mhurhangee/patent-ind-claim-en huggingface dataset:
A pump casing with a polyfluoroalkoxy (PFA) liner, the pump casing with PFA liner comprising a suction casing and a volute casing which are formed separately, both of a suction PFA liner of the suction casing and a volute PFA liner of the volute casing being formed by injection molding; the pump casing is characterized in that : the suction casing and the volute casing being formed separately by injection molding so as to eliminates a tensile stress between the suction PFA liner and the volute PFA liner and reduces a defect rate of manufacturing a liner of a large single pump casing by injection molding ; the suction casing comprises a suction flange , a shaft support, a suction channel and the suction PFA liner , the suction flange , the shaft support and the suction channel are integrally formed; the volute casing comprises a volute channel , a discharge channel , a discharge flange and the volute PFA liner ; and the suction casing is assembled to the volute casing with a metal mounting surface of the suction casing and a metal mounting surface of the volute casing connected to each other so as to form the pump casing with PFA liner, the shaft support which is integrally formed with the suction flange and the suction channel so as to increase stiffness, and a thrust ring seat is formed at a connecting area of the suction casing and the volute casing . the suction casing and the volute casing being formed separately by injection molding so as to eliminates a tensile stress between the suction PFA liner and the volute PFA liner and reduces a defect rate of manufacturing a liner of a large single pump casing by injection molding ; the suction casing comprises a suction flange , a shaft support, a suction channel and the suction PFA liner , the suction flange , the shaft support and the suction channel are integrally formed; the volute casing comprises a volute channel , a discharge channel , a discharge flange and the volute PFA liner ; and the suction casing is assembled to the volute casing with a metal mounting surface of the suction casing and a metal mounting surface of the volute casing connected to each other so as to form the pump casing with PFA liner, the shaft support which is integrally formed with the suction flange and the suction channel so as to increase stiffness, and a thrust ring seat is formed at a connecting area of the suction casing and the volute casing .
A verification application arranged to interact with other applications on an electronic device , the electronic device comprising a processor , a memory and an operating system configured to control operation of the verification application and the other applications on the processor using arbitrary memory locations, where the other applications are enabled to call the verification application to securely determine authenticity of a user of the electronic device , wherein the verification application is further arranged to: receive verification data for secure determination of authenticity of the user; provide, upon a call from any of the other applications and a match between the verification data and a verification reference, a trust token to the calling application, wherein the verification data comprises a biometric sample and the verification reference comprises a biometric reference, and pair with at least one of the other applications , wherein the provision of the trust token is only provided when the verification application and the one of the other applications providing a call to the verification application are properly paired. receive verification data for secure determination of authenticity of the user; provide, upon a call from any of the other applications and a match between the verification data and a verification reference, a trust token to the calling application, wherein the verification data comprises a biometric sample and the verification reference comprises a biometric reference, and pair with at least one of the other applications , wherein the provision of the trust token is only provided when the verification application and the one of the other applications providing a call to the verification application are properly paired.
A device configured to bind authentication-related metadata with hardware intrinsic properties, the device having associated device enrollment parameters and associated authentication-related metadata, and comprising a) a hardware root of trust ; and b) a processor connected to the hardware root of trust, the processor configured to: i) combine device enrollment parameters associated with the device with authentication-related metadata associated with the device to produce a binding value; ii) convey the binding value to the hardware root of trust; iii) receive an output value from the hardware root of trust, wherein the output value generated by the hardware root of trust is characteristic of the hardware intrinsic properties of the hardware root of trust and of the binding value; and iv) create a proof token as a function of non-sensitive metadata and the output value generated at the hardware root of trust output, wherein the proof token is for use by a verifier to validate the non-sensitive metadata. a) a hardware root of trust ; and b) a processor connected to the hardware root of trust, the processor configured to: i) combine device enrollment parameters associated with the device with authentication-related metadata associated with the device to produce a binding value; ii) convey the binding value to the hardware root of trust; iii) receive an output value from the hardware root of trust, wherein the output value generated by the hardware root of trust is characteristic of the hardware intrinsic properties of the hardware root of trust and of the binding value; and iv) create a proof token as a function of non-sensitive metadata and the output value generated at the hardware root of trust output, wherein the proof token is for use by a verifier to validate the non-sensitive metadata. i) combine device enrollment parameters associated with the device with authentication-related metadata associated with the device to produce a binding value; ii) convey the binding value to the hardware root of trust; iii) receive an output value from the hardware root of trust, wherein the output value generated by the hardware root of trust is characteristic of the hardware intrinsic properties of the hardware root of trust and of the binding value; and iv) create a proof token as a function of non-sensitive metadata and the output value generated at the hardware root of trust output, wherein the proof token is for use by a verifier to validate the non-sensitive metadata.
