mhurhangee/ep-ind-claims huggingface dataset:
A low friction polymerizable composition comprising: 100 parts by weight of a phthalonitrile compound; 0.02 to 1.5 moles of a curing agent, based on 1 mole of the phthalonitrile compound; and 5 to 100 parts by weight of a filler, wherein the curing agent is an imide-based compound represented by the following Chemical Formula 9: wherein, in Chemical Formula 9, M is a tetravalent radical derived from an aliphatic, alicyclic, or aromatic compound, each of X 1 and X 2 is independently an alkylene group, an alkylidene group, or a divalent radical derived from an aromatic compound, and n is a number in the range of 2 to 200. 100 parts by weight of a phthalonitrile compound; 0.02 to 1.5 moles of a curing agent, based on 1 mole of the phthalonitrile compound; and 5 to 100 parts by weight of a filler, wherein the curing agent is an imide-based compound represented by the following Chemical Formula 9: wherein, in Chemical Formula 9, M is a tetravalent radical derived from an aliphatic, alicyclic, or aromatic compound, each of X 1 and X 2 is independently an alkylene group, an alkylidene group, or a divalent radical derived from an aromatic compound, and n is a number in the range of 2 to 200.
A method for diagnosing a milk allergy in a subject comprising: a) providing a plurality of peptides selected from among SEQ ID NOs:1-33, wherein the plurality of peptides consists of all 33 peptides of SEQ ID NOs:1-33, a subset of 20-25 peptides, a subset of 15-20 peptides, a subset of 10-15 peptides, a subset of 5-10 peptides, or a subset of 2-5 peptides, each peptide conjugated to a separately identifiable solid support; b) contacting each solid support with serum obtained from the subject under conditions sufficient to permit binding of allergy associated immunoglobulin in the serum to the peptide on each solid support to form a peptide-IgE complex; c) binding an AAI-specific labeling reagent to the peptide-AAI complex; and d) analyzing binding of the labeling reagent to each peptide-AAI complex to identify peptides recognized by the AAI in the serum of the subject; wherein recognition of at least one peptide by AAI in the serum of the subject indicates that the subject is allergic to milk. a) providing a plurality of peptides selected from among SEQ ID NOs:1-33, wherein the plurality of peptides consists of all 33 peptides of SEQ ID NOs:1-33, a subset of 20-25 peptides, a subset of 15-20 peptides, a subset of 10-15 peptides, a subset of 5-10 peptides, or a subset of 2-5 peptides, each peptide conjugated to a separately identifiable solid support; b) contacting each solid support with serum obtained from the subject under conditions sufficient to permit binding of allergy associated immunoglobulin in the serum to the peptide on each solid support to form a peptide-IgE complex; c) binding an AAI-specific labeling reagent to the peptide-AAI complex; and d) analyzing binding of the labeling reagent to each peptide-AAI complex to identify peptides recognized by the AAI in the serum of the subject;
An apparatus comprising: a first circuitry (112, 218) to perform, in response to a first message from an operating system, a first process to place a computer device in a first operating mode, store state information in a volatile memory of the computer device, and start a timer for a time-out period for performing the first process, wherein first components of the computer device are in a low power state and the volatile memory is operational in the first operating mode; a second circuitry (112, 224) to detect, after expiration of the time-out period, a failure of the first process; and a third circuitry (112, 234) to perform, in response to the detected failure of the first process, a second process to place the computer device in a second operating mode and store state information in a non-volatile memory of the computer device, wherein the volatile memory is in a low power state in the second operating mode. a first circuitry (112, 218) to perform, in response to a first message from an operating system, a first process to place a computer device in a first operating mode, store state information in a volatile memory of the computer device, and start a timer for a time-out period for performing the first process, wherein first components of the computer device are in a low power state and the volatile memory is operational in the first operating mode; a second circuitry (112, 224) to detect, after expiration of the time-out period, a failure of the first process; and a third circuitry (112, 234) to perform, in response to the detected failure of the first process, a second process to place the computer device in a second operating mode and store state information in a non-volatile memory of the computer device, wherein the volatile memory is in a low power state in the second operating mode.
