mhurhangee/ep-ind-claims huggingface dataset:
A method of relaying data in a wireless network comprising a relay node configured for transmissions on the basis of a radio frame with a plurality of subframes (20, 30) comprising subframes configured as subframes for multicast transmission of which some are used for unicast transmissions, the method comprising: the relay node receiving, in a first subframe (20, 30) of the subframes (20, 30), first unicast transmission signals; the relay node decoding the first unicast transmission signals to obtain unicast data; the relay node forwarding the decoded unicast data by sending second unicast transmission signals in a second subframe (20, 30) of the subframes (20, 30); the relay node receiving control data from the base station; the relay node determining, on the basis of the received control data, that a third subframe of the subframes configured as subframes for multicast transmission is actually used by the base station for a multicast transmission; and only in response to determining that the base station actually uses the third subframe for a multicast transmission, the relay node receiving, in the third subframe, multicast transmission signals from the base station, amplifying the multicast transmission signals and, synchronously with the multicast transmission signals from the base station, sending the amplified multicast transmission signals in the third subframe. the relay node receiving, in a first subframe (20, 30) of the subframes (20, 30), first unicast transmission signals; the relay node decoding the first unicast transmission signals to obtain unicast data; the relay node forwarding the decoded unicast data by sending second unicast transmission signals in a second subframe (20, 30) of the subframes (20, 30); the relay node receiving control data from the base station; the relay node determining, on the basis of the received control data, that a third subframe of the subframes configured as subframes for multicast transmission is actually used by the base station for a multicast transmission; and only in response to determining that the base station actually uses the third subframe for a multicast transmission, the relay node receiving, in the third subframe, multicast transmission signals from the base station, amplifying the multicast transmission signals and, synchronously with the multicast transmission signals from the base station, sending the amplified multicast transmission signals in the third subframe.
A delivery system, comprising: an implant comprising a hub that defines an aperture having an aperture cross-sectional dimension; and a delivery wire comprising: (i) a core member extending through the aperture, and (ii) a stopper positioned distal to the aperture, characterised in that the stopper has a first cross-sectional dimension larger than the aperture cross-sectional dimension, and the stopper is electrolytically corrodible to reduce the first cross-sectional dimension to a second cross-sectional dimension smaller than the aperture cross-sectional dimension. an implant comprising a hub that defines an aperture having an aperture cross-sectional dimension; and a delivery wire comprising: (i) a core member extending through the aperture, and (ii) a stopper positioned distal to the aperture, characterised in that the stopper has a first cross-sectional dimension larger than the aperture cross-sectional dimension, and the stopper is electrolytically corrodible to reduce the first cross-sectional dimension to a second cross-sectional dimension smaller than the aperture cross-sectional dimension. (i) a core member extending through the aperture, and (ii) a stopper positioned distal to the aperture, characterised in that the stopper has a first cross-sectional dimension larger than the aperture cross-sectional dimension, and the stopper is electrolytically corrodible to reduce the first cross-sectional dimension to a second cross-sectional dimension smaller than the aperture cross-sectional dimension.
A method of manufacturing a hair conditioning composition, wherein the composition comprises a cationic surfactant, a high melting point fatty compound having a melting point of 25°C or higher, and an aqueous carrier; wherein a total amount of the cationic surfactant and the high melting point fatty compound is from 7.0% to 15% by weight of the composition; wherein the composition comprises from 30% to 90% water by weight of the composition; wherein the method comprises the steps: preparing a premix (oil phase) comprising the cationic surfactants and the high melting point fatty compounds, wherein the temperature of the premix is higher than a melting point of the high melting point fatty compounds; and preparing an aqueous carrier (aqueous phase), wherein the temperature of the aqueous carrier is below the melting point of the high melting point fatty compounds; and mixing the premix with the aqueous carrier and forming gel matrix; wherein the mixing step comprises the steps: feeding either of the oil phase or the aqueous phase into a high shear field having an energy density of 1.0x10 2 J/m 3 or more; feeding the other phase directly to the field; and forming an emulsion. preparing a premix (oil phase) comprising the cationic surfactants and the high melting point fatty compounds, wherein the temperature of the premix is higher than a melting point of the high melting point fatty compounds; and preparing an aqueous carrier (aqueous phase), wherein the temperature of the aqueous carrier is below the melting point of the high melting point fatty compounds; and mixing the premix with the aqueous carrier and forming gel matrix; feeding either of the oil phase or the aqueous phase into a high shear field having an energy density of 1.0x10 2 J/m 3 or more; feeding the other phase directly to the field; and forming an emulsion.
