mhurhangee/patent-ind-claim-en huggingface dataset:
A nitric oxide administration device, comprising: a flow path including an intake port and a supply port , a discharge unit which is arranged in the flow path and which generates NO from air introduced via the intake port , generated NO being supplied via the supply port , a first NO 2 removal unit which is arranged downstream of the discharge unit and which removes NO 2 , an NO concentration measurement unit which is arranged downstream of the discharge unit or which is arranged in a flow path for reflux from downstream of the first NO 2 removal unit to upstream of the first NO 2 removal unit , and a concentration estimation unit which is configured to estimate an NO concentration and an NO 2 concentration in a predetermined position based on an oxygen concentration in the atmosphere or the flow path , an NO concentration measured by the NO concentration measurement unit, and a residence time of gas containing NO in the flow path between the first NO 2 removal unit and the predetermined position, wherein the nitric oxide administration device further comprises a cannula which is directly or indirectly connected to the supply port , wherein the predetermined position is an outlet of the cannula, wherein the first NO 2 removal unit and/or a second NO 2 removal unit is arranged between the supply port and the outlet of the cannula, and the concentration estimation unit is configured to estimate that an NO 2 concentration at the first NO 2 removal unit and/or the second NO 2 removal unit is zero. a flow path including an intake port and a supply port , a discharge unit which is arranged in the flow path and which generates NO from air introduced via the intake port , generated NO being supplied via the supply port , a first NO 2 removal unit which is arranged downstream of the discharge unit and which removes NO 2 , an NO concentration measurement unit which is arranged downstream of the discharge unit or which is arranged in a flow path for reflux from downstream of the first NO 2 removal unit to upstream of the first NO 2 removal unit , and a concentration estimation unit which is configured to estimate an NO concentration and an NO 2 concentration in a predetermined position based on an oxygen concentration in the atmosphere or the flow path , an NO concentration measured by the NO concentration measurement unit, and a residence time of gas containing NO in the flow path between the first NO 2 removal unit and the predetermined position, wherein the nitric oxide administration device further comprises a cannula which is directly or indirectly connected to the supply port , wherein the predetermined position is an outlet of the cannula, wherein the first NO 2 removal unit and/or a second NO 2 removal unit is arranged between the supply port and the outlet of the cannula, and the concentration estimation unit is configured to estimate that an NO 2 concentration at the first NO 2 removal unit and/or the second NO 2 removal unit is zero.
A method of controlling a fluid level around a transmission gear of a vehicle including the steps of (a) providing a set of predetermined operating conditions, each predetermined operating condition having a corresponding predetermined fluid level requirement, (b) operating the vehicle at an actual operating condition, (c) determining a predetermined operating condition equivalent to the actual operating condition, (d) arranging the fluid level around the transmission gear to be equivalent to the predetermined fluid level requirement corresponding to said predetermined operating condition, characterised in that a first predetermined operating condition of said set of predetermined operating conditions being at least defined by a torque transmitted in a direction from the engine through the transmission gear to the wheels of the vehicle, a second predetermined operating condition of said set of predetermined operating conditions being at least defined by a torque transmitted in a direction from the wheels of the vehicle through the transmission gear to the engine, said first predetermined operating condition having a first predetermined fluid level requirement (A), said second predetermined operating condition having a second predetermined fluid level requirement (B) which is different from said first predetermined fluid level requirement (A). (a) providing a set of predetermined operating conditions, each predetermined operating condition having a corresponding predetermined fluid level requirement, (b) operating the vehicle at an actual operating condition, (c) determining a predetermined operating condition equivalent to the actual operating condition, (d) arranging the fluid level around the transmission gear to be equivalent to the predetermined fluid level requirement corresponding to said predetermined operating condition,
A method comprising issuing a notification for self-organizing network coordination, which notifies an action of at least one self-organizing network function at a lower management level, from the lower management level of a self-organizing network to a higher management level of the self-organizing network; wherein the notification comprises a self-organizing network coordination specific request, in which the notified action is an intended action intended to be performed by the at least one self-organizing network function at the lower management level, for which a self-organizing network coordination decision is requested from the higher management level, and which comprises coordination-related profile information of the at least one self-organizing network function; receiving an operation for self-organizing network coordination, which includes a self-organizing network coordination decision for the intended action, from the higher management level, wherein the self-organizing network coordination decision corresponds to either a confirmation of the intended action or a rejection of the intended action or at least one action alternative to the intended action, and operating the at least one self-organizing network function at the lower management level according to the self-organizing network coordination decision for the intended action. issuing a notification for self-organizing network coordination, which notifies an action of at least one self-organizing network function at a lower management level, from the lower management level of a self-organizing network to a higher management level of the self-organizing network; wherein the notification comprises a self-organizing network coordination specific request, in which the notified action is an intended action intended to be performed by the at least one self-organizing network function at the lower management level, for which a self-organizing network coordination decision is requested from the higher management level, and which comprises coordination-related profile information of the at least one self-organizing network function; receiving an operation for self-organizing network coordination, which includes a self-organizing network coordination decision for the intended action, from the higher management level, wherein the self-organizing network coordination decision corresponds to either a confirmation of the intended action or a rejection of the intended action or at least one action alternative to the intended action, and operating the at least one self-organizing network function at the lower management level according to the self-organizing network coordination decision for the intended action.
