mhurhangee/patent-ind-claim-en huggingface dataset:
A battery pack with a battery module comprising: a battery cell stack in which a plurality of battery cells are stacked; a module frame that houses the battery cell stack and is opened in its one surface; and end plates that cover the open surfaces of the module frame , wherein the end plates comprise a mounting portion having a mounting hole formed therein, and wherein the mounting hole is opened at a lower surface of the end plate , and a thread is formed on an inside surface of the mounting hole , a pack frame that houses the battery module ; and a bolt that passes through a through hole formed at the bottom portion of the pack frame and is coupled to the mounting hole , characterized in that the bottom portion of the pack frame comprises a mounting plate for supporting the battery module and a lower plate located under the mounting plate , and the through hole is formed in the mounting plate , and the bolt passes through the through hole of the mounting plate to be coupled to the mounting hole . a battery cell stack in which a plurality of battery cells are stacked; a module frame that houses the battery cell stack and is opened in its one surface; and end plates that cover the open surfaces of the module frame , wherein the end plates comprise a mounting portion having a mounting hole formed therein, and wherein the mounting hole is opened at a lower surface of the end plate , and a thread is formed on an inside surface of the mounting hole , a pack frame that houses the battery module ; and a bolt that passes through a through hole formed at the bottom portion of the pack frame and is coupled to the mounting hole , characterized in that the bottom portion of the pack frame comprises a mounting plate for supporting the battery module and a lower plate located under the mounting plate , and the through hole is formed in the mounting plate , and the bolt passes through the through hole of the mounting plate to be coupled to the mounting hole .
A host cell or a population thereof for use in the treatment of oHSV-resistant, TRAIL-resistant cancer, the host cell or a population thereof comprising a recombinant oncolytic herpes simplex virus (oHSV) or nucleic acid encoding a recombinant oHSV genome, wherein the oHSV is engineered to comprise a nucleic acid sequence encoding tumor necrosis factor-related apoptosis-inducing ligand (TRAIL) or a biologically active fragment thereof, in expressible form.
A pharmaceutical formulation comprising a sparingly water-soluble agent encapsulated within a liposome, said formulation manufactured by a method comprising: remotely loading a precipitate of a solid active agent across liposomal membranes of liposomes, into an internal aqueous medium of the liposomes, from an aqueous suspension comprising the precipitate of the solid active agent and the liposomes, the solid active agent having a water solubility of less than 2 mg/mL, the method comprising: (a) preparing an aqueous suspension of the liposomes having a proton or an ion gradient across the liposome membrane; (b) preparing a precipitate of the solid active agent; and (c) forming a loading suspension of (a) and (b), and incubating the loading suspension, thereby remotely loading the precipitate of the solid active agent across the liposomal membrane into the internal aqueous medium of the liposomes by a transmembrane proton- or ion-gradient, forming a suspension of product liposomes encapsulating the precipitate of the solid agent. (a) preparing an aqueous suspension of the liposomes having a proton or an ion gradient across the liposome membrane; (b) preparing a precipitate of the solid active agent; and (c) forming a loading suspension of (a) and (b), and incubating the loading suspension, thereby remotely loading the precipitate of the solid active agent across the liposomal membrane into the internal aqueous medium of the liposomes by a transmembrane proton- or ion-gradient, forming a suspension of product liposomes encapsulating the precipitate of the solid agent.
An abrasive aggregate comprising: a vitreous binder composition and abrasive particles dispersed in the vitreous binder composition, wherein the abrasive particles are diamonds, characterised in that the vitreous binder composition comprises not less than 1 wt% and not greater than 45 wt% of the weight of the abrasive aggregate, the abrasive particles comprise not less than 45 wt% and not greater than 99 wt% of the weight of the abrasive aggregate, and the abrasive aggregate has a loose packed density in a range of not less than 0.5 g/cm 3 to not greater than 3.5 g/cm 3 . a vitreous binder composition and abrasive particles dispersed in the vitreous binder composition, wherein the abrasive particles are diamonds, characterised in that the vitreous binder composition comprises not less than 1 wt% and not greater than 45 wt% of the weight of the abrasive aggregate, the abrasive particles comprise not less than 45 wt% and not greater than 99 wt% of the weight of the abrasive aggregate, and the abrasive aggregate has a loose packed density in a range of not less than 0.5 g/cm 3 to not greater than 3.5 g/cm 3 .
