshold value , closing at least one of the plurality of valves , the method being characterized by : after opening at least one of the plurality of valves , upon the pressure signal indicating that the pressure in the pressure vessel remains below the minimum pressure threshold value , opening at least a second of the plurality of valves , and, after closing at least one of the plurality of valves , upon the pressure signal indicating that the pressure in the pressure vessel remains above the maximum pressure threshold value , closing at least a second of the plurality of valves . after opening at least one of the plurality of valves , upon the pressure signal indicating that the pressure in the pressure vessel remains below the minimum pressure threshold value , opening at least a second of the plurality of valves , and, after closing at least one of the plurality of valves , upon the pressure signal indicating that the pressure in the pressure vessel remains above the maximum pressure threshold value , closing at least a second of the plurality of valves .
Method for deicing a heat exchanger on the exterior air side in a motor vehicle air-conditioning system having a heat pump, by means of which both a cooling function and a heating function can be provided for the vehicle interior when required, in which a switch is made temporarily to a cooling mode during a heating mode if a predetermined icing level of the heat exchanger on the exterior air side is detected or estimated in order to bring about complete or partial thawing of the ice on the heat exchanger on the exterior air side, wherein the temperature of the air impinging on the heat exchanger on the exterior air side is increased during the deicing process to maintain the heating of the vehicle interior, characterized in that the increase in the temperature of the air impinging on the heat exchanger on the exterior air side is achieved by simultaneously closing a radiator grille shutter during the deicing process and operating a fan associated with this heat exchanger and arranged downstream of the radiator grille shutter . in which a switch is made temporarily to a cooling mode during a heating mode if a predetermined icing level of the heat exchanger on the exterior air side is detected or estimated in order to bring about complete or partial thawing of the ice on the heat exchanger on the exterior air side, wherein the temperature of the air impinging on the heat exchanger on the exterior air side is increased during the deicing process to maintain the heating of the vehicle interior, characterized in that the increase in the temperature of the air impinging on the heat exchanger on the exterior air side is achieved by simultaneously closing a radiator grille shutter during the deicing process and operating a fan associated with this heat exchanger and arranged downstream of the radiator grille shutter .
A portable terminal, comprising: a communication module ; an input unit ; a camera ; a display unit ; a global positioning system (GPS) receiver ; a geomagnetic sensor ; an acceleration sensor ; a storage including a POI database configured to store POI information comprising location information and related image information of particular POIs; and a processor with a posture estimator and a pedestrian dead reckoning, PDR, determiner configured to execute an AR application including driving the camera , the acceleration sensor and the geomagnetic sensor , display an image input from the camera on a screen of the display unit as a preview image, obtain location information from the GPS receiver , collect and display information of point of interest, POI, in the preview image based on the current location information from the storage or via the communication module , receive a user input to select a displayed POI via the input unit , determine and display a distance of an actual path of the user from a location of the portable terminal to a location of the selected POI, rather than a straight-line distance, and an associated travel time based on the location information, the collected POI information and a speed or average speed of the user, wherein the travel time and distance of the actual path are displayed as an AR graphical object overlaid on the preview image. a communication module ; an input unit ; a camera ; a display unit ; a global positioning system (GPS) receiver ; a geomagnetic sensor ; an acceleration sensor ; a storage including a POI database configured to store POI information comprising location information and related image information of particular POIs; and a processor with a posture estimator and a pedestrian dead reckoning, PDR, determiner configured to execute an AR application including driving the camera , the acceleration sensor and the geomagnetic sensor , display an image input from the camera on a screen of the display unit as a preview image, obtain location information from the GPS receiver , collect and display information of point of interest, POI, in the preview image based on the current location information from the storage or via the communication module , receive a user input to select a displayed POI via the input unit , determine and display a distance of an actual path of the user from a location of the portable terminal to a location of the selected POI, rather than a straight-line distance, and an associated travel time based on the location information, the collected POI information and a speed or average speed of the user, wherein the travel time and distance of the actual path are displayed as an AR graphical object overlaid on the preview image.
A scraper for a conveyor belt , having - a system carrier with at least one scraper module , - wherein the scraper module has a base element arranged on the system carrier and a scraper element for abutting against the conveyor belt , - wherein the scraper element is rotatably attached with a rotational coupling about a rotational axis with respect to the base element , wherein the rotational coupling is configured such that, - in a rotational position of the scraper element within a fixed angular range , the scraper element is firmly coupled to the base element in the direction of the rotational axis , - and in a rotational position of the scraper element within a release angular range , the scraper element can be detached from the base element in the direction of the rotational axis . - a system carrier with at least one scraper module , - wherein the scraper module has a base element arranged on the system carrier and a scraper element for abutting against the conveyor belt , - wherein the scraper element is rotatably attached with a rotational coupling about a rotational axis with respect to the base element , wherein the rotational coupling is configured such that, - in a rotational position of the scraper element within a fixed angular range , the scraper element is firmly coupled to the base element in the direction of the rotational axis , - and in a rotational position of the scraper element within a release angular range , the scraper element can be detached from the base element in the direction of the rotational axis .
