mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing spare parts for a machine for producing packs for smokable products - a packaging machine - in particular for cigarettes, comprising the following steps: a) checking the wear and/or the serviceability of at least one component , which can be produced as a spare part by means of a spare part production device associated with a machine user and comprising a 3D printer , by means of the packaging machine during operation of the packaging machine, b) requesting the transmission of production data for the production of a spare part for the component when wear and/or unserviceability of the component which makes replacement of the same necessary is determined, from a first computing unit , in particular associated with the manufacturer of the machine , by means of a second computing unit , in particular associated with the user of the machine , by remote data transmission, preferably via a communication network, for example the Internet, c) encrypting digital production data required for the production of the spare part , d) transmitting the encrypted production data from a first computing unit , in particular associated with the manufacturer of the machine , to a second computing unit , in particular associated with the user of the machine , by remote data transmission, preferably via a communication network, for example the Internet, e) decrypting the transmitted, encrypted production data, f) producing the spare part according to the transmitted production data by means of the spare part production device associated with the machine user and comprising a 3D printer . a) checking the wear and/or the serviceability of at least one component , which can be produced as a spare part by means of a spare part production device associated with a machine user and comprising a 3D printer , by means of the packaging machine during operation of the packaging machine, b) requesting the transmission of production data for the production of a spare part for the component when wear and/or unserviceability of the component which makes replacement of the same necessary is determined, from a first computing unit , in particular associated with the manufacturer of the machine , by means of a second computing unit , in particular associated with the user of the machine , by remote data transmission, preferably via a communication network, for example the Internet, c) encrypting digital production data required for the production of the spare part , d) transmitting the encrypted production data from a first computing unit , in particular associated with the manufacturer of the machine , to a second computing unit , in particular associated with the user of the machine , by remote data transmission, preferably via a communication network, for example the Internet, e) decrypting the transmitted, encrypted production data, f) producing the spare part according to the transmitted production data by means of the spare part production device associated with the machine user and comprising a 3D printer .
An apparatus comprising: a media bin , the media bin comprising a receptacle for holding print media; an optical sensor to transmit photons toward the media bin, wherein the optical sensor is an optical time of flight sensor; a controller to: determine, using the optical sensor, a distance between a calibration surface of a target placed on the media bin and the optical sensor; determine a sensor offset from a difference between the determined distance and an expected calibration distance ; determine a validation distance between a validation surface facing the optical sensor and the optical sensor; correct the validation distance with the sensor offset; and validate the sensor offset when the corrected validation distance is within a defined accuracy threshold, wherein the threshold is based on an expected validation distance between the validation surface and the optical sensor. a media bin , the media bin comprising a receptacle for holding print media; an optical sensor to transmit photons toward the media bin, wherein the optical sensor is an optical time of flight sensor; a controller to: determine, using the optical sensor, a distance between a calibration surface of a target placed on the media bin and the optical sensor; determine a sensor offset from a difference between the determined distance and an expected calibration distance ; determine a validation distance between a validation surface facing the optical sensor and the optical sensor; correct the validation distance with the sensor offset; and validate the sensor offset when the corrected validation distance is within a defined accuracy threshold, wherein the threshold is based on an expected validation distance between the validation surface and the optical sensor. determine, using the optical sensor, a distance between a calibration surface of a target placed on the media bin and the optical sensor; determine a sensor offset from a difference between the determined distance and an expected calibration distance ; determine a validation distance between a validation surface facing the optical sensor and the optical sensor; correct the validation distance with the sensor offset; and validate the sensor offset when the corrected validation distance is within a defined accuracy threshold, wherein the threshold is based on an expected validation distance between the validation surface and the optical sensor.
