mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a receiver to receive encoded data transmitted simultaneously as a plurality of M different sequences of transmitted symbols from different transmit antennas using a plurality of m modulation levels, where M and m are integers and each of the transmitted symbols represents a plurality of bits of the encoded data, the method comprising: providing N received symbol combinations by receiving at a plurality of N receive antennas (202, 204), where N is an integer, the plurality of M different sequences of transmitted symbols, wherein each received symbol combination comprises M simultaneously received ones of the transmitted symbols; characterised by: generating from the N received symbol combinations M pre-processed signals by performing interference cancellation, in which interference cancellation a different symbol of the respective received symbol combination is a wanted signal and the other symbols of the respective received symbol combination are interfering signals; generating from each of the M pre-processed signals a list of up to m initial candidate symbol combinations by, for each of the up to m initial candidate symbol combinations, selecting a first initial symbol indicative of a different one of the m modulation levels and selecting M-1 further initial symbols; generating from the lists of initial candidate symbol combinations an initial estimate of the transmitted symbols; and decoding bits represented by the initial estimate of the transmitted symbols. providing N received symbol combinations by receiving at a plurality of N receive antennas (202, 204), where N is an integer, the plurality of M different sequences of transmitted symbols, wherein each received symbol combination comprises M simultaneously received ones of the transmitted symbols; characterised by: generating from the N received symbol combinations M pre-processed signals by performing interference cancellation, in which interference cancellation a different symbol of the respective received symbol combination is a wanted signal and the other symbols of the respective received symbol combination are interfering signals; generating from each of the M pre-processed signals a list of up to m initial candidate symbol combinations by, for each of the up to m initial candidate symbol combinations, selecting a first initial symbol indicative of a different one of the m modulation levels and selecting M-1 further initial symbols; generating from the lists of initial candidate symbol combinations an initial estimate of the transmitted symbols; and decoding bits represented by the initial estimate of the transmitted symbols.
A hermetically sealed pod (30, 70, 90, 100) comprising: a body (38, 78, 98, 118) having a bottom wall and a side wall and defining an inner compartment; a nutritional liquid concentrate or nutritional powder (42, 82, 102, 122) disposed in the inner compartment; a nozzle (32, 72, 92,112) operable to diffuse a first flow of fluid introduced into the pod (30, 70, 90, 100) prior to the fluid contacting the nutritional liquid concentrate or nutritional powder (42, 82, 102, 122); said pod (30, 70, 90, 100) being characterised by further comprising: a fluid inlet port (44, 84, 104, 124), separate from the nozzle (32, 72, 92, 112), operable to introduce a second flow of fluid into the pod (30, 70, 90, 100). a body (38, 78, 98, 118) having a bottom wall and a side wall and defining an inner compartment; a nutritional liquid concentrate or nutritional powder (42, 82, 102, 122) disposed in the inner compartment; a nozzle (32, 72, 92,112) operable to diffuse a first flow of fluid introduced into the pod (30, 70, 90, 100) prior to the fluid contacting the nutritional liquid concentrate or nutritional powder (42, 82, 102, 122); said pod (30, 70, 90, 100) being characterised by further comprising: a fluid inlet port (44, 84, 104, 124), separate from the nozzle (32, 72, 92, 112), operable to introduce a second flow of fluid into the pod (30, 70, 90, 100).
A knife holding apparatus, in particular for derinding machines, having a knife holder which has a lower part and a clamping element, in particular of plate shape, wherein the clamping element is adjustable between a clamping position and a release position to selectively clamp or release a knife blade insertable between the lower part and the clamping element; and a clamping device (19, 53) engaging at the clamping element for the adjustment of the clamping element between the release position and the clamping position, characterized in that the lower part has a counter support for the clamping element which cooperates with the clamping element such that the clamping element carries out a rotary movement or a tilting movement about the counter support on the adjustment.
A method for inter-device communication, the method comprising: receiving, by a first device, a bit sequence from a second device via a serial communication cable having one or more wires that connect the first device to a first set of one or more pins of a first chip of the second device, the first chip having a second set of pins, wherein, for each respective pin of the second set of pins, the bit sequence includes a set of one or more bits for the respective pin based at least in part on whether a first voltage or a second voltage is applied to the respective pin, the first voltage being different from the second voltage; determining, by the first device, based on the bit sequence, a type of the second device; generating, by the first device, based on the type of the second device, data appropriate for use by devices that belong to the type of the second device; and sending, by the first device, the data to the second device via the serial communication cable. receiving, by a first device, a bit sequence from a second device via a serial communication cable having one or more wires that connect the first device to a first set of one or more pins of a first chip of the second device, the first chip having a second set of pins, wherein, for each respective pin of the second set of pins, the bit sequence includes a set of one or more bits for the respective pin based at least in part on whether a first voltage or a second voltage is applied to the respective pin, the first voltage being different from the second voltage; determining, by the first device, based on the bit sequence, a type of the second device; generating, by the first device, based on the type of the second device, data appropriate for use by devices that belong to the type of the second device; and sending, by the first device, the data to the second device via the serial communication cable.