Exhaust system for an internal combustion engine, especially in a vehicle, comprising at least one first catalytic converter unit with at least one catalytic converter arrangement through which internal combustion engine exhaust gas can flow and a fuel-operated heating device with a combustion air feed arrangement for feeding combustion air into a combustion chamber, a fuel feed arrangement for feeding fuel into the combustion chamber, wherein the at least one first catalytic converter unit comprises an internal combustion engine exhaust gas flow space through which internal combustion engine exhaust gas can flow, wherein the at least one catalytic converter arrangement is arranged in the internal combustion engine exhaust gas flow space, characterized in that the heating device comprises a heat exchanger arrangement through which heating device exhaust gas and heat exchanger medium to be heated can flow, and that the at least one first catalytic converter unit comprises a heat exchanger volume through which heating device exhaust gas leaving the heating device can flow, with a heating device exhaust gas flow space enclosing the internal combustion engine exhaust gas flow space in at least some areas.
A device (100, 200, 300) for imaging of a microscopic object, the device (100, 200, 300) comprising: an array of light sensitive areas (122, 222, 322, 422), each of the light sensitive areas (122, 222, 322, 422) being sensitive to detect light spanning a wavelength range of at least 400-1200 nm; at least one light source (110, 210, 310) configured to generate light at a plurality of wavelengths within the wavelength range, the plurality of wavelengths comprising at least one wavelength in a visible part of the wavelength range and at least one wavelength in a short-wave infrared, SWIR, part of the wavelength range, and arranged to illuminate the microscopic object with the generated light such that at least part of the light is scattered by the microscopic object, forming scattered light; wherein the device (100, 200, 300) is configured to transmit the scattered light and non-scattered light, from the same light source (110, 210, 310), to the array of light sensitive areas (122, 222, 322, 422), wherein the array of light sensitive areas (122, 222, 322, 422) is configured to detect an interference pattern formed by interference between the scattered light and the non-scattered light, for each wavelength in the plurality of wavelengths. an array of light sensitive areas (122, 222, 322, 422), each of the light sensitive areas (122, 222, 322, 422) being sensitive to detect light spanning a wavelength range of at least 400-1200 nm; at least one light source (110, 210, 310) configured to generate light at a plurality of wavelengths within the wavelength range, the plurality of wavelengths comprising at least one wavelength in a visible part of the wavelength range and at least one wavelength in a short-wave infrared, SWIR, part of the wavelength range, and arranged to illuminate the microscopic object with the generated light such that at least part of the light is scattered by the microscopic object, forming scattered light; wherein the device (100, 200, 300) is configured to transmit the scattered light and non-scattered light, from the same light source (110, 210, 310), to the array of light sensitive areas (122, 222, 322, 422), wherein the array of light sensitive areas (122, 222, 322, 422) is configured to detect an interference pattern formed by interference between the scattered light and the non-scattered light, for each wavelength in the plurality of wavelengths.
A floor panel for transport means, in particular for trains, ships or boats, the floor panel comprising a metal plate; at least one heating cable (2, 3) adapted to generate heat when it is crossed by electric current; a net, provided with a plurality of openings, in particular meshes; wherein said at least one heating cable (2, 3) is arranged between the net and the metal plate; characterized in that said at least one heating cable (2, 3) is in contact with the metal plate. a metal plate; at least one heating cable (2, 3) adapted to generate heat when it is crossed by electric current; a net, provided with a plurality of openings, in particular meshes; wherein said at least one heating cable (2, 3) is arranged between the net and the metal plate; characterized in that said at least one heating cable (2, 3) is in contact with the metal plate.
Dexmedetomidine, or a pharmaceutically acceptable salt thereof, for use in a method of treating pain in a human adult by intranasally administering about 35 μg, about 40 μg or about 50 μg of dexmedetomidine, or a pharmaceutically acceptable salt thereof, to a single nostril of the human adult.
