mhurhangee/patent-ind-claim-en huggingface dataset:
Electrochemical device, forming an SOEC electrolysis or co-electrolysis reactor or an SOFC fuel cell, designed to operate at high temperature, comprising: - a stack of electrochemical cells based on SOEC/SOFC solid oxides; - two end plates , called terminal plates, between which the stack is placed; - two clamping plates of the stack, between which the end plates and the stack are placed; - clamping means between the clamping plates, the clamping means being adapted to clamp the stack and keep it clamped between the terminal plates, regardless of the temperature between the ambient temperature and the high operating temperatures of the device; - a clamping chamber delimited between one of the terminal plates and the adjacent clamping plate , the clamping chamber being connected to a clamping gas circuit at a higher pressure than the inside of the stack. - a stack of electrochemical cells based on SOEC/SOFC solid oxides; - two end plates , called terminal plates, between which the stack is placed; - two clamping plates of the stack, between which the end plates and the stack are placed; - clamping means between the clamping plates, the clamping means being adapted to clamp the stack and keep it clamped between the terminal plates, regardless of the temperature between the ambient temperature and the high operating temperatures of the device; - a clamping chamber delimited between one of the terminal plates and the adjacent clamping plate , the clamping chamber being connected to a clamping gas circuit at a higher pressure than the inside of the stack.
An eNodeB of a multiple input multiple output, MIMO, system, comprising: a processor configured to execute instructions that cause transmission of downlink control information, DCI, that contains information regarding a number of transport blocks to be utilized by a user equipment, UE, and an index value; wherein the number of transport blocks and the index value together indicate to the UE which layer combination or associated combination of dedicated reference ports to utilize; wherein if the UE is from a first set of UEs corresponding to Release 8 UEs, the DCI is configured to carry an indication of precoding matrix indicator, PMI, and if the UE is from a second set of UEs corresponding to beyond Release 8 UEs, the DCI is configured to carry an indication of layers assigned to the UE. a processor configured to execute instructions that cause transmission of downlink control information, DCI, that contains information regarding a number of transport blocks to be utilized by a user equipment, UE, and an index value; wherein the number of transport blocks and the index value together indicate to the UE which layer combination or associated combination of dedicated reference ports to utilize;
A compound having the following structure I: where Ar 1 is unsubstituted phenyl or naphthyl, or phenyl or naphthyl substituted with from 1 to 3 C 1 -C 6 alkyl groups; and Ar 2 is phenyl, phenyl-OCH 2 CH 2 - , naphthyl, naphthyl-CH 2 -, or naphthyl-OCH 2 CH 2 -, wherein the phenyl or naphthyl portion of Ar 2 are unsubstituted or substituted with from 1 to 3 C 1 -C 6 alkyl groups; each R 1 is independently H or C 1 -C 6 -alkyl; m is from 1 to 20; and n is from 1 to 100.
A power electronic assembly comprising a power electronic module having multiple of power electronic components and a cooling element , wherein the cooling element is attached to a surface of the power electronic module and is arranged to transfer heat from the power electronic assembly to a cooling medium, wherein the assembly comprises multiple of vapour chambers arranged to transfer the heat generated by the multiple of power electronic components , wherein at least one vapour chamber of the multiple of vapour chambers is arranged to transfer heat to another vapour chamber of the multiple of vapour chambers , characterized in that at least one of the multiple of vapour chambers is arranged in the power electronic module and at least one of the multiple of vapour chambers is arranged in the cooling element .
