mhurhangee/ep-ind-claims huggingface dataset:
An electronic apparatus comprising: a directional antenna; and at least one processor configured to: based on a signal to request charging of a battery of at least one external apparatus being received from the at least one external apparatus through the directional antenna, identify a location of the at least one external apparatus based on intensity of the signal and a direction in which the signal is received, and control the directional antenna to transmit a radio frequency, RF, signal to charge battery of the at least one external apparatus toward the at least one external apparatus, characterized in that: the at least one processor is further configured to, based on the at least one external apparatus being identified to be positioned at a location that is farther than a preset distance from the at least one electronic apparatus based on a location of the at least one external apparatus, provide guide information to request to move the at least one external apparatus to be a location that is closer than the preset distance. a directional antenna; and at least one processor configured to: based on a signal to request charging of a battery of at least one external apparatus being received from the at least one external apparatus through the directional antenna, identify a location of the at least one external apparatus based on intensity of the signal and a direction in which the signal is received, and control the directional antenna to transmit a radio frequency, RF, signal to charge battery of the at least one external apparatus toward the at least one external apparatus, based on a signal to request charging of a battery of at least one external apparatus being received from the at least one external apparatus through the directional antenna, identify a location of the at least one external apparatus based on intensity of the signal and a direction in which the signal is received, and control the directional antenna to transmit a radio frequency, RF, signal to charge battery of the at least one external apparatus toward the at least one external apparatus, characterized in that: the at least one processor is further configured to, based on the at least one external apparatus being identified to be positioned at a location that is farther than a preset distance from the at least one electronic apparatus based on a location of the at least one external apparatus, provide guide information to request to move the at least one external apparatus to be a location that is closer than the preset distance.
A hair/scalp care composition comprising at least 2wt% of the total composition of a surfactant and a eutectic mixture, the eutectic mixture comprising menthol and an azole based antidandruff agent.
A device for generating pulses of plasma comprising: a. an anode; b. a cathode assembly comprising (i) two or more cathodes (5a, 5b, 5c), and (ii) a cathode holder; c. a plasma channel extending longitudinally between said cathode assembly and through said anode, the plasma channel having an outlet opening at the anode end, a part of said plasma channel being formed by two or more intermediate electrodes (2, 3, 4) electrically insulated from each other and the anode, the plasma channel comprising a heating portion closest to the cathode assembly, an anode portion, and an expansion portion between the heating portion and the anode portion, the expansion portion having two or more sections with the diameter of each successive section of the expansion portion increasing toward the anode; and d. an extension nozzle connected to the anode end of the plasma channel and forming an extension channel having a tubular insulator covering a portion of the inside surface of the extension channel. a. an anode; b. a cathode assembly comprising (i) two or more cathodes (5a, 5b, 5c), and (ii) a cathode holder; c. a plasma channel extending longitudinally between said cathode assembly and through said anode, the plasma channel having an outlet opening at the anode end, a part of said plasma channel being formed by two or more intermediate electrodes (2, 3, 4) electrically insulated from each other and the anode, the plasma channel comprising a heating portion closest to the cathode assembly, an anode portion, and an expansion portion between the heating portion and the anode portion, the expansion portion having two or more sections with the diameter of each successive section of the expansion portion increasing toward the anode; and d. an extension nozzle connected to the anode end of the plasma channel and forming an extension channel having a tubular insulator covering a portion of the inside surface of the extension channel.
A nystose crystal-containing powder, wherein: the powder has a nystose content of 71 to 90 wt%; the powder comprises 0.2 to 18.6 wt% of gluconic acid relative to a total weight of nystose crystals contained in the powder; and the powder has a water content of 7 to 14 wt%. the powder has a nystose content of 71 to 90 wt%; the powder comprises 0.2 to 18.6 wt% of gluconic acid relative to a total weight of nystose crystals contained in the powder; and the powder has a water content of 7 to 14 wt%.
An apparatus, comprising an encoder for encoding at least a block in a picture using a block segmentation process, wherein said encoder includes a segmentation device for performing the block segmentation process, and wherein said encoder is configured to signal block segmentation information and at least two predictors using a weight index for use by a decoder to decode the block, the block segmentation information indicating which reference picture pixel belongs to which reference picture segment obtained by the block segmentation process and each of the at least two predictors corresponding to a respective one of at least two blocks in at least one reference picture and providing a respective predicted pixel value for each pixel in the block, characterized in that: - the segmentation device is adapted for performing the block segmentation process on a pixel difference of the at least two predictors for the block, and - said encoder is further configured to signal a weight index, wherein said weight index indicates weight factors to be used on the reference picture segments for calculating a weighted predictor for the block from a predefined set of weights. - the segmentation device is adapted for performing the block segmentation process on a pixel difference of the at least two predictors for the block, and - said encoder is further configured to signal a weight index, wherein said weight index indicates weight factors to be used on the reference picture segments for calculating a weighted predictor for the block from a predefined set of weights.