Method for providing an aerosol-generating device for use with a shape-transformable aerosol-forming substrate , the method comprising the steps of: - providing an aerosol-generating device comprising a device housing comprising a moulding cavity, the moulding cavity at least partially corresponding to a moulding space between a first mould half and a second mould half of a mould, the first mould half and the second mould half being internal surfaces of the device housing; - providing a flat aerosol-forming substrate adapted to change shape when pressed into the moulding cavity and being transformed into a non-flat aerosol-forming substrate having a shape corresponding to the non-flat moulding space in the mould upon closing of the mould. - providing an aerosol-generating device comprising a device housing comprising a moulding cavity, the moulding cavity at least partially corresponding to a moulding space between a first mould half and a second mould half of a mould, the first mould half and the second mould half being internal surfaces of the device housing; - providing a flat aerosol-forming substrate adapted to change shape when pressed into the moulding cavity and being transformed into a non-flat aerosol-forming substrate having a shape corresponding to the non-flat moulding space in the mould upon closing of the mould.
An apparatus comprising: a pipe section for process flow; a coil for generating a magnetic field across the pipe section; a current source for energizing the coil to generate the magnetic field, wherein the current source is arranged to energize the coil at a plurality of different pulse frequencies and duty cycles, and the plurality of different pulse frequencies includes at least three pulse frequencies spaced so that their harmonics do not overlap so that repeated harmonic sampling of a noise signal is avoided and bias from the noise signal is reduced; an electrode for sensing an electromotive force induced across the process flow by the magnetic field; and a processor for calculating a function of the electromotive force at the plurality of different pulse frequencies, and for generating a flow output based on the function. a pipe section for process flow; a coil for generating a magnetic field across the pipe section; a current source for energizing the coil to generate the magnetic field, wherein the current source is arranged to energize the coil at a plurality of different pulse frequencies and duty cycles, and the plurality of different pulse frequencies includes at least three pulse frequencies spaced so that their harmonics do not overlap so that repeated harmonic sampling of a noise signal is avoided and bias from the noise signal is reduced; an electrode for sensing an electromotive force induced across the process flow by the magnetic field; and a processor for calculating a function of the electromotive force at the plurality of different pulse frequencies, and for generating a flow output based on the function.
Spherical, highly crystalline silk fibroin (SF) particles obtainable by a process comprising the steps of: a) lyophilizing 3 to 5 wt% regenerated silk fibroin solution (RSF) prepared in water at a temperature in the range of -45 to -60°C for period in the range of 6 - 8h to obtain silk fibroin powder; b) dissolving silk fibroin powder as obtained in step (a) in hexafluoroisopropanol (HFIP) to obtain 5-7wt% SF solution; c) coagulating the SF solution as obtained in step (b) in a methanol bath to obtain silk fibroin (SF) particles; wherein the highly crystalline silk fibroin particles have crystallinity index in the range of 1.3 - 1.5 and sphericity index in the range of 0.029 - to 0.01, wherein the crystallinity index is calculated by the ratio of areas of crystalline beta sheet peaks to areas of random coil peaks as obtained after peak deconvolution. a) lyophilizing 3 to 5 wt% regenerated silk fibroin solution (RSF) prepared in water at a temperature in the range of -45 to -60°C for period in the range of 6 - 8h to obtain silk fibroin powder; b) dissolving silk fibroin powder as obtained in step (a) in hexafluoroisopropanol (HFIP) to obtain 5-7wt% SF solution; c) coagulating the SF solution as obtained in step (b) in a methanol bath to obtain silk fibroin (SF) particles;
Radio resource manager configured to assign communication resources of at least one base station to user entities depending on a media presentation description relating to a media content transferred within a data traffic from a server to a client with one of the server and the client operating at one of the user entities , wherein the radio resource manager is further configured to inspect the media presentation description so as to identify within the media presentation description a version of the media content , which has a lower minimum bandwidth associated therewith than a version of the media content , currently downloaded by the client via the at least one base station, and perform the assignment of the communication resources to the user entities dependent on as to whether such a version having a lower minimum bandwidth associated therewith is present or absent, such that the communication resources assigned to the one user entity are more likely - related to equal probability among possible states of remaining parameters depending on which the resource manager assigns the communications resources - to be lower in case of the version having a lower minimum bandwidth associated therewith being present, than compared to the case of the version having a lower minimum bandwidth associated therewith being absent.