A method of manufacturing fuel pellets or briquettes from wood, wherein: - fragments of this wood are subjected to a first treatment in an enclosure, by injecting steam between 200 and 300 °C and increasing the pressure to 10 to 30 bar, - then to a second treatment of explosive decompression by sudden decrease of the said pressure so as to cause the bursting of the said fragments; - said fragments are recovered and transformed into pellets or briquettes, after a prior drying step, characterized in that said wood fragments are wood fragments comprising at least one exogenous pollutant, in that the nature and the proportion of said at least one pollutant are determined before the implementation of said first treatment and in that the duration of this first treatment is adapted as a function of the nature of the major pollutant. - fragments of this wood are subjected to a first treatment in an enclosure, by injecting steam between 200 and 300 °C and increasing the pressure to 10 to 30 bar, - then to a second treatment of explosive decompression by sudden decrease of the said pressure so as to cause the bursting of the said fragments; - said fragments are recovered and transformed into pellets or briquettes, after a prior drying step,
A population of particles having a coefficient of variance in particle size of not greater than 5% and comprising a polymer derived from polymerization of a compound of the formula: wherein R 1 is an alkylene group having between 3 and 10 carbons or is a polyether group having between 1 and 10 ether units, wherein R 2 is a linear or branched alkyl group having between 3 and 8 carbons or a silyl group, and wherein R 3 is hydrogen or an alkyl group having between 1 and 6 carbons; wherein after removal of R 2, the particle absorbs at least 300 wt% and not greater than 10 6 wt% water based on the weight of the polymer when exposed to water; and wherein the coefficient of variance is 100 times the standard deviation in particle size divided by the mode particle diameter as measured by CPD disc centrifuge. wherein R 1 is an alkylene group having between 3 and 10 carbons or is a polyether group having between 1 and 10 ether units, wherein R 2 is a linear or branched alkyl group having between 3 and 8 carbons or a silyl group, and wherein R 3 is hydrogen or an alkyl group having between 1 and 6 carbons; wherein after removal of R 2, the particle absorbs at least 300 wt% and not greater than 10 6 wt% water based on the weight of the polymer when exposed to water; and wherein the coefficient of variance is 100 times the standard deviation in particle size divided by the mode particle diameter as measured by CPD disc centrifuge.
A laboratory computer network comprising: a plurality of laboratory instrument workstations (20a-20e) connected to respective laboratory instruments (15a-15e) for executing a number of different sample preparation and analysis processes, each laboratory instrument workstation (20a-20e) being adapted to provide video screen data corresponding to one or more screen sections of each laboratory instrument workstation, each screen section indicative of the operational status of the respective laboratory instrument (15a-15e) by providing text and other visual indications corresponding to the operational status of the respective laboratory instrument; transmission media adapted to transmit video screen data from each of said plurality of laboratory instrument workstations (20a-20e); and a central server adapted to receive said video screen data from said transmission media, said central server monitoring said one or more screen sections of the video screen data respectively received from said plurality of laboratory instrument workstations (20a-20e), comparing the received video screen data to a fixed value array having data values corresponding to the shape of a pluralities of letters representing a target text comprising performing a correlation between the received video screen data and the fixed value array and providing an alert depending on a degree of correlation in response to a change of state of at least one of the screen sections, as determined by the changes of the text of a status field in response to an operational status change of the respective laboratory instrument (15a-15e). a plurality of laboratory instrument workstations (20a-20e) connected to respective laboratory instruments (15a-15e) for executing a number of different sample preparation and analysis processes, each laboratory instrument workstation (20a-20e) being adapted to provide video screen data corresponding to one or more screen sections of each laboratory instrument workstation, each screen section indicative of the operational status of the respective laboratory instrument (15a-15e) by providing text and other visual indications corresponding to the operational status of the respective laboratory instrument; transmission media adapted to transmit video screen data from each of said plurality of laboratory instrument workstations (20a-20e); and a central server adapted to receive said video screen data from said transmission media, said central server monitoring said one or more screen sections of the video screen data respectively received from said plurality of laboratory instrument workstations (20a-20e), comparing the received video screen data to a fixed value array having data values corresponding to the shape of a pluralities of letters representing a target text comprising performing a correlation between the received video screen data and the fixed value array and providing an alert depending on a degree of correlation in response to a change of state of at least one of the screen sections, as determined by the changes of the text of a status field in response to an operational status change of the respective laboratory instrument (15a-15e).