A composition for forming a composite, the composition comprising: a cellulose-based compound, a polyphenol-based compound, and a solvent, wherein the cellulose-based compound is hydroxypropyl methylcellulose (HPMC), and wherein the hydroxypropyl methylcellulose has methoxy group of 16.5 to 30.0 wt% and hydroxypropoxyl group of 4 to 32 wt%, wherein an amount of the polyphenol-based compound is 5 to 30 parts by weight based on 100 parts by weight of the cellulose-based compound, the composition further comprising an antioxidant in an amount of 1 to 10 parts by weight based on 100 parts by weight of the cellulose-based compound, and wherein the antioxidant comprises ascorbic acid, butylhydroxyanisole, erythorbic acid, propyl gallate, rosemary oil, dibutyl hydroxy toluene, quercetin, tocopherol, or a mixture thereof. a cellulose-based compound, a polyphenol-based compound, and a solvent, wherein the cellulose-based compound is hydroxypropyl methylcellulose (HPMC), and wherein the hydroxypropyl methylcellulose has methoxy group of 16.5 to 30.0 wt% and hydroxypropoxyl group of 4 to 32 wt%, wherein an amount of the polyphenol-based compound is 5 to 30 parts by weight based on 100 parts by weight of the cellulose-based compound, the composition further comprising an antioxidant in an amount of 1 to 10 parts by weight based on 100 parts by weight of the cellulose-based compound, and wherein the antioxidant comprises ascorbic acid, butylhydroxyanisole, erythorbic acid, propyl gallate, rosemary oil, dibutyl hydroxy toluene, quercetin, tocopherol, or a mixture thereof.
A fusion protein comprising a polypeptide and a second moiety, wherein the polypeptide comprises an N-terminal leucine rich repeat (LLRNT), one or more leucine rich repeats (LRRs), a C-terminal leucine rich repeat (LLRCT), and a connecting peptide, wherein the connecting peptide comprises an alpha helix, wherein the polypeptide is a variable lymphocyte receptor or fragment thereof, and wherein the VLR or fragment thereof selectively binds an antigen and can function in adaptive immunity.
A base station, comprising: a configuration information determination module, configured to determine channel quality indication, CQI, feedback configuration information of a target user equipment, UE, wherein the CQI feedback configuration information at least comprises CQI feedback configuration information of an interference sub-band, and the interference sub-band is a downlink, DL, frequency range involved in intra-device interference, the CQI feedback configuration information of the interference sub-band being used for instructing the target UE to feed back CQI information of the interference sub-band; a sending module, configured to send the CQI feedback configuration information to the target UE; and a target CQI determination module, configured to determine target CQI information for subsequent DL scheduling based on CQI information of different bandwidth granularities and reported by the target UE based on the CQI feedback configuration information. a configuration information determination module, configured to determine channel quality indication, CQI, feedback configuration information of a target user equipment, UE, wherein the CQI feedback configuration information at least comprises CQI feedback configuration information of an interference sub-band, and the interference sub-band is a downlink, DL, frequency range involved in intra-device interference, the CQI feedback configuration information of the interference sub-band being used for instructing the target UE to feed back CQI information of the interference sub-band; a sending module, configured to send the CQI feedback configuration information to the target UE; and a target CQI determination module, configured to determine target CQI information for subsequent DL scheduling based on CQI information of different bandwidth granularities and reported by the target UE based on the CQI feedback configuration information.
A method for operating an agricultural transport wagon which is drawn by a tractor vehicle or is self-propelled, wherein, when a loading space cover of the transport wagon is open, a loading space of the transport wagon is loaded with harvested produce from a harvesting vehicle travelling adjacent to the transport wagon and the loading space is delimited by a front wall, a rear wall, side walls (8, 9) as well as a floor wall, characterized in that the loading space cover is provided with a first segment articulated to an upper section of the first side wall as well as a second segment articulated to an upper section of the opposing second side wall and an opening position of the loading space cover is selected as a function of a relative position between the transport wagon and the harvesting vehicle, wherein when the harvesting vehicle is positioned alongside the transport wagon, in order to load the transport wagon, an opening position of the loading space cover is selected in which the segment (12, 13) of the loading space cover which is articulated to the side wall of the transport wagon facing away from the harvesting vehicle is partially opened in a manner such that a projection area for the harvested produce to be loaded from the harvesting vehicle is enlarged, and when the transport wagon is positioned behind the harvesting vehicle, in order to load the transport wagon, an opening position of the space cover is selected in which the segments (12, 13) of the space cover articulated to the opposing side walls (8, 9) of the transport wagon are partially opened in a manner such that they are positioned above the side walls (8, 9) of the transport wagon and are joined thereto in the shape of a funnel.