An epoxy resin composition comprising an epoxy resin, a curing agent and a filler, the epoxy resin being represented by the formula : wherein X is a divalent group obtained by removing two hydrogen atoms from a hydrocarbon ring, or a divalent group represented by the formula : wherein Y is a bond, a C 1-6 alkylene group, an oxygen atom (-0-), or -S(O) m - wherein m is 0, 1, or 2; R 1 is the same or different, and is a C 1-18 alkyl group, a C 2-9 alkenyl group, a cycloalkyl group, an aryl group, or an aralkyl group, wherein one or more carbon atoms of these groups may be replaced by at least one atom selected from the group consisting of an oxygen atom and a nitrogen atom; R 2 is the same or different, and is a C 1-18 alkylene group, wherein one or more carbon atoms of this group other than a carbon atom directly bonded to a silicon atom may be replaced by at least one atom selected from the group consisting of an oxygen atom and a nitrogen atom; and R 3 is the same or different, and is a hydrogen atom, a C 1-18 alkyl group, a C 2-9 alkenyl group, a cycloalkyl group, an aryl group, or an aralkyl group, wherein one or more carbon atoms of these groups may be replaced by at least one atom selected from the group consisting of an oxygen atom and a nitrogen atom, and the curing agent being at least one member selected from the group consisting of acid anhydride-based curing agents and amine-based curing agents. R 1 is the same or different, and is a C 1-18 alkyl group, a C 2-9 alkenyl group, a cycloalkyl group, an aryl group, or an aralkyl group, wherein one or more carbon atoms of these groups may be replaced by at least one atom selected from the group consisting of an oxygen atom and a nitrogen atom; R 2 is the same or different, and is a C 1-18 alkylene group, wherein one or more carbon atoms of this group other than a carbon atom directly bonded to a silicon atom may be replaced by at least one atom selected from the group consisting of an oxygen atom and a nitrogen atom; and R 3 is the same or different, and is a hydrogen atom, a C 1-18 alkyl group, a C 2-9 alkenyl group, a cycloalkyl group, an aryl group, or an aralkyl group, wherein one or more carbon atoms of these groups may be replaced by at least one atom selected from the group consisting of an oxygen atom and a nitrogen atom, and the curing agent being at least one member selected from the group consisting of acid anhydride-based curing agents and amine-based curing agents.
An aerosol generating system for heating a liquid aerosol-forming substrate , the system comprising: an aerosol-forming chamber ; and leakage prevention means configured to prevent or reduce leakage of liquid aerosol condensate from the aerosol generating system , wherein the leakage prevention means comprises at least one cavity in a wall of the aerosol-forming chamber , for collecting liquid condensate formed from the aerosol-forming substrate, wherein the at least one cavity contains capillary material, and wherein the or each cavity has a cross-sectional dimension x, where x is 0.5 mm or 1 mm or between 0.5 mm and 1 mm. an aerosol-forming chamber ; and leakage prevention means configured to prevent or reduce leakage of liquid aerosol condensate from the aerosol generating system , wherein the leakage prevention means comprises at least one cavity in a wall of the aerosol-forming chamber , for collecting liquid condensate formed from the aerosol-forming substrate, wherein the at least one cavity contains capillary material, and wherein the or each cavity has a cross-sectional dimension x, where x is 0.5 mm or 1 mm or between 0.5 mm and 1 mm.
A ventilation mechanism of an electronic device housing which is a housing accommodating an electronic device, the ventilation mechanism comprising: a projection integrated with the housing and projecting outward of the housing ; a wall integrated with the housing and disposed on an outer side of the housing so as to enclose the projection ; a window formed in a part of a side surface of the projection and facing an inner circumferential surface of the wall ; a through hole forming, together with the window , a ventilation path which allows communication between an outside and an inside of the housing ; and a water-repellent filter attached to a region, on an inner side of the housing , that includes the projection and the through hole , characterized in that the wall includes a plurality of walls disposed so as to be apart from each other, the walls have cuts therebetween, and no windows are provided in side surfaces, of the projection , that face the cuts of the walls . a projection integrated with the housing and projecting outward of the housing ; a wall integrated with the housing and disposed on an outer side of the housing so as to enclose the projection ; a window formed in a part of a side surface of the projection and facing an inner circumferential surface of the wall ; a through hole forming, together with the window , a ventilation path which allows communication between an outside and an inside of the housing ; and a water-repellent filter attached to a region, on an inner side of the housing , that includes the projection and the through hole , characterized in that the wall includes a plurality of walls disposed so as to be apart from each other, the walls have cuts therebetween, and no windows are provided in side surfaces, of the projection , that face the cuts of the walls .
