mhurhangee/patent-ind-claim-en huggingface dataset:
A white list creation device comprising: a collection section configured to collect pieces of information about IoT, Internet of Things, apparatuses connected to loT gateways , and white lists stored in the loT gateways , the white lists specifying content of communication allowed for each of the loT apparatuses , wherein the pieces of information include models of the loT apparatuses , the number of loT apparatuses for each model and communication features with a corresponding loT gateway; a calculation section configured to calculate a feature value showing communication features of loT apparatuses for each of the loT gateways , and degrees of similarity in the feature value among the loT gateways , based on the collected pieces of information about the loT apparatuses , wherein the calculation section is configured to calculate, for each of the loT gateways , the feature value based on the number of loT apparatuses for each model and communication features for the model; and an extraction section configured to select a combination of the loT gateways with the calculated similarity degrees that is equal to or above a predetermined threshold, and extract pieces of white list information about an loT apparatus that is included in an existing white list of loT gateways included in the combination but is not included in an existing white list of other loT gateways included in the combination. a collection section configured to collect pieces of information about IoT, Internet of Things, apparatuses connected to loT gateways , and white lists stored in the loT gateways , the white lists specifying content of communication allowed for each of the loT apparatuses , wherein the pieces of information include models of the loT apparatuses , the number of loT apparatuses for each model and communication features with a corresponding loT gateway; a calculation section configured to calculate a feature value showing communication features of loT apparatuses for each of the loT gateways , and degrees of similarity in the feature value among the loT gateways , based on the collected pieces of information about the loT apparatuses , wherein the calculation section is configured to calculate, for each of the loT gateways , the feature value based on the number of loT apparatuses for each model and communication features for the model; and an extraction section configured to select a combination of the loT gateways with the calculated similarity degrees that is equal to or above a predetermined threshold, and extract pieces of white list information about an loT apparatus that is included in an existing white list of loT gateways included in the combination but is not included in an existing white list of other loT gateways included in the combination.
A support assembly comprising: a support rotatably disposed with respect to a frame ; a jack rotatably connected with respect to the support on a side opposite to a rotation center of the support ; and a support heel disposed on a lower surface side of the support to make contact with a member connected to a key , wherein the support is configured of a first main body portion , a bent portion , a second main body portion , and a jack support portion from the rotation center side of the support toward a rotation center side of the jack , and the second main body portion is disposed on a side closer to the key than the first main body portion by the bent portion which couples the first main body portion and the second main body portion , characterized in that the jack support portion projects from the second main body portion toward the side opposite to the key , and the jack is rotatably connected with respect to the jack support portion . a support rotatably disposed with respect to a frame ; a jack rotatably connected with respect to the support on a side opposite to a rotation center of the support ; and a support heel disposed on a lower surface side of the support to make contact with a member connected to a key , wherein the support is configured of a first main body portion , a bent portion , a second main body portion , and a jack support portion from the rotation center side of the support toward a rotation center side of the jack , and the second main body portion is disposed on a side closer to the key than the first main body portion by the bent portion which couples the first main body portion and the second main body portion , characterized in that the jack support portion projects from the second main body portion toward the side opposite to the key , and the jack is rotatably connected with respect to the jack support portion .
A computer-implemented method for identifying a template associated with an image, the method comprising: receiving a digital image, a portion of the digital image depicting a first document including one or more text boxes comprising respective text values; extracting the portion of the digital image; identifying borders associated with the one or more text boxes using image recognition techniques; removing the text values from within the borders associated with the one or more text boxes in the extracted portion of the digital image; down-scaling the portion of the digital image to a predefined size; generating a first hash from the scaled image; comparing the first hash to a set of hashes, each hash corresponding to a template, wherein each template comprises a hash of a respective template document extracted from a respective template image, the template document having had text values removed from the one or more text boxes in the template document; selecting a first template as corresponding to the first document based on the first hash best matching one of the hashes of the set of hashes, wherein each of the templates of the set of templates is associated with data indicative of a size and location of the one or more sections designated for text of the corresponding document; extracting one or more sections of the portion of the digital image based on the selected first template comprising data indicative of a size and location of the one or more sections; and performing optical character recognition on the extracted one or more sections of the portion of the digital image. receiving a digital image, a portion of the digital image depicting a first document including one or more text boxes comprising respective text values; extracting the portion of the digital image; identifying borders associated with the one or more text boxes using image recognition techniques; removing the text values from within the borders associated with the one or more text boxes in the extracted portion of the digital image; down-scaling the portion of the digital image to a predefined size; generating a first hash from the scaled image; comparing the first hash to a set of hashes, each hash corresponding to a template, wherein each template comprises a hash of a respective template document extracted from a respective template image, the template document having had text values removed from the one or more text boxes in the template document; selecting a first template as corresponding to the first document based on the first hash best matching one of the hashes of the set of hashes, wherein each of the templates of the set of templates is associated with data indicative of a size and location of the one or more sections designated for text of the corresponding document; extracting one or more sections of the portion of the digital image based on the selected first template comprising data indicative of a size and location of the one or more sections; and performing optical character recognition on the extracted one or more sections of the portion of the digital image.