Process for preparing aminomethylated bead polymers, characterized in that a) monomer droplets composed of a mixture comprising at least one monovinylaromatic compound, at least one polyvinylaromatic compound and at least one initiator are converted to a bead polymer and b) the bead polymer from step a) is reacted with compounds of the formula (I) or salts thereof where R 1 = C 1 -C 3 -alkyl or H and compounds of the formula (II) where n = 2 to 100, in the presence of aliphatic saturated or unsaturated carboxylic anhydrides or in the presence of mixtures of aliphatic saturated or unsaturated carboxylic anhydrides and at least one aliphatic saturated or unsaturated carboxylic acid, and in the presence of at least one Friedel-Crafts catalyst, to give a phthalimidomethylated bead polymer, and the amount of the compounds of the formula (I) and of the formula (II) used, the bead polymer, and the aliphatic saturated or unsaturated carboxylic anhydrides, Friedel-Crafts catalysts and any carboxylic acids together in the reaction mixture is greater than 80% by weight based on the total amount of the reaction mixture, and c) the phthalimidomethylated bead polymer is hydrolysed to give an aminomethylated bead polymer. a) monomer droplets composed of a mixture comprising at least one monovinylaromatic compound, at least one polyvinylaromatic compound and at least one initiator are converted to a bead polymer and b) the bead polymer from step a) is reacted with compounds of the formula (I) or salts thereof where R 1 = C 1 -C 3 -alkyl or H and compounds of the formula (II) where n = 2 to 100, in the presence of aliphatic saturated or unsaturated carboxylic anhydrides or in the presence of mixtures of aliphatic saturated or unsaturated carboxylic anhydrides and at least one aliphatic saturated or unsaturated carboxylic acid, and in the presence of at least one Friedel-Crafts catalyst, to give a phthalimidomethylated bead polymer, and the amount of the compounds of the formula (I) and of the formula (II) used, the bead polymer, and the aliphatic saturated or unsaturated carboxylic anhydrides, Friedel-Crafts catalysts and any carboxylic acids together in the reaction mixture is greater than 80% by weight based on the total amount of the reaction mixture, and c) the phthalimidomethylated bead polymer is hydrolysed to give an aminomethylated bead polymer.
A method for measuring a glycated protein in a sample, comprising: a step of allowing a sample in which a degradation product has been generated from a glycated protein by a protease to react with fructosyl amino acid oxidase in the presence of 300 mmol/L or more of hexaammineruthenium (III) chloride to generate a reduced hexaammineruthenium (III) chloride; and a step of detecting the reaction state in the step by an electrochemical technique using an interdigitated electrode, wherein the interdigitated electrode has a total area of 1.8 mm 2 to 4 mm 2 , an interelectrode distance of less than 50 μm, a working electrode width of 5 μm to 50 μm, and a counter electrode width of 5 μm to 100 μm.. a step of allowing a sample in which a degradation product has been generated from a glycated protein by a protease to react with fructosyl amino acid oxidase in the presence of 300 mmol/L or more of hexaammineruthenium (III) chloride to generate a reduced hexaammineruthenium (III) chloride; and a step of detecting the reaction state in the step by an electrochemical technique using an interdigitated electrode, wherein the interdigitated electrode has a total area of 1.8 mm 2 to 4 mm 2 , an interelectrode distance of less than 50 μm, a working electrode width of 5 μm to 50 μm, and a counter electrode width of 5 μm to 100 μm..