A method of producing a support structure for lighting devices, the support structure including: - a circuit board portion with a front surface for mounting at least one electrically powered light radiation source, the circuit board portion having electrically conductive lines printed onto said front surface of the circuit board portion for electrically powering said at least one light radiation source, and - a heat sink portion coupled to the back face of the circuit board portion to dissipate heat produced by said at least one light radiation source, wherein: - the heat sink portion includes a thermally conductive thermoplastic material, - the circuit board portion and the heat sink portion are moulded together and bonded in the absence of thermal interfaces therebetween by - overmoulding the heat sink portion onto the circuit board portion, or - moulding the heat sink portion and co-moulding the printed circuit board portion with the heat sink portion, and wherein - the electrically conductive lines are printed onto said front surface of the circuit board portion after it has been coupled to the heat sink portion. - a circuit board portion with a front surface for mounting at least one electrically powered light radiation source, the circuit board portion having electrically conductive lines printed onto said front surface of the circuit board portion for electrically powering said at least one light radiation source, and - a heat sink portion coupled to the back face of the circuit board portion to dissipate heat produced by said at least one light radiation source, wherein: - the heat sink portion includes a thermally conductive thermoplastic material, - the circuit board portion and the heat sink portion are moulded together and bonded in the absence of thermal interfaces therebetween by - overmoulding the heat sink portion onto the circuit board portion, or - moulding the heat sink portion and co-moulding the printed circuit board portion with the heat sink portion, and wherein - the electrically conductive lines are printed onto said front surface of the circuit board portion after it has been coupled to the heat sink portion. - the heat sink portion includes a thermally conductive thermoplastic material, - the circuit board portion and the heat sink portion are moulded together and bonded in the absence of thermal interfaces therebetween by - overmoulding the heat sink portion onto the circuit board portion, or - moulding the heat sink portion and co-moulding the printed circuit board portion with the heat sink portion, and wherein - the electrically conductive lines are printed onto said front surface of the circuit board portion after it has been coupled to the heat sink portion.
A method for pre-coding, comprising: calculating a pre-coding matrix for each transmitting end; and using the pre-coding matrix to pre-code data to be transmitted by each transmitting end; characterized in calculating the pre-coding matrix by constructing a Lagrangian function according to a minimum value of a sum of mean square errors of data vectors to be transmitted by each transmitting end; or of a product of a sum of mean square errors of data vectors to be transmitted by each transmitting end and a weight factor; or of a sum of or a difference between a sum of mean square errors of data vectors to be transmitted by each transmitting end and a bias parameter; and a corresponding transmission power constraint of a transmitting end; and by obtaining an expression of the pre-coding matrix and an expression of a decoding matrix according to an optimization condition of the Lagrangian function; and by using the expression of the pre-coding matrix and the expression of the decoding matrix and an initial value of the pre-coding matrix to calculate through iteration to obtain the pre-coding matrix. calculating a pre-coding matrix for each transmitting end; and using the pre-coding matrix to pre-code data to be transmitted by each transmitting end; characterized in calculating the pre-coding matrix by constructing a Lagrangian function according to a minimum value of a sum of mean square errors of data vectors to be transmitted by each transmitting end; or of a product of a sum of mean square errors of data vectors to be transmitted by each transmitting end and a weight factor; or of a sum of or a difference between a sum of mean square errors of data vectors to be transmitted by each transmitting end and a bias parameter; and a corresponding transmission power constraint of a transmitting end; and a minimum value of a sum of mean square errors of data vectors to be transmitted by each transmitting end; or of a product of a sum of mean square errors of data vectors to be transmitted by each transmitting end and a weight factor; or of a sum of or a difference between a sum of mean square errors of data vectors to be transmitted by each transmitting end and a bias parameter; and a sum of mean square errors of data vectors to be transmitted by each transmitting end; or of a product of a sum of mean square errors of data vectors to be transmitted by each transmitting end and a weight factor; or of a sum of or a difference between a sum of mean square errors of data vectors to be transmitted by each transmitting end and a bias parameter; and a corresponding transmission power constraint of a transmitting end; and by obtaining an expression of the pre-coding matrix and an expression of a decoding matrix according to an optimization condition of the Lagrangian function; and by using the expression of the pre-coding matrix and the expression of the decoding matrix and an initial value of the pre-coding matrix to calculate through iteration to obtain the pre-coding matrix.