An asset tracking system for tracking an asset , wherein the asset is a medical device, the system comprising: a backend system ; an asset tracker device configured to: be paired with the asset ; record one or more readings from one or more sensors of the asset tracker device , to detect a magnetic field or vibration from the asset ; determine an operational state of the asset based on the one or more sensor readings; perform one or more geolocation position scans to obtain a geolocation position fix, wherein the geolocation position scans are performed during a time window when the asset is in an operational state such that it does not deliver a therapy; communicate the one or more sensor readings and the geolocation position fix to the backend system over a cellular network during the time window. a backend system ; an asset tracker device configured to: be paired with the asset ; record one or more readings from one or more sensors of the asset tracker device , to detect a magnetic field or vibration from the asset ; determine an operational state of the asset based on the one or more sensor readings; perform one or more geolocation position scans to obtain a geolocation position fix, wherein the geolocation position scans are performed during a time window when the asset is in an operational state such that it does not deliver a therapy; communicate the one or more sensor readings and the geolocation position fix to the backend system over a cellular network during the time window. be paired with the asset ; record one or more readings from one or more sensors of the asset tracker device , to detect a magnetic field or vibration from the asset ; determine an operational state of the asset based on the one or more sensor readings; perform one or more geolocation position scans to obtain a geolocation position fix, wherein the geolocation position scans are performed during a time window when the asset is in an operational state such that it does not deliver a therapy; communicate the one or more sensor readings and the geolocation position fix to the backend system over a cellular network during the time window.
An optical laminate comprising an optical film; and a pressure-sensitive adhesive layer formed on one side of the optical film and including a cross-linked product of a cross-linkable composition, the cross-linkable composition comprising an acrylic polymer; an ionic compound having an alkali metal cation; and a compound of Formula 1 below, and having a curing rate of 30% or more according to Equation 1 below: wherein, Ri to R 4 are each independently a hydrogen atom or an alkyl group: Curing rate = B / A × 100 wherein, A is a mass (unit: g) before immersing the cross-linkable composition, in which a cross-linking agent of the acrylic polymer is blended, in an amount of 1 part by weight or less relative to 100 parts by weight of the acrylic polymer, to the cross-linkable composition comprising the ionic compound in a ratio of 3 parts by weight or more relative to 100 parts by weight of the acrylic polymer, or a cross-linked product of the composition in ethyl acetate, and B is a dry mass (unit: g) of insoluble contents recovered after immersing the cross-linkable composition or the cross-linked product of the composition in ethyl acetate at room temperature for 24 hours, where the insoluble contents are components sieved by a sieve of 200 meshes; wherein the cross-linkable composition further comprising an epoxy cross-linking agent or an aziridine cross-linking agent; wherein the acrylic polymer comprises a polymerized unit of an alkyl (meth)acrylate monomer and a polymerized unit of a carboxyl group-containing monomer; wherein the optical film comprises a polyvinyl alcohol polarizer comprising a potassium component and a zinc component. the cross-linkable composition comprising an acrylic polymer; an ionic compound having an alkali metal cation; and a compound of Formula 1 below, and having a curing rate of 30% or more according to Equation 1 below: wherein, Ri to R 4 are each independently a hydrogen atom or an alkyl group: Curing rate = B / A × 100 wherein, A is a mass (unit: g) before immersing the cross-linkable composition, in which a cross-linking agent of the acrylic polymer is blended, in an amount of 1 part by weight or less relative to 100 parts by weight of the acrylic polymer, to the cross-linkable composition comprising the ionic compound in a ratio of 3 parts by weight or more relative to 100 parts by weight of the acrylic polymer, or a cross-linked product of the composition in ethyl acetate, and B is a dry mass (unit: g) of insoluble contents recovered after immersing the cross-linkable composition or the cross-linked product of the composition in ethyl acetate at room temperature for 24 hours, where the insoluble contents are components sieved by a sieve of 200 meshes; wherein the cross-linkable composition further comprising an epoxy cross-linking agent or an aziridine cross-linking agent; wherein the acrylic polymer comprises a polymerized unit of an alkyl (meth)acrylate monomer and a polymerized unit of a carboxyl group-containing monomer; wherein the optical film comprises a polyvinyl alcohol polarizer comprising a potassium component and a zinc component.
A rigid fluid container comprising: two or more matched pairs of recesses in a body of the container , each recess in a matched pair oriented on opposing sides of the container , the recesses configured to interface with hardware to physically manipulate the container ; two or more stiffening ribs , each stiffening rib extending between two of the recesses in the body of the container ; and characterised by comprising two input/output assemblies recessed into the body of the container, each configured to selectively act as an input for fluid into the container , an output of fluid from the container , and a vent for pressure equalization within the container to atmospheric pressure. two or more matched pairs of recesses in a body of the container , each recess in a matched pair oriented on opposing sides of the container , the recesses configured to interface with hardware to physically manipulate the container ; two or more stiffening ribs , each stiffening rib extending between two of the recesses in the body of the container ; and characterised by comprising two input/output assemblies recessed into the body of the container, each configured to selectively act as an input for fluid into the container , an output of fluid from the container , and a vent for pressure equalization within the container to atmospheric pressure.