A microfluidic device for full blood count, the microfluidic device comprising: - a first measurement channel , - a second measurement channel separated from the first measurement channel , - a first inlet for providing a whole blood sample to the first and second measurement channel , - a second inlet for providing a lysis agent for white blood cell count in to the first channel , - a third inlet for providing a quench solution to the first channel , and - a fourth inlet for providing a lysis agent for hemoglobin measurement to the second channel , - a first micro fluidic snake stage between the second inlet and the third inlet , designed such that the lysis agent can mix by diffusion with the whole blood sample over the first micro fluidic snake stage length such that all red blood cells present in the whole blood sample are lysed, - a second micro fluidic snake stage downstream of the first micro fluidic snake stage and between the third inlet and means for determining white blood cell differential count at the end of the first channel , wherein the second micro fluidic snake stage is designed to mix the lysate resulting from the first micro fluidic snake stage with the quench solution. - a first measurement channel , - a second measurement channel separated from the first measurement channel , - a first inlet for providing a whole blood sample to the first and second measurement channel , - a second inlet for providing a lysis agent for white blood cell count in to the first channel , - a third inlet for providing a quench solution to the first channel , and - a fourth inlet for providing a lysis agent for hemoglobin measurement to the second channel , - a first micro fluidic snake stage between the second inlet and the third inlet , designed such that the lysis agent can mix by diffusion with the whole blood sample over the first micro fluidic snake stage length such that all red blood cells present in the whole blood sample are lysed, - a second micro fluidic snake stage downstream of the first micro fluidic snake stage and between the third inlet and means for determining white blood cell differential count at the end of the first channel , wherein the second micro fluidic snake stage is designed to mix the lysate resulting from the first micro fluidic snake stage with the quench solution.
A polymer dispersion obtainable by free radical polymerization of 10-60% by weight hemicellulose and 40-90% by weight one or more ethylenically unsaturated monomers in the presence of at least one redox initiator, the ethylenically unsaturated monomers comprising a) 0-60% by weight at least one substituted or unsubstituted styrene, b) 10-100% by weight at least one alkyl (meth)acrylate, and/or 10-100% by weight at least one alkyl acrylate, and c) 0-10% by weight at least one further ethylenically unsaturated co-polymerizable monomer, wherein the sum of a) + b) + c) is 100 % characterized in that molecular weight of the hemicellulose is 5-10 kDa and the hemicellulose is selected from xylans and galactoglycomannans. a) 0-60% by weight at least one substituted or unsubstituted styrene, b) 10-100% by weight at least one alkyl (meth)acrylate, and/or 10-100% by weight at least one alkyl acrylate, and c) 0-10% by weight at least one further ethylenically unsaturated co-polymerizable monomer,
A polymer-modified cementitious composition, comprising: (A) an aqueous polymer dispersion comprising a polymer, wherein the polymer comprises, by weight based on the weight of the polymer, (a) a combined amount of more than 1% and up to 1.45% of structural units of carboxylic acid monomers, wherein the carboxylic acid monomers comprise a carboxylic acid functional (meth)acrylate having the structure of formula (I), where n is an integer of from 1 to 12, and R 1 and R 2 are each independently hydrogen or methyl, (b) from 2% to 6% of structural units of a hydroxy-functional alkyl (meth)acrylate, (c) from 15% to 45% of structural units of a vinyl aromatic monomer, (d) from 50% to 80% of structural units of an additional alkyl (meth)acrylate, and (e) less than 0.1% of structural units of (meth)acrylamide; and (B) a cementitious material. (A) an aqueous polymer dispersion comprising a polymer, wherein the polymer comprises, by weight based on the weight of the polymer, (a) a combined amount of more than 1% and up to 1.45% of structural units of carboxylic acid monomers, wherein the carboxylic acid monomers comprise a carboxylic acid functional (meth)acrylate having the structure of formula (I), where n is an integer of from 1 to 12, and R 1 and R 2 are each independently hydrogen or methyl, (b) from 2% to 6% of structural units of a hydroxy-functional alkyl (meth)acrylate, (c) from 15% to 45% of structural units of a vinyl aromatic monomer, (d) from 50% to 80% of structural units of an additional alkyl (meth)acrylate, and (e) less than 0.1% of structural units of (meth)acrylamide; and (a) a combined amount of more than 1% and up to 1.45% of structural units of carboxylic acid monomers, wherein the carboxylic acid monomers comprise a carboxylic acid functional (meth)acrylate having the structure of formula (I), where n is an integer of from 1 to 12, and R 1 and R 2 are each independently hydrogen or methyl, (b) from 2% to 6% of structural units of a hydroxy-functional alkyl (meth)acrylate, (c) from 15% to 45% of structural units of a vinyl aromatic monomer, (d) from 50% to 80% of structural units of an additional alkyl (meth)acrylate, and (e) less than 0.1% of structural units of (meth)acrylamide; and (B) a cementitious material.