An air pollution control system comprising: a boiler that is configured to combust a fuel; an air heater that is configured to recover heat of a flue gas discharged from the boiler; a precipitator that is configured to remove soot and dust contained in the flue gas after heat recovery; a desulfurization apparatus that is configured to remove sulfur oxides contained in the flue gas after dust removal, using an absorbent; a dehydrator that is configured to remove gypsum from absorber slurry discharged from the desulfurization apparatus; a concentration apparatus that is configured to remove some water of filtrate from the dehydrator to make concentrated filtrate; a spray drying apparatus provided with a spray unit that is configured to spray the concentrated filtrate; a flue gas introduction line (L 11) through which some of the branch gas branched from the flue gas is introduced to the spray drying apparatus from a main flue gas duct; and a flue gas supply line (L 12) through which the flue gas returns to the main flue gas duct, the flue gas being obtained after the concentrated filtrate is dried by the spray drying apparatus, characterized in said concentration apparatus being an evaporation apparatus including a heater that is configured to heat filtrate from the dehydrator to make concentrated filtrate and an evaporator configured to separate vapor from the filtrate which has been heated. a boiler that is configured to combust a fuel; an air heater that is configured to recover heat of a flue gas discharged from the boiler; a precipitator that is configured to remove soot and dust contained in the flue gas after heat recovery; a desulfurization apparatus that is configured to remove sulfur oxides contained in the flue gas after dust removal, using an absorbent; a dehydrator that is configured to remove gypsum from absorber slurry discharged from the desulfurization apparatus; a concentration apparatus that is configured to remove some water of filtrate from the dehydrator to make concentrated filtrate; a spray drying apparatus provided with a spray unit that is configured to spray the concentrated filtrate; a flue gas introduction line (L 11) through which some of the branch gas branched from the flue gas is introduced to the spray drying apparatus from a main flue gas duct; and a flue gas supply line (L 12) through which the flue gas returns to the main flue gas duct, the flue gas being obtained after the concentrated filtrate is dried by the spray drying apparatus, characterized in said concentration apparatus being an evaporation apparatus including a heater that is configured to heat filtrate from the dehydrator to make concentrated filtrate and an evaporator configured to separate vapor from the filtrate which has been heated.
A method for accessing a local network, wherein the method comprises: sending, by a mobility management entity, a user plane establishment request; receiving (601, 701), by a local gateway of the local network, the user plane establishment request from the mobility management entity, wherein the user plane establishment request comprises information about a user plane bearer to be established by the mobility management entity for a user equipment, and that is from the local gateway to a gateway of a core network, the core network is accessed by the user equipment by using a base station, and the local gateway is a local gateway corresponding to the user equipment, the information about the user plane bearer is an IP address and an end point identifier of a tunnel assigned by the gateway of the core network; and establishing(602, 702), by the local gateway for the user equipment according to the user plane establishment request, a user plane bearer that is from the base station to the gateway of the core network, and that comprises the local gateway used as an intermediate node; when data of the user equipment is received, determining, by the local gateway according to a destination IP address of the data of the user equipment, whether the data of the user equipment is used to access the local network; when determining that the data of the user equipment is used to access the local network, routing, by the local gateway to the local network, the data of the user equipment. sending, by a mobility management entity, a user plane establishment request; receiving (601, 701), by a local gateway of the local network, the user plane establishment request from the mobility management entity, wherein the user plane establishment request comprises information about a user plane bearer to be established by the mobility management entity for a user equipment, and that is from the local gateway to a gateway of a core network, the core network is accessed by the user equipment by using a base station, and the local gateway is a local gateway corresponding to the user equipment, the information about the user plane bearer is an IP address and an end point identifier of a tunnel assigned by the gateway of the core network; and establishing(602, 702), by the local gateway for the user equipment according to the user plane establishment request, a user plane bearer that is from the base station to the gateway of the core network, and that comprises the local gateway used as an intermediate node; when data of the user equipment is received, determining, by the local gateway according to a destination IP address of the data of the user equipment, whether the data of the user equipment is used to access the local network; when determining that the data of the user equipment is used to access the local network, routing, by the local gateway to the local network, the data of the user equipment.
Colloidal dispersion of inorganic particles in a liquid phase, characterized in that it comprises an ampholytic copolymer comprising at least one macromolecular chain B and a part A bonded to a single end of at least one macromolecular chain B, in which: - the macromolecular chain B comprises cationic units B C deriving from cationic monomers B C, - the part A is a polymeric or nonpolymeric group comprising at least one anionic or potentially anionic group. - the macromolecular chain B comprises cationic units B C deriving from cationic monomers B C, - the part A is a polymeric or nonpolymeric group comprising at least one anionic or potentially anionic group.
An inorganic composition article being a crystallized glass article having a compressive stress layer formed thereon, wherein the crystallized glass contains at least one kind selected from α-cristobalite and α-cristobalite solid solution as a main crystal phase, wherein by mass% in terms of oxide, a content of a SiO 2 component is 50.0% to 75.0%, a content of a Li 2 O component is 3.0% to 10.0%, a content of an Al 2 O 3 component is 5.0% or more and less than 15.0%, a total content of the Al 2 O 3 component and a ZrO 2 component is 10.0% or more, a content of a ZrO 2 component is more than 0% and 10.0% or less, a content of a K 2 O component is 0% to 10.0%, a content of a P 2 O 5 component is 0% to 10.0%, wherein the compressive stress layer has a surface compressive stress value of 600 MPa or more, wherein the surface compressive stress value is measured using a glass surface stress meter or a scattered light photoelastic stress meter according to the description. by mass% in terms of oxide, a content of a SiO 2 component is 50.0% to 75.0%, a content of a Li 2 O component is 3.0% to 10.0%, a content of an Al 2 O 3 component is 5.0% or more and less than 15.0%, a total content of the Al 2 O 3 component and a ZrO 2 component is 10.0% or more, a content of a ZrO 2 component is more than 0% and 10.0% or less, a content of a K 2 O component is 0% to 10.0%, a content of a P 2 O 5 component is 0% to 10.0%, wherein the compressive stress layer has a surface compressive stress value of 600 MPa or more, wherein the surface compressive stress value is measured using a glass surface stress meter or a scattered light photoelastic stress meter according to the description.