A method, performed by a radio network node comprised in a wireless communication system that is a Global System for Mobile communications, GSM, wherein the method comprises: - obtaining (701; 801; 901; 1401) downlink data, which downlink data is data for downlink transmission, and - converting (702; 802-805; 902-905; 1402) the obtained downlink data to a baseband signal, which conversion comprises Gaussian Minimum Shift Keying, GMSK, modulation of the downlink data, characterized by that the modulation applies a negative modulation index selected based on a type of wireless device that is a target for the downlink data and which is a machine type communication, MTC, device . - obtaining (701; 801; 901; 1401) downlink data, which downlink data is data for downlink transmission, and - converting (702; 802-805; 902-905; 1402) the obtained downlink data to a baseband signal, which conversion comprises Gaussian Minimum Shift Keying, GMSK, modulation of the downlink data,
A computer-implemented method comprising: deriving a plurality of meta-feature values from an inference dataset that contains a plurality of data units by, for each meta-feature of a plurality of meta-features, deriving a respective meta-feature value for the inference dataset from multiple data units of the plurality of data units of the inference dataset, wherein each meta-feature characterizes the inference dataset as a whole, and wherein the inference dataset comprises mono-chromatic photographs and/or full-color photographs having pixels; for each algorithm of a plurality of trainable algorithms: for each already trained algorithm-specific meta-model of a respective plurality of algorithm-specific regression meta-models that can predict performance of the algorithm, calculating a respective score emitted by the meta-model, of a plurality of meta-model scores, by stimulating the meta-model with (i) a respective subset of meta-feature values of the plurality of meta-feature values and (ii) a respective subset of hyperparameter values of a plurality of hyperparameters of the algorithm as inference inputs; selecting, based on the plurality of meta-model scores, and training a subset of the plurality of trainable algorithms with the inference dataset or with a training set for which the inference dataset is representative to classify or recognize an object within the inference dataset or a larger data set; wherein training of the plurality of trainable algorithms is limited to said training said subset of the plurality of trainable algorithms. deriving a plurality of meta-feature values from an inference dataset that contains a plurality of data units by, for each meta-feature of a plurality of meta-features, deriving a respective meta-feature value for the inference dataset from multiple data units of the plurality of data units of the inference dataset, wherein each meta-feature characterizes the inference dataset as a whole, and wherein the inference dataset comprises mono-chromatic photographs and/or full-color photographs having pixels; for each algorithm of a plurality of trainable algorithms: for each already trained algorithm-specific meta-model of a respective plurality of algorithm-specific regression meta-models that can predict performance of the algorithm, calculating a respective score emitted by the meta-model, of a plurality of meta-model scores, by stimulating the meta-model with (i) a respective subset of meta-feature values of the plurality of meta-feature values and (ii) a respective subset of hyperparameter values of a plurality of hyperparameters of the algorithm as inference inputs; selecting, based on the plurality of meta-model scores, and training a subset of the plurality of trainable algorithms with the inference dataset or with a training set for which the inference dataset is representative to classify or recognize an object within the inference dataset or a larger data set; wherein training of the plurality of trainable algorithms is limited to said training said subset of the plurality of trainable algorithms.
Fumed silica powder, surface treated with a surface treatment agent selected from the group consisting of organosilanes, silazanes, acyclic polysiloxanes, cyclic polysiloxanes, and mixtures thereof, wherein the powder has: a) a number of silanol groups relative to BET surface area d SiOH of at least 0.85 SiOH/nm 2 , as determined by reaction with lithium aluminium hydride; b) a methanol wettability of more than 40 % by volume of methanol in methanol-water mixture; c) a tamped density of not more than 200 g/L. a) a number of silanol groups relative to BET surface area d SiOH of at least 0.85 SiOH/nm 2 , as determined by reaction with lithium aluminium hydride; b) a methanol wettability of more than 40 % by volume of methanol in methanol-water mixture; c) a tamped density of not more than 200 g/L.
A method for producing hexagonal plate-shaped zinc oxide, the method comprising: a step of preparing a slurry mixture containing starting particulate zinc oxide, a zinc acetate solution, and a chloride; and a step of heat aging the slurry mixture obtained in the step at 60°C to 100°C. a step of preparing a slurry mixture containing starting particulate zinc oxide, a zinc acetate solution, and a chloride; and a step of heat aging the slurry mixture obtained in the step at 60°C to 100°C.
A process for controlling the period of a nanostructured assemblage of a blend of block copolymers, the period, expressed in nm, following the following equation: L 0 = ∑ i = 1 n f i × L 0 i ∑ i = 1 n f i Where f i being the volumic fraction of the i block copolymer in the i solution and L0 i being the period of the i block copolymer after solvent evaporation, the fraction by volume f i being defined by the IUPAC as being the volume of the component i in the i solution divided by the sum of the volumes of all the components in solution used to manufacture this blend, this blend comprising n block copolymers with different molecular weights but for which at least one of the constituent monomers respectively of each of the blocks of the block copolymers is identical, n being a whole number between 2 and 5, comprising the following stages: - blend comprising block copolymers in solution, - deposition of this solution of blend on a surface or in a mold, - annealing. - blend comprising block copolymers in solution, - deposition of this solution of blend on a surface or in a mold, - annealing.