A system for providing integrated detection and countermeasures against unmanned aerial vehicles comprising: (a) a direction finding RF receiver coupled with a receiving omnidirectional antenna and a receiving directional antenna for detecting an RF signature of a flying unmanned aerial vehicle, a spectral signal identifier processor for analyzing the RF signature to identify a set of spectral signatures of the unmanned aerial vehicle and a direction and range estimation processor for determining the location of the unmanned aerial vehicle out of data obtained by the direction finding RF receiver; (b) a radar system provided with a radar clutter and target filter processor for providing input to an azimuth and elevation vector coordinate data processor for determining the location of the unmanned aerial vehicle; and (c) a signal generator that produces at least one tailored signal based on the spectral signatures of the unmanned aerial vehicle and a variable strength amplifier that generates an output power, an antenna alignment assembly for adjusting the alignment of a transmitting directional and focused antenna based on the location of the unmanned aerial vehicle as determined, the signal generator and amplifier coupled with the transmitting antenna to send at least one signal to the unmanned aerial vehicle, wherein the at least one signal: i. disables the unmanned aerial vehicle's sensors; or ii. causes the unmanned aerial vehicle's navigation system to malfunction due to communication interference. (a) a direction finding RF receiver coupled with a receiving omnidirectional antenna and a receiving directional antenna for detecting an RF signature of a flying unmanned aerial vehicle, a spectral signal identifier processor for analyzing the RF signature to identify a set of spectral signatures of the unmanned aerial vehicle and a direction and range estimation processor for determining the location of the unmanned aerial vehicle out of data obtained by the direction finding RF receiver; (b) a radar system provided with a radar clutter and target filter processor for providing input to an azimuth and elevation vector coordinate data processor for determining the location of the unmanned aerial vehicle; and (c) a signal generator that produces at least one tailored signal based on the spectral signatures of the unmanned aerial vehicle and a variable strength amplifier that generates an output power, an antenna alignment assembly for adjusting the alignment of a transmitting directional and focused antenna based on the location of the unmanned aerial vehicle as determined, the signal generator and amplifier coupled with the transmitting antenna to send at least one signal to the unmanned aerial vehicle, wherein the at least one signal: i. disables the unmanned aerial vehicle's sensors; or ii. causes the unmanned aerial vehicle's navigation system to malfunction due to communication interference. i. disables the unmanned aerial vehicle's sensors; or ii. causes the unmanned aerial vehicle's navigation system to malfunction due to communication interference.
A method for regulating a temperature of the exhaust gases of a turbomachine, the method comprising the following steps: - regulation of the injection of fuel into a combustion chamber of the turbomachine so that the turbomachine generates a target thrust; - regulation of the injection of mechanical power by an electric motor onto a shaft (8, 9) driven in rotation by a turbine (6, 7), the method being characterized in that the electric motor is activated when a clearance between a casing and the blades of the turbine (6, 7) exceeds a threshold value. - regulation of the injection of fuel into a combustion chamber of the turbomachine so that the turbomachine generates a target thrust; - regulation of the injection of mechanical power by an electric motor onto a shaft (8, 9) driven in rotation by a turbine (6, 7), the method being characterized in that the electric motor is activated when a clearance between a casing and the blades of the turbine (6, 7) exceeds a threshold value.
Filter element with an in particular star-shaped folded filter medium having a preferably coaxial form, with at least one end and sealing body made of a resilient casting compound disposed on a front side of the filter medium, wherein at least one part of a support structure is embedded in the resilient casting compound of the end and sealing body, characterized in that the embedded part of the support structure features a plurality of helically curved extending ribs spaced apart which extend between two coaxial rings (44, 48) of the support structure, wherein the areas between the ribs can be flowed through by the casting compound initially fluid during a manufacturing process and are filled in the final state with the solidified casting compound.