A method for producing hydroxypropylmethylcellulose having an average substitution degree of a methoxy group of 1.0 to 2.0 per glucose unit, an average substitution degree of a hydroxypropoxy group of 0.05 to 0.4 per glucose unit, and an A/B value of 0.305 or greater wherein A represents a substitution degree of a methoxy group directly substituted for a hydroxy group on carbon at position 6 in a glucose unit free from a hydroxypropoxy group-substituted hydroxy group, B represents a substitution degree of a methoxy group per glucose unit, and the A/B value represents a value of A divided by B, the method comprising at least the steps of: reacting a pulp with an alkali to obtain alkali cellulose; and adding a methyl etherification agent and a hydroxypropyl etherification agent to react with the alkali cellulose to obtain hydroxypropylmethylcellulose, wherein addition rates of the methyl etherification agent and the hydroxypropyl etherification agent are adjusted such that a reacted portion of the hydroxypropyl etherification agent becomes less than 50% at the time when a reacted portion of the methyl etherification agent is 50% or more, or such that a reacted portion of the hydroxypropyl etherification agent becomes less than 30% at the time when a reacted portion of the methyl etherification agent is 30% or more, so as to obtain a C/D value of 0.28 or less wherein C represents the average substitution degree of a hydroxypropoxy group per glucose unit of the hydroxypropylmethylcellulose, D represents the number of moles of the hydroxypropyl etherification agent per glucose unit of the hydroxypropylmethylcellulose, and the C/D value represents a value of C divided by D. reacting a pulp with an alkali to obtain alkali cellulose; and adding a methyl etherification agent and a hydroxypropyl etherification agent to react with the alkali cellulose to obtain hydroxypropylmethylcellulose, wherein addition rates of the methyl etherification agent and the hydroxypropyl etherification agent are adjusted such that a reacted portion of the hydroxypropyl etherification agent becomes less than 50% at the time when a reacted portion of the methyl etherification agent is 50% or more, or such that a reacted portion of the hydroxypropyl etherification agent becomes less than 30% at the time when a reacted portion of the methyl etherification agent is 30% or more, so as to obtain a C/D value of 0.28 or less wherein C represents the average substitution degree of a hydroxypropoxy group per glucose unit of the hydroxypropylmethylcellulose, D represents the number of moles of the hydroxypropyl etherification agent per glucose unit of the hydroxypropylmethylcellulose, and the C/D value represents a value of C divided by D.
A high-strength copolymerized aramid fiber, comprising aramid copolymers which contain an aromatic group substituted with a cyano group (-CN), so as to have an intrinsic viscosity of 6.0 to 8.5, a polydispersity index of 1.5 to 2.0, and a strength of 20 to 28 cN/dtex (23 to 32 g/d), wherein intrinsic viscosity is defined by the following equation: IV = ln η rel / C wherein C denotes a concentration of a polymer solution prepared by dissolving 0.5 g of polymer in 100 ml of concentrated sulfuric acid with a concentration of 95 to 98%, and the relative viscosity (ηrel) is a ratio of flow times between the polymer solution and the solvent, which is measured by a capillary viscometer at 30°C, wherein polydispersity index is determined by dissolving the aramid fiber in dimethylformamide to prepare a sample; A weight average molecular weight and a number average molecular weight of the prepared sample are determined, respectively, using a Shodex GPC column of Waters manual injector kit at a temperature of 35°C under a flow rate of 10 ml/min through a gel permeation chromatography equipped with a refraction index detector; With the measured values, a molecular weight distribution is calculated by Equation 1 below. Polydispersity index PDI = Mw / Mn, wherein Mw denotes a weight average molecular weight, and Mn denotes a number average molecular weight; and wherein strength is determined from the maximum load according to an ASTM D885 test method by tensioning a sample in Instron tester until the copolymerized aramid fiber having a length of 25 cm is broken, a tensile velocity is set to 300 m/min and an initial load is set to fineness × 1/30 g; After testing 5 samples, an average of tested values is estimated. wherein C denotes a concentration of a polymer solution prepared by dissolving 0.5 g of polymer in 100 ml of concentrated sulfuric acid with a concentration of 95 to 98%, and the relative viscosity (ηrel) is a ratio of flow times between the polymer solution and the solvent, which is measured by a capillary viscometer at 30°C, wherein polydispersity index is determined by dissolving the aramid fiber in dimethylformamide to prepare a sample; A weight average molecular weight and a number average molecular weight of the prepared sample are determined, respectively, using a Shodex GPC column of Waters manual injector kit at a temperature of 35°C under a flow rate of 10 ml/min through a gel permeation chromatography equipped with a refraction index detector; With the measured values, a molecular weight distribution is calculated by Equation 1 below. wherein Mw denotes a weight average molecular weight, and Mn denotes a number average molecular weight; and wherein strength is determined from the maximum load according to an ASTM D885 test method by tensioning a sample in Instron tester until the copolymerized aramid fiber having a length of 25 cm is broken, a tensile velocity is set to 300 m/min and an initial load is set to fineness × 1/30 g; After testing 5 samples, an average of tested values is estimated.