Computer-implemented method for the signed registration of a file, preferably a PDF-based document, by a user in a blockchain, said method comprising the steps of: (a) receiving said file from said user; (b) processing said file and calculating a hash for said file, said step (b) comprising the sub-steps (b.i) processing said file by creating and/or revising a file identifier comprised in said file so that it is unique and new with respect to the blockchain, obtaining a uniquely identified file; (b.ii) calculating the hash of said uniquely identified file comprising said file identifier with a cryptographic hash function; (b.iii) optionally, determining if the hash obtained in step (b.ii) is unique and new with respect to the blockchain and if so, ending step (b); if not, resuming from step (b.i); (c) establishing a file reference taking into account said hash; (d) registering said file reference in the blockchain; wherein said file reference established in step (c) comprises said file identifier and a hash-related string; wherein step (c) comprises establishing a hash-related string comprising said hash, optionally being said hash; wherein step (c) comprises encrypting said hash-related string by means of a private key belonging to a key pair belonging to said user for obtaining said hash-related string, said key pair comprising said private key and a public key; and wherein said file reference comprises a user identity for retrieving said public key. (a) receiving said file from said user; (b) processing said file and calculating a hash for said file, said step (b) comprising the sub-steps (b.i) processing said file by creating and/or revising a file identifier comprised in said file so that it is unique and new with respect to the blockchain, obtaining a uniquely identified file; (b.ii) calculating the hash of said uniquely identified file comprising said file identifier with a cryptographic hash function; (b.iii) optionally, determining if the hash obtained in step (b.ii) is unique and new with respect to the blockchain and if so, ending step (b); if not, resuming from step (b.i); (b.i) processing said file by creating and/or revising a file identifier comprised in said file so that it is unique and new with respect to the blockchain, obtaining a uniquely identified file; (b.ii) calculating the hash of said uniquely identified file comprising said file identifier with a cryptographic hash function; (b.iii) optionally, determining if the hash obtained in step (b.ii) is unique and new with respect to the blockchain and if so, ending step (b); if not, resuming from step (b.i); (c) establishing a file reference taking into account said hash; (d) registering said file reference in the blockchain;
An aerosol generating article for use in an aerosol generating assembly, the article comprising an aerosol generating substrate comprising an aerosol generating material, the aerosol generating material comprising an amorphous solid, wherein the amorphous solid comprises an aerosol generating agent selected from erythritol, propylene glycol, glycerol and mixtures thereof, gelling agent and one or more flavourants comprising menthol, the one or more flavourants being present in an amount of from 10wt% to 60wt% of the amorphous solid by dry weight, and wherein the amorphous solid comprises from about 1wt% to about 15wt% water, calculated on a wet weight basis.
A soluble applicator for self-adhesive composition, preferably a detergent composition, wherein the applicator is made of material(s) exhibiting a solubility of at least 100 g/L in water at 20°C, wherein the applicator is made of one or mixtures of materials selected among glucose, sucrose, fructose, maltitol, isomalt, polyacrylamide, polyacrylic polymer, polyvinyl pyrrolidone (PVP), polyvinyl alcohol (PVA), partially hydrolyzed polyvinyl acetate, polyisocyanates, polydiallyldimethylammonium chloride (polyDADMAC), polyethylene glycol (PEG), agar gel, alginate, gums or gelatin, wherein the applicator further comprises a grip portion .