A method for electromagnetic interference (EMI) filtering, the method comprising: installing an EMI filter network (120; 300) comprising a plurality of passive circuit elements (L, C) in an airplane between a power source and a dynamic load defined by a plurality of loads coupled to the EMI filter network (120; 300), wherein the loads are motors or actuators; configuring the EMI filter network (120; 300) to provide a first filter value to the dynamic load , wherein the EMI filter network (120; 300) comprises a plurality of switches (Sw) configured to determine how the passive circuit elements of the plurality of passive circuit elements (L, C) are electrically interconnected, and wherein configuring the EMI filter network (120; 300) comprises selecting respective settings of the plurality of switches (Sw); and upon identifying a change in an operational state of the dynamic load , when different motors or combinations of motors become operational, reconfiguring the EMI filter network (120; 300) to provide a second filter value to the dynamic load by changing the settings of at least one of the plurality of switches (Sw), wherein the plurality of passive circuit elements (L, C) comprises at least one inductor (L) and at least one capacitor (C), wherein at least one of the plurality of switches (Sw) is disposed between the inductor (L) and capacitor (C) to electrically connect and disconnect the capacitor (C) from the inductor (L). installing an EMI filter network (120; 300) comprising a plurality of passive circuit elements (L, C) in an airplane between a power source and a dynamic load defined by a plurality of loads coupled to the EMI filter network (120; 300), wherein the loads are motors or actuators; configuring the EMI filter network (120; 300) to provide a first filter value to the dynamic load , wherein the EMI filter network (120; 300) comprises a plurality of switches (Sw) configured to determine how the passive circuit elements of the plurality of passive circuit elements (L, C) are electrically interconnected, and wherein configuring the EMI filter network (120; 300) comprises selecting respective settings of the plurality of switches (Sw); and upon identifying a change in an operational state of the dynamic load , when different motors or combinations of motors become operational, reconfiguring the EMI filter network (120; 300) to provide a second filter value to the dynamic load by changing the settings of at least one of the plurality of switches (Sw), wherein the plurality of passive circuit elements (L, C) comprises at least one inductor (L) and at least one capacitor (C), wherein at least one of the plurality of switches (Sw) is disposed between the inductor (L) and capacitor (C) to electrically connect and disconnect the capacitor (C) from the inductor (L).
A method , at a mobile device , for providing a warning message in a geographic area , comprising: receiving a warning message broadcast from a base station in a wireless network, the warning message including a message identifier and an interior or exterior cell indication, an interior cell being a cell which is completely inside the geographic area and an exterior cell a cell which is partly inside the geographic area ; and providing a content of the warning message to a user based on a detection of the interior cell indication. receiving a warning message broadcast from a base station in a wireless network, the warning message including a message identifier and an interior or exterior cell indication, an interior cell being a cell which is completely inside the geographic area and an exterior cell a cell which is partly inside the geographic area ; and providing a content of the warning message to a user based on a detection of the interior cell indication.
An air conditioner comprising: a compressor configured to compress a refrigerant; an outdoor heat exchanger ; an indoor heat exchanger ; a four-way valve configured to selectively supply the refrigerant compressed by the compressor to the outdoor or indoor heat exchanger ; a water tank configured to generate hot water by exchanging heat with a refrigerant; wherein the water tank is connected to the compressor , the indoor heat exchanger and the outdoor heat exchanger ; a first adjustment valve configured to selectively supply the refrigerant compressed by the compressor to the water tank ; a second adjustment valve configured to selectively supply the refrigerant compressed by the compressor to the four-way valve ; a first sensor configured to detect temperature of a refrigerant discharged from the compressor ; a second sensor configured to detect temperature of a refrigerant supplied to the water tank ; and a controller configured to determine an abnormality based on temperature values respectively input from the first sensor and the second sensor , characterized in that the abnormality to be determined is an abnormality in the first adjustment valve and the second adjustment valve , and when the temperature value input from the first sensor is greater than a first reference temperature value, the controller configured to stop the compressor . a compressor configured to compress a refrigerant; an outdoor heat exchanger ; an indoor heat exchanger ; a four-way valve configured to selectively supply the refrigerant compressed by the compressor to the outdoor or indoor heat exchanger ; a water tank configured to generate hot water by exchanging heat with a refrigerant; wherein the water tank is connected to the compressor , the indoor heat exchanger and the outdoor heat exchanger ; a first adjustment valve configured to selectively supply the refrigerant compressed by the compressor to the water tank ; a second adjustment valve configured to selectively supply the refrigerant compressed by the compressor to the four-way valve ; a first sensor configured to detect temperature of a refrigerant discharged from the compressor ; a second sensor configured to detect temperature of a refrigerant supplied to the water tank ; and a controller configured to determine an abnormality based on temperature values respectively input from the first sensor and the second sensor , characterized in that the abnormality to be determined is an abnormality in the first adjustment valve and the second adjustment valve , and when the temperature value input from the first sensor is greater than a first reference temperature value, the controller configured to stop the compressor .