Catalytic polymerization system, comprising: - on the one hand, an organometallic complex represented by the following general formula B: in which Ln represents a lanthanide metal, the atomic number of which may range from 57 to 71, in which X represents a halogen which may be chlorine, fluorine, bromine or iodine, in which, in formula B, a ligand molecule is attached to said metal Ln, which ligand molecule is composed of two substituted or unsubstituted cyclopentadienyl or fluorenyl groups Cp B which are attached to one another by a bridge P corresponding to the formula MR 2, in which M is an element from Group IVA of the Periodic Table of the Elements, and in which R is an alkyl group comprising from 1 to 20 carbon atoms, and - on the other hand, a cocatalyst selected from the group comprising an alkylmagnesium, an alkyllithium, an alkylaluminium or a Grignard reagent or which is composed of a mixture of these constituents, characterized in that, in said general formula B, Cp B is composed of a cyclopentadienyl group substituted by an alkylsilyl radical corresponding to the formula (C 5 H 3) (SiMe 3) or is composed of an unsubstituted fluorenyl group corresponding to the formula C 13 H 8 and Me represents a methyl group. - on the one hand, an organometallic complex represented by the following general formula B: in which Ln represents a lanthanide metal, the atomic number of which may range from 57 to 71, in which X represents a halogen which may be chlorine, fluorine, bromine or iodine, in which, in formula B, a ligand molecule is attached to said metal Ln, which ligand molecule is composed of two substituted or unsubstituted cyclopentadienyl or fluorenyl groups Cp B which are attached to one another by a bridge P corresponding to the formula MR 2, in which M is an element from Group IVA of the Periodic Table of the Elements, and in which R is an alkyl group comprising from 1 to 20 carbon atoms, and in which Ln represents a lanthanide metal, the atomic number of which may range from 57 to 71, in which X represents a halogen which may be chlorine, fluorine, bromine or iodine, in which, in formula B, a ligand molecule is attached to said metal Ln, which ligand molecule is composed of two substituted or unsubstituted cyclopentadienyl or fluorenyl groups Cp B which are attached to one another by a bridge P corresponding to the formula MR 2, in which M is an element from Group IVA of the Periodic Table of the Elements, and in which R is an alkyl group comprising from 1 to 20 carbon atoms, and - on the other hand, a cocatalyst selected from the group comprising an alkylmagnesium, an alkyllithium, an alkylaluminium or a Grignard reagent or which is composed of a mixture of these constituents,
An RFID tag board comprising: an insulating substrate with an upper surface and a lower surface with a recess; an upper surface conductor on the upper surface of the insulating substrate; a ground conductor on the lower surface of the insulating substrate, the ground conductor being electrically connected to the upper surface conductor by a short-circuit portion through conductor that penetrates the insulating substrate in a thickness direction; a capacitance conductor in the insulating substrate, the capacitance conductor facing a portion of the upper surface conductor with a portion of the insulating substrate interposed therebetween; a capacitance portion through conductor that penetrates the insulating substrate in the thickness direction from the capacitance conductor to the ground conductor; and a first electrode and a second electrode in the recess, the first electrode being electrically connected to the capacitance conductor or the ground conductor by a first connection conductor and the second electrode being electrically connected to the upper surface conductor via a second connection conductor, wherein the capacitance conductor is electrically connected to the ground conductor via the capacitance portion through conductor, and wherein the capacitance conductor has a function of imparting a predetermined static capacitance to the upper surface conductor. an insulating substrate with an upper surface and a lower surface with a recess; an upper surface conductor on the upper surface of the insulating substrate; a ground conductor on the lower surface of the insulating substrate, the ground conductor being electrically connected to the upper surface conductor by a short-circuit portion through conductor that penetrates the insulating substrate in a thickness direction; a capacitance conductor in the insulating substrate, the capacitance conductor facing a portion of the upper surface conductor with a portion of the insulating substrate interposed therebetween; a capacitance portion through conductor that penetrates the insulating substrate in the thickness direction from the capacitance conductor to the ground conductor; and a first electrode and a second electrode in the recess, the first electrode being electrically connected to the capacitance conductor or the ground conductor by a first connection conductor and the second electrode being electrically connected to the upper surface conductor via a second connection conductor, wherein the capacitance conductor is electrically connected to the ground conductor via the capacitance portion through conductor, and wherein the capacitance conductor has a function of imparting a predetermined static capacitance to the upper surface conductor.