An ablation system, comprising: an ablation energy generator; a switch bias source; a radiometer; a coaxial cable having a first end and a second end; a microwave antenna coupled to the first end of the coaxial cable; a Dicke switch proximate to the antenna, the Dicke switch being coupled to and between the antenna and coaxial cable; a multiplexer coupled to the second end of the coaxial cable, the multiplexer being disposed between and coupled to the coaxial cable and the ablation energy generator, the switch bias source, and the radiometer being configured to measure temperature from the antenna and coupled to a control of the ablation energy generator; and circuitry for measuring impedance mismatch, the circuitry being coupled to the control of the ablation energy generator. a coaxial cable having a first end and a second end; a microwave antenna coupled to the first end of the coaxial cable; a Dicke switch proximate to the antenna, the Dicke switch being coupled to and between the antenna and coaxial cable; a multiplexer coupled to the second end of the coaxial cable, the multiplexer being disposed between and coupled to the coaxial cable and the ablation energy generator, the switch bias source, and the radiometer being configured to measure temperature from the antenna and coupled to a control of the ablation energy generator; and circuitry for measuring impedance mismatch, the circuitry being coupled to the control of the ablation energy generator.
A recombinant replication competent retroviral vector comprising: a retroviral GAG protein; a retroviral POL protein; a retroviral envelope; a retroviral polynucleotide comprising Long-Terminal Repeat sequences at the 3' end of the retroviral polynucleotide sequence, a promoter sequence at the 5' end of the retroviral polynucleotide, said promoter being suitable for expression in a mammalian cell, a gag nucleic acid domain, a pol nucleic acid domain and an env nucleic acid domain; a therapeutic cassette comprising at least one mini-promoter cassette having a mini-promoter operably linked to a heterologous polynucleotide, wherein the therapeutic cassette is positioned 5' to the 3' LTR and 3' to the env nucleic acid domain encoding the retroviral envelope, and wherein when only one mini-promoter cassette is present the heterologous polynucleotide is 1.2kb to 2.0 kb in length; and cis-acting sequences necessary for reverse transcription, packaging and integration in a target cell. a retroviral GAG protein; a retroviral POL protein; a retroviral envelope; a retroviral polynucleotide comprising Long-Terminal Repeat sequences at the 3' end of the retroviral polynucleotide sequence, a promoter sequence at the 5' end of the retroviral polynucleotide, said promoter being suitable for expression in a mammalian cell, a gag nucleic acid domain, a pol nucleic acid domain and an env nucleic acid domain; a therapeutic cassette comprising at least one mini-promoter cassette having a mini-promoter operably linked to a heterologous polynucleotide, wherein the therapeutic cassette is positioned 5' to the 3' LTR and 3' to the env nucleic acid domain encoding the retroviral envelope, and wherein when only one mini-promoter cassette is present the heterologous polynucleotide is 1.2kb to 2.0 kb in length; and cis-acting sequences necessary for reverse transcription, packaging and integration in a target cell.
A method of coding video data including a view component comprising a depth component and a texture component, the method comprising: activating a first parameter set as a texture parameter set for the texture component of the view component; coding the texture component of the view component based on the first activated texture parameter set; activating a second parameter set for the depth component of the view component, wherein the second parameter set comprises picture size data associated with the depth component; and coding the depth component of the view component based on the parameter set activated for the depth component of the view component and not the first activated texture parameter set. activating a first parameter set as a texture parameter set for the texture component of the view component; coding the texture component of the view component based on the first activated texture parameter set; activating a second parameter set for the depth component of the view component, wherein the second parameter set comprises picture size data associated with the depth component; and coding the depth component of the view component based on the parameter set activated for the depth component of the view component and not the first activated texture parameter set.
An electrostatic clamp configured to electrostatically clamp an article to an article support, the clamp comprising: a first dielectric or semi-dielectric layer; a second dielectric or semi-dielectric layer; an electrode between the first and second dielectric or semi-dielectric layers to form a stack, the electrode comprising a first portion and a lateral second portion; an intermediate material between the first and second portions, the intermediate material being a dielectric, semi-dielectric or isolating material from other than the first or the second dielectric or semi-dielectric layer; characterized in that the electrode comprises a first electrode material layer and a second electrode material layer, wherein the first electrode material layer is positioned between the second dielectric or semi-dielectric layer and the second electrode material layer, and wherein the second electrode material layer is positioned between the first dielectric or semi-dielectric layer and the first electrode material layer. a first dielectric or semi-dielectric layer; a second dielectric or semi-dielectric layer; an electrode between the first and second dielectric or semi-dielectric layers to form a stack, the electrode comprising a first portion and a lateral second portion; an intermediate material between the first and second portions, the intermediate material being a dielectric, semi-dielectric or isolating material from other than the first or the second dielectric or semi-dielectric layer; characterized in that the electrode comprises a first electrode material layer and a second electrode material layer, wherein the first electrode material layer is positioned between the second dielectric or semi-dielectric layer and the second electrode material layer, and wherein the second electrode material layer is positioned between the first dielectric or semi-dielectric layer and the first electrode material layer.