A method for selecting a radio access technology (RAT) to use in a device-to-device (D2D) connection, comprising: requesting, by a first wireless device, a radio configuration from a second wireless device, wherein the requested radio configuration comprises one or more radio capabilities associated with the second wireless device; receiving, at the first wireless device, the one or more radio capabilities from the second wireless device; characterised by : negotiating one or more compatible RATs available to use in a D2D connection between the first wireless and the second wireless device according to at least a multi-radio coexistence state and the one or more radio capabilities received from the second wireless device, wherein the multi-radio coexistence state comprises one or more of an in-device coexistence state related to interference among multiple radios at the first wireless device or a cross-device coexistence state related to interference between at least one radio at the first wireless device and at least one radio at the second wireless device; and establishing one or more D2D connections between the first wireless device and the second wireless device using the negotiated one or more compatible RATs. requesting, by a first wireless device, a radio configuration from a second wireless device, wherein the requested radio configuration comprises one or more radio capabilities associated with the second wireless device; receiving, at the first wireless device, the one or more radio capabilities from the second wireless device; characterised by : negotiating one or more compatible RATs available to use in a D2D connection between the first wireless and the second wireless device according to at least a multi-radio coexistence state and the one or more radio capabilities received from the second wireless device, wherein the multi-radio coexistence state comprises one or more of an in-device coexistence state related to interference among multiple radios at the first wireless device or a cross-device coexistence state related to interference between at least one radio at the first wireless device and at least one radio at the second wireless device; and establishing one or more D2D connections between the first wireless device and the second wireless device using the negotiated one or more compatible RATs. negotiating one or more compatible RATs available to use in a D2D connection between the first wireless and the second wireless device according to at least a multi-radio coexistence state and the one or more radio capabilities received from the second wireless device, wherein the multi-radio coexistence state comprises one or more of an in-device coexistence state related to interference among multiple radios at the first wireless device or a cross-device coexistence state related to interference between at least one radio at the first wireless device and at least one radio at the second wireless device; and establishing one or more D2D connections between the first wireless device and the second wireless device using the negotiated one or more compatible RATs.
System for imaging, in particular for brain imaging, comprising a pump signal generator configured to emit at least one pump signal in the radio frequency (RF)-range with a first power P1 and a second power P2, a wireless detection unit , which comprises at least one parametric resonator circuit with multiple resonance modes, wherein the at least one parametric resonator circuit comprises at least two varactors at least one capacitor and at least one inductance , wherein, in a first detection mode, the wireless detection unit is configured such that the pump signal , having the first power P1, induces a first pump current in the at least one parametric resonator circuit , the at least one parametric resonator circuit is operated below its oscillation threshold and generates a first output signal by amplifying a first input signal , which is provided due to a magnetic-resonance (MR) measurement, and an external receiving device receives the first output signal , wherein, in a second detection mode, the wireless detection unit is configured such that the pump signal , having the second power P2, induces a second pump current in the at least one parametric resonator circuit , the at least one parametric resonator circuit is operated above its oscillation threshold and generates a second output signal , the second output signal is modulated with a second input signal , wherein the second input signal is provided by at least one neuronal probe device , connected to the at least one parametric resonator circuit , and the external receiving device receives the second output signal . a pump signal generator configured to emit at least one pump signal in the radio frequency (RF)-range with a first power P1 and a second power P2, a wireless detection unit , which comprises at least one parametric resonator circuit with multiple resonance modes, wherein the at least one parametric resonator circuit comprises at least two varactors at least one capacitor and at least one inductance , wherein, in a first detection mode, the wireless detection unit is configured such that the pump signal , having the first power P1, induces a first pump current in the at least one parametric resonator circuit , the at least one parametric resonator circuit is operated below its oscillation threshold and generates a first output signal by amplifying a first input signal , which is provided due to a magnetic-resonance (MR) measurement, and an external receiving device receives the first output signal , wherein, in a second detection mode, the wireless detection unit is configured such that the pump signal , having the second power P2, induces a second pump current in the at least one parametric resonator circuit , the at least one parametric resonator circuit is operated above its oscillation threshold and generates a second output signal , the second output signal is modulated with a second input signal , wherein the second input signal is provided by at least one neuronal probe device , connected to the at least one parametric resonator circuit , and the external receiving device receives the second output signal .