Arrangement for crushing legumes, in particular cocoa beans, and for separating shells and nibs of the legumes, with a housing arrangement which comprises at least one crusher arrangement and a wind sifter arrangement, wherein the wind sifter arrangement comprises at least one conveyor sieve arrangement that can be moved by means of a drive device and at least one suction device (58, 60) with at least one blower for sucking away shell parts of the legumes, characterized in that at least one image recording device (72, 74, 76, 78, 80) is provided at least for detecting shells in the region of the wind sifter arrangement in such a way that it is possible to determine the volumetric quality of the separation, wherein a display device is provided which displays the volumetric quality of the separation, wherein the at least one image recording device (72, 74, 76, 78, 80) is provided on the housing arrangement in the region of a shell extraction channel (48, 50, 52, 54, 56) of the wind sifter arrangement in such a way that at least a partial region of a volume flow of the extracted shells can be detected.
A device comprising: a multi-capillary array (1, 82) including a plurality of capillaries arranged in a row on a reference plane and filled with a separation medium, each capillary of the plurality having a respective first portion for introducing a sample, and a respective light-irradiatable portion capable of being irradiated with excitation light; a first source of first excitation light beams, disposed in a position to emit first excitation beams in a first direction along a beam path through the light irradiatable portions; and a second source of second excitation light beams disposed in a position to emit second excitation beams in a second direction that is substantially opposite to the first direction and through the light-irradiatable portions; characterised in that the device further comprises: a first polarizing plate disposed along an excitation beam path between the first excitation light source and the multi-capillary array (1, 82); and a half-wave plate (88, 89) disposed along the excitation beam path between the first polarizing plate and the multi-capillary array.. a multi-capillary array (1, 82) including a plurality of capillaries arranged in a row on a reference plane and filled with a separation medium, each capillary of the plurality having a respective first portion for introducing a sample, and a respective light-irradiatable portion capable of being irradiated with excitation light; a first source of first excitation light beams, disposed in a position to emit first excitation beams in a first direction along a beam path through the light irradiatable portions; and a second source of second excitation light beams disposed in a position to emit second excitation beams in a second direction that is substantially opposite to the first direction and through the light-irradiatable portions; characterised in that the device further comprises: a first polarizing plate disposed along an excitation beam path between the first excitation light source and the multi-capillary array (1, 82); and a half-wave plate (88, 89) disposed along the excitation beam path between the first polarizing plate and the multi-capillary array.. a first polarizing plate disposed along an excitation beam path between the first excitation light source and the multi-capillary array (1, 82); and a half-wave plate (88, 89) disposed along the excitation beam path between the first polarizing plate and the multi-capillary array..
A process to form a "first composition comprising a first ethylene/α-olefin interpolymer and a second ethylene/α-olefin interpolymer," said process comprising polymerizing a first mixture comprising ethylene, an α-olefin, and optionally a polyene, in a stirred tank reactor to form a first ethylene/α-olefin interpolymer, and transferring at least some of the first ethylene/α-olefin interpolymer to a loop reactor, and polymerizing, therein, a second mixture comprising ethylene, an alpha-olefin, and optionally a polyene, in the presence of the first ethylene/α-olefin interpolymer, to form the "first composition comprising the first ethylene/α-olefin interpolymer and the second ethylene/α-olefin interpolymer." said process comprising polymerizing a first mixture comprising ethylene, an α-olefin, and optionally a polyene, in a stirred tank reactor to form a first ethylene/α-olefin interpolymer, and transferring at least some of the first ethylene/α-olefin interpolymer to a loop reactor, and polymerizing, therein, a second mixture comprising ethylene, an alpha-olefin, and optionally a polyene, in the presence of the first ethylene/α-olefin interpolymer, to form the "first composition comprising the first ethylene/α-olefin interpolymer and the second ethylene/α-olefin interpolymer."
Method of transmitting, via a sending device, of a data stream made up of data packets, where at least some of said data packets include first time references (3.2) for synchronizing clocks of said sending device and a receiver, characterized in that said method includes at least the following steps: - addition of second time references (3.4) so that said receiver can reconstruct a time-sequencing of said data packets; and - correction of said first time references (3.2) by said sending device so that said receiver can offset jitter introduced by the transmission, said correction of said first time references (3.2) taking into account the difference in accuracy between said first time references (3.2) and said second time references (3.4), said second time references (3.4) being of lesser accuracy than said first time references (3.2). - addition of second time references (3.4) so that said receiver can reconstruct a time-sequencing of said data packets; and - correction of said first time references (3.2) by said sending device so that said receiver can offset jitter introduced by the transmission, said correction of said first time references (3.2) taking into account the difference in accuracy between said first time references (3.2) and said second time references (3.4), said second time references (3.4) being of lesser accuracy than said first time references (3.2).