An ex vivo method for generating neurons comprising contacting glial cells with a group of compounds comprising a combination of at least three of Crizotinib (Cri), Flurbiprofen (Flu), Lithium Chloride (Li), Vitamin C (VC), Ceritinib (Cer) and Pirfenidone (PFD).
Car transport unit for a car of a passenger transport system, the car transport unit comprising the car , a shaft segment of the passenger transport system, and a plurality of detachable transport devices , the car being arranged in the shaft segment and being connected to the shaft segment in a safe-to-transport manner using the transport devices , characterized in that each of the transport devices comprises a car side, a shaft side, and an intermediate part , adjustable in length, between the car side and the shaft side, the car side comprising at least one contact surface for abutting the car , and the shaft side comprising at least one contact surface for abutting a shaft segment of the passenger transport system.
A phospholipid emulsifier composition comprising Phosphatidyl Choline (PC), Lyso Phosphatidyl Choline (LPC), Phosphatidyl Inositol (PI), Phosphatidyl Ethanolamine (PE) and Phosphatidic Acid (PA), wherein the emulsifier has a phospholipid ratio R 1 : R 2 in the range of from 1 : 1 to 1,7 : 1, wherein R 1 is defined as the weight ratio of phospholipid components according to general formula I: R 1 = PC + LPC + PI + PA PE and wherein R 2 is defined as the weight ratio of phospholipid components according to general formula II: R 2 = PC + LPC + PI PE + PA and wherein the amount of PC is at most 12 weight%.
A method for producing a positive electrode active material for nonaqueous electrolyte secondary batteries, the method comprising: a mixing step of preparing a mixture comprising fine carbon particles, an organic dispersant, a hydrophobic coat formingagent, an organic solvent, and positive electrode active material particles, wherein the mixing step comprises preparing the mixture in such a manner that an average particle diameter of the fine carbon particles in the mixture is 10 to 100 nm; a drying step of drying the mixture to obtain the mixture containing the organic solvent in a reduced amount; and aheat treatment step of heat-treating the mixture containing the organic solvent in the reduced amount to obtain a positive electrode active material having a coating layer comprising at least the fine carbon particles, the organic dispersant, and the hydrophobic coat forming agent; wherein the hydrophobic coat forming agent is hydroxyl-containing polydimethylsiloxane; and the average particle diameter is a volume mean diameter obtained by laser diffraction/scattering. a mixing step of preparing a mixture comprising fine carbon particles, an organic dispersant, a hydrophobic coat formingagent, an organic solvent, and positive electrode active material particles, wherein the mixing step comprises preparing the mixture in such a manner that an average particle diameter of the fine carbon particles in the mixture is 10 to 100 nm; a drying step of drying the mixture to obtain the mixture containing the organic solvent in a reduced amount; and aheat treatment step of heat-treating the mixture containing the organic solvent in the reduced amount to obtain a positive electrode active material having a coating layer comprising at least the fine carbon particles, the organic dispersant, and the hydrophobic coat forming agent; wherein the hydrophobic coat forming agent is hydroxyl-containing polydimethylsiloxane; and the average particle diameter is a volume mean diameter obtained by laser diffraction/scattering.
A control system for use in a fluid flow application comprising: a heater having at least one resistive heating element (140, 140', 140", 140'"), the heater being operable to heat fluid; and a control device that determines the at least one flow characteristic based on a heat loss of the at least one resistive heating element (140, 140', 140", 140'") and determines a mass flow rate of the fluid based on the at least one flow characteristic and a property of the at least one resistive heating element, characterized in that the property of the at least one resistive heating element (140, 140', 140", 140"') includes a change in resistance of the at least one resistive heating element (140, 140', 140", 140'") under a given heat flux density. a heater having at least one resistive heating element (140, 140', 140", 140'"), the heater being operable to heat fluid; and a control device that determines the at least one flow characteristic based on a heat loss of the at least one resistive heating element (140, 140', 140", 140'") and determines a mass flow rate of the fluid based on the at least one flow characteristic and a property of the at least one resistive heating element, characterized in that the property of the at least one resistive heating element (140, 140', 140", 140"') includes a change in resistance of the at least one resistive heating element (140, 140', 140", 140'") under a given heat flux density.