Apparatus designed to determine and/or monitor the temperature (T) of a medium , comprising at least a temperature sensor and a measuring element , wherein at least the temperature sensor and the measuring element are arranged in a single sensor head , and wherein at least a unit is arranged at least partially inside the sensor head , said unit comprising a material with anisotropic thermal conductivity, wherein the unit is designed to specifically influence the heat flow within the sensor head, characterized in that the unit is designed to guarantee that at least the temperature sensor and the measuring element are essentially in thermal equilibrium at all times, and that the spread of heat within the sensor head is homogeneous irrespective of the thermal environment of the apparatus.
Artificial snow at normal temperature for skiing, composed of grains of artificial snow at normal temperature that include magnetic solid grains , wherein residual magnetism in the solid grains is within a range of 1,000 - 9,000 Gs, and grain size of the solid grains is within a range of 1-3 mm, wherein the magnetic material in the solid grains is a ferrite magnetic material or an Nd-Fe-B rare earth permanent magnetic material, wherein a macromolecular material layer or a metal coating is bonded to the surfaces of the solid grains , wherein the macromolecular material is a plastic material, a paint material, or a polymer based composite material, wherein the macromolecular material is polyethylene, polypropylene, polyvinyl chloride, or polyurethane.
Coolant, comprising (A) at least one glycol (B) water (C) at least one azole derivative (D) at least one ester of orthosilicic acid or alkoxy alkylsilane (E) at least one tertiary amine bearing at least one 2-hydroxyethyl- or 2-hydroxypropyl-group (F) at least one monocarboxylic acid (G) optionally at least one silicophosphonate (H) optionally at least one further coolant additive wherein - the molar ratio between tertiary amine (E) and monocarboxylic acid (F) is from 1 : 0.1 to 1 : 0.6 - components (C) to (H) are present in amounts so that the coolant exhibits an electrical conductivity of less than 50, preferably less than 45 μS/cm. (A) at least one glycol (B) water (C) at least one azole derivative (D) at least one ester of orthosilicic acid or alkoxy alkylsilane (E) at least one tertiary amine bearing at least one 2-hydroxyethyl- or 2-hydroxypropyl-group (F) at least one monocarboxylic acid (G) optionally at least one silicophosphonate (H) optionally at least one further coolant additive - the molar ratio between tertiary amine (E) and monocarboxylic acid (F) is from 1 : 0.1 to 1 : 0.6 - components (C) to (H) are present in amounts so that the coolant exhibits an electrical conductivity of less than 50, preferably less than 45 μS/cm.
A composition, preferably a cosmetic composition, in the form of an oil-in-water emulsion, comprising: - a dispersed fatty phase comprising: . at least one triglyceride made of glycerol and fatty acids, preferably at least one triglyceride made of glycerol and fatty acids with saturated or unsaturated, linear or branched, chains comprising from 8 to 36 carbon atoms, and . at least one hydrophobic polymer selected from the ester-terminated poly(ester-amide)s; wherein said dispersed fatty phase comprises at least 10% by weight of triglyceride(s) in relation to the total weight of said dispersed fatty phase; and - a continuous aqueous phase comprising at least one hydrophilic gelling agent selected from the group consisting of the polymers comprising at least one monomer being acrylamido-2-methylpropanesulfonic acid, the optionally modified carboxyvinyl polymers, and mixtures thereof. - a dispersed fatty phase comprising: . at least one triglyceride made of glycerol and fatty acids, preferably at least one triglyceride made of glycerol and fatty acids with saturated or unsaturated, linear or branched, chains comprising from 8 to 36 carbon atoms, and . at least one hydrophobic polymer selected from the ester-terminated poly(ester-amide)s; wherein said dispersed fatty phase comprises at least 10% by weight of triglyceride(s) in relation to the total weight of said dispersed fatty phase; and . at least one triglyceride made of glycerol and fatty acids, preferably at least one triglyceride made of glycerol and fatty acids with saturated or unsaturated, linear or branched, chains comprising from 8 to 36 carbon atoms, and . at least one hydrophobic polymer selected from the ester-terminated poly(ester-amide)s; - a continuous aqueous phase comprising at least one hydrophilic gelling agent selected from the group consisting of the polymers comprising at least one monomer being acrylamido-2-methylpropanesulfonic acid, the optionally modified carboxyvinyl polymers, and mixtures thereof.