Coolant distributor for a battery module housing, comprising: an extruded aluminum hollow profile extending lengthwise in a first direction and comprising at least one exterior wall enclosing a coolant channel fluidly connecting a coolant inlet and a coolant outlet along the first direction; and a plurality of drilled and/or milled coolant junctions, each extending through a first portion of the at least one exterior wall in a second direction and providing a fluid connection between the coolant channel and a coolant port, wherein each of the coolant ports comprises a port opening in the first exterior wall portion and a flange portion surrounding the port opening, wherein the port openings of the plurality of coolant junctions are aligned in the first direction, wherein the second direction encloses an angle between 30° and 110° with the first direction, and wherein the coolant distributor is a fully monolithic unit. an extruded aluminum hollow profile extending lengthwise in a first direction and comprising at least one exterior wall enclosing a coolant channel fluidly connecting a coolant inlet and a coolant outlet along the first direction; and a plurality of drilled and/or milled coolant junctions, each extending through a first portion of the at least one exterior wall in a second direction and providing a fluid connection between the coolant channel and a coolant port, wherein each of the coolant ports comprises a port opening in the first exterior wall portion and a flange portion surrounding the port opening, wherein the port openings of the plurality of coolant junctions are aligned in the first direction, wherein the second direction encloses an angle between 30° and 110° with the first direction, and wherein the coolant distributor is a fully monolithic unit.
An image processing apparatus, comprising a core configured to perform a fast Fourier transformation, FFT, operation on image data; a memory configured to store data that is output by the core; and a controller configured to control the core to perform a primary 2D FFT operation and a secondary 2D FFT operation by executing a 1D FFT operation twice on the image data in terms of column and rows directions for each of 2D FFT operations, wherein the core is resettable based on an amount of the image data, wherein the order of execution, in terms of column and row directions, of 1D FFT operations for the primary 2D FFT operation is opposite to that of execution of 1D FFT operations for the secondary 2D FFT operation, wherein 1D FFT operations are performed in the column direction and then in the row direction when a primary 2D FFT operation is performed, 1D FFT operations are performed in the row direction and then in the column direction when a secondary 2D FFT operation is performed, and wherein the controller is further configured to set the core based on a size of the column of the image data, when performing 1D FFT operation on the image data in the row direction, and set the core based on a size of the row of the image data, when performing 1D FFT operation on the image data in the column direction. a core configured to perform a fast Fourier transformation, FFT, operation on image data; a memory configured to store data that is output by the core; and a controller configured to control the core to perform a primary 2D FFT operation and a secondary 2D FFT operation by executing a 1D FFT operation twice on the image data in terms of column and rows directions for each of 2D FFT operations, wherein the core is resettable based on an amount of the image data, wherein the order of execution, in terms of column and row directions, of 1D FFT operations for the primary 2D FFT operation is opposite to that of execution of 1D FFT operations for the secondary 2D FFT operation, wherein 1D FFT operations are performed in the column direction and then in the row direction when a primary 2D FFT operation is performed, 1D FFT operations are performed in the row direction and then in the column direction when a secondary 2D FFT operation is performed, and wherein the controller is further configured to set the core based on a size of the column of the image data, when performing 1D FFT operation on the image data in the row direction, and set the core based on a size of the row of the image data, when performing 1D FFT operation on the image data in the column direction.
A side by side vehicle, comprising a vehicle frame comprising main frame tubes extending generally longitudinally; a vehicle seat frame positioned in a mid portion of the frame, and positioned at a raised position relative to the frame tubes; with side by side seats (34, 36, 38) supported by the seat frame; characterized in that portions of a powertrain (150, 152) are positioned rearward of the vehicle seat frame and are supported by the vehicle frame; one or more storage units (310, 312, 314) positioned under the side by side seats to allow placement and retrieval of solid items into and from the volume, and a fuel tank positioned beneath one of the passenger seat or driver seat.
An anti-TLR7 antibody for use in a method of treating or preventing an inflammatory disease in a subject, wherein the antibody inhibits the TLR7 response in immune cells, and the inflammatory disease is an autoimmune disease.