A multi-action capacitive switch device , comprising: a surface comprising a capacitive sensing area ; a plunger comprising a conductive path , the conductive path in contact with the capacitive sensing area ; a structure of flexible conductive material in contact with the conductive path of the plunger ; a capacitive touch detector ; and an actuation detector , the structure of flexible conductive material connecting with the capacitive touch detector and, when the device is actuated, the plunger causing the structure to connect with the actuation detector , wherein the capacitive sensing area detects a touch and transfers a capacitance change down the conductive path to the structure of flexible conductive material, and the structure transfers the capacitance change to the capacitive touch detector. a surface comprising a capacitive sensing area ; a plunger comprising a conductive path , the conductive path in contact with the capacitive sensing area ; a structure of flexible conductive material in contact with the conductive path of the plunger ; a capacitive touch detector ; and an actuation detector ,
Apparatus for controlling an acousto-optic component for a microscope, wherein the acousto-optic component is configured to influence the laser light which is in the form of a pulse of a laser system with a spectral width or a laser line at a specific wavelength and which passes through said acousto-optic component as illumination and/or detection light of a microscope, comprising - the acousto-optic component, wherein the acousto-optic component has a transfer function (H 0 (λ)) which describes a relationship between the spectral properties of the acousto-optic component and a spectral characteristic of the laser light to be transmitted, - and at least one frequency generator for setting an illumination wavelength of the illumination light and/or a detection wavelength of the detection light, wherein the frequency generator, for controlling the influence, is connected to the acousto-optic component, characterized in that the frequency generator is designed such that it creates a signal which, as a result of the superposition of a plurality of individual main lobes of transfer functions, leads to a resultant main lobe of a resultant transfer function being spectrally dispersed such that the spectral width of the pulse or the laser line at a fixed wavelength is still located within the main lobe of the transfer function, even in the event of a maximum temperature drift of the AOTF crystal, wherein the acousto-optic component is controlled by two or more control signals in such a way that two or more overlapping and/or superimposing main lobes of the transfer function of the acousto-optic component or main maxima are created. - the acousto-optic component, wherein the acousto-optic component has a transfer function (H 0 (λ)) which describes a relationship between the spectral properties of the acousto-optic component and a spectral characteristic of the laser light to be transmitted, - and at least one frequency generator for setting an illumination wavelength of the illumination light and/or a detection wavelength of the detection light, wherein the frequency generator, for controlling the influence, is connected to the acousto-optic component, characterized in that the frequency generator is designed such that it creates a signal which, as a result of the superposition of a plurality of individual main lobes of transfer functions, leads to a resultant main lobe of a resultant transfer function being spectrally dispersed such that the spectral width of the pulse or the laser line at a fixed wavelength is still located within the main lobe of the transfer function, even in the event of a maximum temperature drift of the AOTF crystal, wherein the acousto-optic component is controlled by two or more control signals in such a way that two or more overlapping and/or superimposing main lobes of the transfer function of the acousto-optic component or main maxima are created.
Use of a compound selected from the group of: and pharmaceutically acceptable salts thereof, in the manufacture of a medicament for inhibiting geranylgeranyl diphosphate synthase (GGDPS), treating cancer, treating amyloidosis, treating an autoimmune disorder, or treating an infectious disease, wherein the wavy lines indicates a mixture of E and Z isomers. inhibiting geranylgeranyl diphosphate synthase (GGDPS), treating cancer, treating amyloidosis, treating an autoimmune disorder, or treating an infectious disease,
An independent cooling circuit for selectively delivering cooling fluid , comprising: an interconnected circuit of cooling channels embedded within an exterior wall of a component of a gas turbine system; an impingement plate ; and a plurality of feed tubes connecting the impingement plate to the exterior wall of the component and fluidly coupling a supply of cooling fluid to the interconnected circuit of cooling channels; wherein the cooling fluid flows through the plurality of feed tubes into the interconnected circuit of cooling channels only in response to a formation of a breach in the exterior wall of the component that exposes at least one of the cooling channels. an interconnected circuit of cooling channels embedded within an exterior wall of a component of a gas turbine system; an impingement plate ; and a plurality of feed tubes connecting the impingement plate to the exterior wall of the component and fluidly coupling a supply of cooling fluid to the interconnected circuit of cooling channels; wherein the cooling fluid flows through the plurality of feed tubes into the interconnected circuit of cooling channels only in response to a formation of a breach in the exterior wall of the component that exposes at least one of the cooling channels.