A system which is a portion of a device for distributing herbicide, the system comprising: a housing ; an optical detector in the housing; a first optical source (312-1), wherein: the first optical source is configured to be driven at a first frequency, and the first optical source is oriented in the housing so that light from the first optical source does not have a straight optical path to exit the housing and is received by the optical detector; an electrical network electrically coupled with the optical detector, the electrical network comprising a bandpass filter configured to pass an electrical signal, wherein the bandpass filter is centered at a second frequency; and a controller configured to electronically adjust an electrical component of the bandpass filter to align the second frequency with the first frequency as detected by the optical detector, such that the electrical network is calibrated for passing a modulated signal generated by the optical detector when sensing light emitted from a second optical source modulated at the first frequency. a housing ; an optical detector in the housing; a first optical source (312-1), wherein: the first optical source is configured to be driven at a first frequency, and the first optical source is oriented in the housing so that light from the first optical source does not have a straight optical path to exit the housing and is received by the optical detector; the first optical source is configured to be driven at a first frequency, and the first optical source is oriented in the housing so that light from the first optical source does not have a straight optical path to exit the housing and is received by the optical detector; an electrical network electrically coupled with the optical detector, the electrical network comprising a bandpass filter configured to pass an electrical signal, wherein the bandpass filter is centered at a second frequency; and a controller configured to electronically adjust an electrical component of the bandpass filter to align the second frequency with the first frequency as detected by the optical detector, such that the electrical network is calibrated for passing a modulated signal generated by the optical detector when sensing light emitted from a second optical source modulated at the first frequency.
A method, comprising: Loading, by a vector load-store unit of a vector processor , one or more operand vectors, each vector of the one or more operand vectors being stored in a respective operand vector register; performing, by the vector processor , a conditional test operation on each element at a first address of at least one of the loaded one or more operand vectors according to a first lane count stored in a first lane counter register, the conditional test operations providing a vector of test results; storing, in a first position in a first vector index register for each true result of true results of the conditional test operation, a position of the true result in the vector of test results according to the first lane count; storing, in a first position in a second vector index register for each false result of false results of the conditional test operation, a position of the false result in the vector of test results according to the first lane count; performing, by the vector processor , the conditional test operation on each element at a second address of at least one of the loaded one or more operand vectors according to a second lane count stored in a second lane counter register; storing, in a second position in the first vector index register, a position of the true result in the vector of test results according to the second lane count; and storing, in a second position in the second vector index register, a position of the false result in the vector of test results according to the second lane count. Loading, by a vector load-store unit of a vector processor , one or more operand vectors, each vector of the one or more operand vectors being stored in a respective operand vector register; performing, by the vector processor , a conditional test operation on each element at a first address of at least one of the loaded one or more operand vectors according to a first lane count stored in a first lane counter register, the conditional test operations providing a vector of test results; storing, in a first position in a first vector index register for each true result of true results of the conditional test operation, a position of the true result in the vector of test results according to the first lane count; storing, in a first position in a second vector index register for each false result of false results of the conditional test operation, a position of the false result in the vector of test results according to the first lane count; performing, by the vector processor , the conditional test operation on each element at a second address of at least one of the loaded one or more operand vectors according to a second lane count stored in a second lane counter register; storing, in a second position in the first vector index register, a position of the true result in the vector of test results according to the second lane count; and storing, in a second position in the second vector index register, a position of the false result in the vector of test results according to the second lane count.
A laundry perfuming composition of the type comprising water-soluble, non-polymeric crystal salts in combination with a fragrance in free form characterised in that said crystal salts are furthermore provided with at least a partial coating layer consisting of a fragrance in microcapsules.
Lever handle bearing for a door or window handle detachably fastened thereto, comprising - a rosette which can be fastened to a door or window, - an adapter for torque transmission to a door or window gear, which adapter can be fixedly fastened to the door or window handle and is mounted rotatably relative to the rosette about an axis of rotation (A), - wherein the adapter has an outer surface which is received in a bearing sleeve of the rosette , - wherein a locking slide with a locking pin is displaceably mounted on the rosette , - wherein the lateral surface of the adapter has at least one locking bolt receptacle , - wherein the locking slide is displaceable between a locking position, in which the locking pin projects through a locking pin recess of the bearing sleeve of the rosette into the locking pin receptacle , and a release position, in which the locking pin does not project into the locking pin receptacle in the lateral surface of the adapter , - wherein the locking slide can be latched in the locking position and the release position, characterized in that - the locking slide has a coupling element for releasably coupling an actuating element , with which the locking slide can be displaced from the locking position into the release position, - wherein the coupling element can be coupled to the actuating element via a threaded connection or wherein the coupling element and the actuating element form a bayonet lock. - a rosette which can be fastened to a door or window, - an adapter for torque transmission to a door or window gear, which adapter can be fixedly fastened to the door or window handle and is mounted rotatably relative to the rosette about an axis of rotation (A), - wherein the adapter has an outer surface which is received in a bearing sleeve of the rosette , - wherein a locking slide with a locking pin is displaceably mounted on the rosette , - wherein the lateral surface of the adapter has at least one locking bolt receptacle , - wherein the locking slide is displaceable between a locking position, in which the locking pin projects through a locking pin recess of the bearing sleeve of the rosette into the locking pin receptacle , and a release position, in which the locking pin does not project into the locking pin receptacle in the lateral surface of the adapter , - wherein the locking slide can be latched in the locking position and the release position, - the locking slide has a coupling element for releasably coupling an actuating element , with which the locking slide can be displaced from the locking position into the release position, - wherein the coupling element can be coupled to the actuating element via a threaded connection or wherein the coupling element and the actuating element form a bayonet lock.