A genetically modified Chinese hamster ovary (CHO) cell line in which entry and/or propagation of minute virus of mouse (MVM) is reduced or eliminated as compared to an unmodified parental cell line, wherein the genetically modified cell line comprises a modified chromosomal sequence comprising an inactivated chromosomal sequence encoding St3 beta-galactoside alpha-2,3-sialyltransferase 4 (St3Gal4).
A method of detecting a PRKC fusion protein or a PRKC gene fusion in a biological sample, wherein the PRKC fusion protein or gene fusion is selected from an IGF2BP3:PRKCA, TANC2:PRKCA, ADCY9:PRKCB, and SPNS1:PRKCB fusion, said method comprising: (a) contacting a biological sample from a mammal with a reagent selected from: (i) an antibody that binds to the PRKC fusion protein, but does not bind to wild-type PRKC, IGF2BP3, TANC2, ADCY9, or SPNS1; and (ii) an oligonucleotide that hybridizes to the fusion junction of the PRKC gene fusion; and (b) detecting binding between the PRKC fusion protein or the PRKC gene fusion and the reagent. (a) contacting a biological sample from a mammal with a reagent selected from: (i) an antibody that binds to the PRKC fusion protein, but does not bind to wild-type PRKC, IGF2BP3, TANC2, ADCY9, or SPNS1; and (ii) an oligonucleotide that hybridizes to the fusion junction of the PRKC gene fusion; and (i) an antibody that binds to the PRKC fusion protein, but does not bind to wild-type PRKC, IGF2BP3, TANC2, ADCY9, or SPNS1; and (ii) an oligonucleotide that hybridizes to the fusion junction of the PRKC gene fusion; and (b) detecting binding between the PRKC fusion protein or the PRKC gene fusion and the reagent.
A component comprising: a composite material, said composite material comprising: a planar region adjacent to and substantially surrounding an access opening , said access opening extending through the composite material, said planar region comprising a first thickness; an induced reinforcing region , said induced reinforcement region located a predetermined distance from the access opening, and said induced reinforcement region comprising a geometric perimeter , said geometric perimeter surrounding the access opening, said geometric perimeter comprising a second thickness; wherein the first thickness and the second thickness are substantially equivalent, wherein the induced reinforcing region comprises a reinforcing segment that is out-of-plane as compared to the planar region. a planar region adjacent to and substantially surrounding an access opening , said access opening extending through the composite material, said planar region comprising a first thickness; an induced reinforcing region , said induced reinforcement region located a predetermined distance from the access opening, and said induced reinforcement region comprising a geometric perimeter , said geometric perimeter surrounding the access opening, said geometric perimeter comprising a second thickness; wherein the first thickness and the second thickness are substantially equivalent, wherein the induced reinforcing region comprises a reinforcing segment that is out-of-plane as compared to the planar region. wherein the first thickness and the second thickness are substantially equivalent, wherein the induced reinforcing region comprises a reinforcing segment that is out-of-plane as compared to the planar region.
A method for gain shape vector quantization of a target vector x comprising plurality of coefficients derived from an audio signal, where a gain of the target vector x is quantized by a gain quantizer and a shape of the target vector x is quantized by a split vector quantizer, and where a maximum number of bits, B MAX , allowed for quantizing a vector segment is constrained by the split vector Quantizer, the method being performed by an audio encoder, the method comprising: - determining an initial number, Np _init , of segments for the target vector x based on a ratio between a number of bits allocated for quantizing the shape of the target vector x and B MAX ; - determining energy of each Np _init target vector segment by summing energies of vector coefficients; - determining an average number of bits per segment, B AVG , based on a ratio between the number of bits allocated for quantizing the shape of the target vector x and Np _init ; - determining a final number. Np, of segments by increasing the initial number Np _init of segments by one if a maximum deviation of a target vector segment energy from an average per-segment energy value, E AVG , is larger than a threshold proportional to the difference between B MAX and B AVG ; - providing the final number Np to the split vector quantizer to be used in Quantization of the shape of the target vector x; and - indicating the increase of the number of segments to an audio decoder. - determining an initial number, Np _init , of segments for the target vector x based on a ratio between a number of bits allocated for quantizing the shape of the target vector x and B MAX ; - determining energy of each Np _init target vector segment by summing energies of vector coefficients; - determining an average number of bits per segment, B AVG , based on a ratio between the number of bits allocated for quantizing the shape of the target vector x and Np _init ; - determining a final number. Np, of segments by increasing the initial number Np _init of segments by one if a maximum deviation of a target vector segment energy from an average per-segment energy value, E AVG , is larger than a threshold proportional to the difference between B MAX and B AVG ; - providing the final number Np to the split vector quantizer to be used in Quantization of the shape of the target vector x; and - indicating the increase of the number of segments to an audio decoder.