A process for preparation of cereal fractions, comprising the following step: a) providing oat grains or barley grains by subjecting oat grains or barley grains to a dry heat treatment reducing lipase activity, wherein in the dry heat treatment the core of the grains is heated to a temperature of at least 60 °C; b) wet milling of the oat grains or barley grains obtained in step a) in the presence of an enzyme composition derived from malt, wherein step b) of wet milling is performed more than once; and isolating, from the wet milled grains, a beta-glucan enriched fraction by removing, from the wet milled grains, a fibre enriched fraction. a) providing oat grains or barley grains by subjecting oat grains or barley grains to a dry heat treatment reducing lipase activity, wherein in the dry heat treatment the core of the grains is heated to a temperature of at least 60 °C; b) wet milling of the oat grains or barley grains obtained in step a) in the presence of an enzyme composition derived from malt, wherein step b) of wet milling is performed more than once; and isolating, from the wet milled grains, a beta-glucan enriched fraction by removing, from the wet milled grains, a fibre enriched fraction.
Lighting module for motor vehicles, comprising at least one first row of first illumination units configured to produce a first exit beam , each first illumination unit comprising a first light source and a first optical element configured to produce a first unitary beam from light rays coming from the first light source , the first optical element of each of the first illumination units comprising a waveguide comprising a first reflection surface positioned facing the emission face of the light source , receiving the rays coming from the first light source from an entry diopter of the waveguide, producing a first total internal of the rays coming from the first light source and configured to collimate the rays coming from the first light source , so as to form and direct a reflected beam of collimated rays in the direction of the second reflection surface receiving the collimated rays and producing a second total internal reflection of the collimated rays to generate the first unitary beam ; the module comprising a control unit adapted to activate and/or to deactivate and/or to modify the luminous intensity of each of the first light sources ; the first exit beam being a near field beam of a low beam light, and the module comprising a second row of second illumination units configured to produce a second exit beam , each second illumination unit comprising a second light source and a second optical element configured to produce a second unitary beam from light rays coming from the second light source , the second exit beam being a cut-off beam of the low beam light, the module being characterized in that the second internal reflection is configured to spread the first unitary beam in a lateral direction perpendicular to a heightwise direction of the module and in that the internal reflections are configured to generate a decrease of brightness toward the bottom of the first unitary beam . the module comprising a control unit adapted to activate and/or to deactivate and/or to modify the luminous intensity of each of the first light sources ; the first exit beam being a near field beam of a low beam light, and the module comprising a second row of second illumination units configured to produce a second exit beam , each second illumination unit comprising a second light source and a second optical element configured to produce a second unitary beam from light rays coming from the second light source , the second exit beam being a cut-off beam of the low beam light, the module being characterized in that the second internal reflection is configured to spread the first unitary beam in a lateral direction perpendicular to a heightwise direction of the module and in that the internal reflections are configured to generate a decrease of brightness toward the bottom of the first unitary beam .
A laser light source device comprising: a laser diode configured to emit light; a reflection unit configured to reflect the light emitted from the laser diode; a wavelength conversion plate configured to receive light reflected by the reflection unit, convert a wavelength of the light reflected by the reflection unit, and reflect light having a converted wavelength; and a projection unit configured to receive light having the converted wavelength reflected by the wavelength conversion plate and emit light in a forward direction, characterized in that : the wavelength conversion plate comprises an optoceramic plate including a phosphor in ceramic material, wherein the reflection unit comprises a reflecting mirror having a concave reflective surface, wherein the projection unit comprises a parabolic mirror located at a circumference of the wavelength conversion plate and configured to emit light reflected by the wavelength conversion plate in the forward direction, and wherein the reflecting mirror includes an opening located at a center of the reflecting mirror and configured to emit light which is further reflected by the parabolic mirror a laser diode configured to emit light; a reflection unit configured to reflect the light emitted from the laser diode; a wavelength conversion plate configured to receive light reflected by the reflection unit, convert a wavelength of the light reflected by the reflection unit, and reflect light having a converted wavelength; and a projection unit configured to receive light having the converted wavelength reflected by the wavelength conversion plate and emit light in a forward direction, characterized in that : the wavelength conversion plate comprises an optoceramic plate including a phosphor in ceramic material, wherein the reflection unit comprises a reflecting mirror having a concave reflective surface, wherein the projection unit comprises a parabolic mirror located at a circumference of the wavelength conversion plate and configured to emit light reflected by the wavelength conversion plate in the forward direction, and wherein the reflecting mirror includes an opening located at a center of the reflecting mirror and configured to emit light which is further reflected by the parabolic mirror the wavelength conversion plate comprises an optoceramic plate including a phosphor in ceramic material, wherein the reflection unit comprises a reflecting mirror having a concave reflective surface, wherein the projection unit comprises a parabolic mirror located at a circumference of the wavelength conversion plate and configured to emit light reflected by the wavelength conversion plate in the forward direction, and wherein the reflecting mirror includes an opening located at a center of the reflecting mirror and configured to emit light which is further reflected by the parabolic mirror