System for protection of a person against contamination of air in a vicinity of a home appliance for preparing food, especially a cooker, wherein the system comprises: - a first sensor for determining a first concentration of a first substance in the air; - wherein the first sensor is adapted to be carried on the person; and - a processing unit that is adapted to determine, on the basis of the first concentration, an indication of an impact of the first substance on the person's health, - an interface (165, 170) for receiving information on a temperature generated by the home appliance for preparing food, wherein said first substance is producible by exposing a cooking ingredient to heat, and - wherein the processing unit is adapted to present to the person an instruction for preparing, especially cooking, food such that the determined indication may be lowered. - a first sensor for determining a first concentration of a first substance in the air; - wherein the first sensor is adapted to be carried on the person; and - a processing unit that is adapted to determine, on the basis of the first concentration, an indication of an impact of the first substance on the person's health, - an interface (165, 170) for receiving information on a temperature generated by the home appliance for preparing food, wherein said first substance is producible by exposing a cooking ingredient to heat, and - wherein the processing unit is adapted to present to the person an instruction for preparing, especially cooking, food such that the determined indication may be lowered.
A distance measuring method, in particular according to the time-of-flight measuring method, comprising at least • emitting at least one measurement signal, in particular a light signal, to a target object (2, 13), wherein at least one start signal is generated; • receiving the measurement signal backscattered from the target object (2, 13) as a target signal; • sampling the received target signal with a sampling rate and determining the relative position of the start signal and the target signal, wherein the target signal is sampled at sampling points of a sampling pattern assigned to the sampling rate; • deriving a distance to the target object (2, 13) from the relative position of the start signal and the target signal; characterized in that the sampling rate is adjustable and is set in a manner dependent on a coarse distance to the target object. • emitting at least one measurement signal, in particular a light signal, to a target object (2, 13), wherein at least one start signal is generated; • receiving the measurement signal backscattered from the target object (2, 13) as a target signal; • sampling the received target signal with a sampling rate and determining the relative position of the start signal and the target signal, wherein the target signal is sampled at sampling points of a sampling pattern assigned to the sampling rate; • deriving a distance to the target object (2, 13) from the relative position of the start signal and the target signal;
A method for limiting a revolution speed of an internal combustion engine of a sports car, the method comprising - a first step (Step 1) of acquiring a nominal speed value of said internal combustion engine, - a second step (Step 2) of measuring a revolution speed of said internal combustion engine, when a measured revolution speed of said internal combustion engine has reached (yes) an activation speed approximately equal to said nominal speed, the method comprising the following steps, which are cyclically carried out for a predetermined number of cycles: - a third step (Step 3) of setting a predetermined initial torque value (a) to be delivered by said internal combustion engine, and simultaneously - a fourth step (Step 4) of carrying out a feedback control of a torque delivery of said internal combustion engine based on an error between said measured revolution speed and said nominal speed, so as to determine an increase in the speed of said internal combustion engine, until said activation speed is reached again; - a sixth step (Step 6), simultaneous to said third and said fourth step, of cutting off a fuel supply to said internal combustion engine up to when said internal combustion engine reaches a reactivation speed which is below said activation speed; wherein said predetermined initial torque, upon which a controller starts acting in order to correct it based on the speed signal received, is calculated or determined empirically, so as to cause said internal combustion engine to exceed said nominal speed. - a first step (Step 1) of acquiring a nominal speed value of said internal combustion engine, - a second step (Step 2) of measuring a revolution speed of said internal combustion engine, - a third step (Step 3) of setting a predetermined initial torque value (a) to be delivered by said internal combustion engine, and simultaneously - a fourth step (Step 4) of carrying out a feedback control of a torque delivery of said internal combustion engine based on an error between said measured revolution speed and said nominal speed, so as to determine an increase in the speed of said internal combustion engine, until said activation speed is reached again; - a sixth step (Step 6), simultaneous to said third and said fourth step, of cutting off a fuel supply to said internal combustion engine up to when said internal combustion engine reaches a reactivation speed which is below said activation speed; wherein said predetermined initial torque, upon which a controller starts acting in order to correct it based on the speed signal received, is calculated or determined empirically, so as to cause said internal combustion engine to exceed said nominal speed.