A compound of Formula I or a pharmaceutically acceptable salt thereof: wherein, X is C, O, N or NH; Z is-(CH 2 ) n -, which is unsubstituted or substituted by one or more substituents selected from the group consisting of alkyl, cyano, hydroxy and halogen, n is an integer of 2~7; R 1 and R 2 are each independently hydrogen, linear or branched alkyl containing 1~5 carbon atoms, wherein the alkyl is optionally substituted by one or more substituents selected from the group consisting of alkyl, cyano, hydroxy and halogen; R 3 is hydrogen, halogen or linear or branched alkyl containing 1~5 carbon atoms, wherein the alkyl is optionally substituted by one or more substituents selected from the group consisting of alkyl, cyano, hydroxy and halogen; P is CH or N; Ar is a group selected from the group consisting of formula III: Q is O or S; R 7 is hydrogen, halogen, linear or branched alkyl containing 1~5 carbon atoms, or alkoxyl containing 1~5 carbon atoms, wherein the alkyl is optionally substituted by one or more substituents selected from the group consisting of alkyl, cyano, hydroxy and halogen, and wherein the alkoxyl is optionally substituted by one or more substituents selected from the group consisting of alkyl, cyano, hydroxy and halogen. X is C, O, N or NH; Z is-(CH 2 ) n -, which is unsubstituted or substituted by one or more substituents selected from the group consisting of alkyl, cyano, hydroxy and halogen, n is an integer of 2~7; R 1 and R 2 are each independently hydrogen, linear or branched alkyl containing 1~5 carbon atoms, wherein the alkyl is optionally substituted by one or more substituents selected from the group consisting of alkyl, cyano, hydroxy and halogen; R 3 is hydrogen, halogen or linear or branched alkyl containing 1~5 carbon atoms, wherein the alkyl is optionally substituted by one or more substituents selected from the group consisting of alkyl, cyano, hydroxy and halogen; P is CH or N; Ar is a group selected from the group consisting of formula III: Q is O or S; R 7 is hydrogen, halogen, linear or branched alkyl containing 1~5 carbon atoms, or alkoxyl containing 1~5 carbon atoms, wherein the alkyl is optionally substituted by one or more substituents selected from the group consisting of alkyl, cyano, hydroxy and halogen, and wherein the alkoxyl is optionally substituted by one or more substituents selected from the group consisting of alkyl, cyano, hydroxy and halogen.
The use of at least one biomarker for predicting the severity of a disease caused by the infection of an individual with an influenza virus, wherein said biomarker comprises (i) the alpha diversity value of the microbiome present in a respiratory sample of said individual and (ii) the microbiome profile of the said respiratory sample, wherein a lower relative abundance of the bacterium of the Staphylococcus aureus species in the respiratory microbiome profile of said individual, compared to a reference respiratory microbiome profile, is indicative of a risk for said individual of developing a severe disease; and wherein a higher relative abundance of at least one type of bacterium selected from the group (i) the genus Streptococcus, Prevotella, Streptobacillus, Porphyromonas, Haemophilus, Fusobacterium, Veillonella, Lachnospiracea incertae sedis, Granulicatella and (ii) the species Abiotrophia para-adiacens, Prevotella pallens, Prevotella melaninogenica , Veillonella dispar and Granulicatella elegans, in the respiratory microbiome profile of said individual, compared to a reference respiratory microbiome profile, is indicative of a risk for said individual of developing a severe disease.
A computer device for processing audio signals, the computer device including at least a processor and a memory, wherein the computer device is configured to: receive a first bitstream including a first audio signal (AS1) including speech (S1) and a second bitstream including a second audio signal (AS2); sum the first bitstream and the second bitstream, thereby providing a combined audio signal (AS) comprising the first audio signal (AS1) including the speech (S1) and the second audio signal (AS2); compress the combined audio signal (AS) to provide a compressed audio signal by matching amplitudes of the first audio signal (AS1) and the second audio signal (AS2); and control a dynamic range of the compressed audio signal to provide an output audio signal (AS'); whereby a quality of the speech included in the output audio signal (AS') is improved. receive a first bitstream including a first audio signal (AS1) including speech (S1) and a second bitstream including a second audio signal (AS2); sum the first bitstream and the second bitstream, thereby providing a combined audio signal (AS) comprising the first audio signal (AS1) including the speech (S1) and the second audio signal (AS2); compress the combined audio signal (AS) to provide a compressed audio signal by matching amplitudes of the first audio signal (AS1) and the second audio signal (AS2); and control a dynamic range of the compressed audio signal to provide an output audio signal (AS'); whereby a quality of the speech included in the output audio signal (AS') is improved.