A method for preparing an inosine-5'-monophosphate (IMP) fermented broth or a glutamic acid fermented broth, comprising: (a) fermenting a vegetable protein source with Aspergillus sp. microorganism to obtain a grain fermented broth; and (b) fermenting a part of the grain fermented broth with Corynebacterium sp. or Brevibacterium lactofermentum microorganism to prepare the IMP fermented broth or glutamic acid fermented broth. (a) fermenting a vegetable protein source with Aspergillus sp. microorganism to obtain a grain fermented broth; and (b) fermenting a part of the grain fermented broth with Corynebacterium sp. or Brevibacterium lactofermentum microorganism to prepare the IMP fermented broth or glutamic acid fermented broth.
A method of starting a fuel cell system in freezing conditions, the fuel cell system comprising an evaporatively cooled fuel cell assembly having a plurality of fuel cells each having a polymeric ion transfer membrane, the fuel cell system further comprising a coolant storage module , the fuel cell assembly configured to generate electrical power from a fuel flow and an oxidant flow, the method comprising a first phase and a subsequent second phase, the first phase comprising; operating the fuel cell assembly with a first ratio of oxidant flow to fuel flow sufficient to cool the fuel cell assembly so that sufficient electrical power can be generated for the assembly itself to power a first heater element to thaw frozen coolant; wherein said first heater element is located in the coolant storage module for heating coolant in the coolant storage module for supply to said fuel cell assembly ; wherein said operating step comprises operating said assembly at a predetermined current or power output; wherein said operating step comprises progressively increasing the current output of the fuel cell assembly to meet the predetermined current or power output; wherein the predetermined current or power output is modified and/or the progressive increase in current output is actively controlled based on a measure of fuel cell assembly performance; wherein the measure of fuel cell assembly performance comprises one or more of a minimum voltage of a fuel cell or group of fuel cells within the plurality of fuel cells, a standard deviation value of the fuel cell voltage of the plurality of fuel cells, and an average cell voltage of the plurality of fuel cells; wherein during the first phase the fuel cell assembly is not provided with coolant; the second phase comprising; delivering coolant heated in the first phase to the fuel cell assembly ; operating the fuel cell assembly with a second ratio of oxidant flow to fuel flow to generate electrical power, the second ratio lower than the first ratio; wherein in said first phase, the step of operating the fuel cell assembly comprises operating the fuel cell assembly from an off-state, such that said first phase comprises a start-up phase of the fuel cell system .
An optical filter, comprising: an optically transparent substrate; a host material; and a plurality of nanoparticles incorporated into the host material and applied to the substrate as a coating, the plurality of nanoparticles having an average major dimension of less than 120nm and a concentration of the nanoparticles in the host medium of 7.05 ×10 10 particles per cubic centimeter, wherein the substrate, a composition of the host material, and a size and/or composition of the nanoparticles provides an attenuation spectrum having a predetermined central wavelength of 480nm, 590nm, or 620nm, the attenuation spectrum having a full width half maximum of about 50nm about the predetermined central wavelength. an optically transparent substrate; a host material; and a plurality of nanoparticles incorporated into the host material and applied to the substrate as a coating, the plurality of nanoparticles having an average major dimension of less than 120nm and a concentration of the nanoparticles in the host medium of 7.05 ×10 10 particles per cubic centimeter, wherein the substrate, a composition of the host material, and a size and/or composition of the nanoparticles provides an attenuation spectrum having a predetermined central wavelength of 480nm, 590nm, or 620nm, the attenuation spectrum having a full width half maximum of about 50nm about the predetermined central wavelength.