A method for synthesis of a reactive conjugate cluster, wherein the reactive conjugate cluster has one of the formulae: or or comprising: reacting a pentafluorophenyl ester protected branching group having the formula: (PFP-O-C(=O)-E-) m Bg-G-Pg 1 wherein Pg 1 is a protecting group; E is a single bond or C 1 to C 10 alkyl optionally interrupted with one or more groups selected from -O-, -N(H)-and C(=O); Bg is a branching group having the formula: G is a single bond or C 1 to C 10 alkyl optionally including one or more groups selected from -O-, -N(H)- and C(=O); m is 3; with at least m equivalents of a functionalized ligand having the formula: wherein A is C 2 to C 10 alkyl optionally interrupted with one or more groups selected from -O-, -N(H)- and C(=O); wherein Pg 2 is an amino protecting group; in an organic solvent with a palladium catalyst and H 2 for a time and under conditions sufficient to provide the reactive conjugate cluster. reacting a pentafluorophenyl ester protected branching group having the formula: (PFP-O-C(=O)-E-) m Bg-G-Pg 1 wherein Pg 1 is a protecting group; E is a single bond or C 1 to C 10 alkyl optionally interrupted with one or more groups selected from -O-, -N(H)-and C(=O); Bg is a branching group having the formula: G is a single bond or C 1 to C 10 alkyl optionally including one or more groups selected from -O-, -N(H)- and C(=O); m is 3; wherein Pg 1 is a protecting group; E is a single bond or C 1 to C 10 alkyl optionally interrupted with one or more groups selected from -O-, -N(H)-and C(=O); Bg is a branching group having the formula: G is a single bond or C 1 to C 10 alkyl optionally including one or more groups selected from -O-, -N(H)- and C(=O); m is 3; with at least m equivalents of a functionalized ligand having the formula: wherein A is C 2 to C 10 alkyl optionally interrupted with one or more groups selected from -O-, -N(H)- and C(=O); wherein Pg 2 is an amino protecting group; in an organic solvent with a palladium catalyst and H 2 for a time and under conditions sufficient to provide the reactive conjugate cluster. wherein A is C 2 to C 10 alkyl optionally interrupted with one or more groups selected from -O-, -N(H)- and C(=O); wherein Pg 2 is an amino protecting group; in an organic solvent with a palladium catalyst and H 2 for a time and under conditions sufficient to provide the reactive conjugate cluster.
A surfactant composition including component A, component B, and component C described below, wherein a total content of the component A and the component B is 35% by mass or more and 80% by mass or less, based on the entire mass of the composition, the component A is a mixture of a hydroxyalkane sulfonate and an olefin sulfonate, the component B is a polyoxyalkylene alkyl ether, and the component C is water, and the olefin sulfonate is an internal olefin sulfonate, and the sulfonate compounds contain 5% by mass or more and 40% by mass or less, based on the entire amount of sulfonate compounds, of sulfonate compounds having a sulfonic acid group at the 2-position. a total content of the component A and the component B is 35% by mass or more and 80% by mass or less, based on the entire mass of the composition, the component A is a mixture of a hydroxyalkane sulfonate and an olefin sulfonate, the component B is a polyoxyalkylene alkyl ether, and the component C is water, and the olefin sulfonate is an internal olefin sulfonate, and the sulfonate compounds contain 5% by mass or more and 40% by mass or less, based on the entire amount of sulfonate compounds, of sulfonate compounds having a sulfonic acid group at the 2-position.
A thermal printer configured to perform printing on a linerless label (L) including an adhesive surface (L2) formed on a back surface of the linerless label (L), the thermal printer comprising a cutter unit that includes: a fixed blade provided on the back surface side of the linerless label (L); and a movable blade configured to reciprocate between a first position (P1) at which the movable blade is opposed to the fixed blade through intermediation of the linerless label (L), and a second position (P2) at which at least a part of the movable blade overlaps the fixed blade and the movable blade forms a cut in the linerless label (L), wherein the movable blade includes: a first blade edge configured to form the cut in the linerless label (L); and characterized in that the movable blade further comprises: a groove , which has a groove opening portion and an edge portion along a rim thereof, and is formed in a sliding surface configured to slide on the fixed blade when the movable blade is at the second position (P2), wherein the edge portion includes: an adhesive blocking edge portion formed on the sliding surface along an advancing direction; and an adhesive scraping edge portion formed on the sliding surface so as to cross the advancing direction. the thermal printer comprising a cutter unit that includes: a fixed blade provided on the back surface side of the linerless label (L); and a movable blade configured to reciprocate between a first position (P1) at which the movable blade is opposed to the fixed blade through intermediation of the linerless label (L), and a second position (P2) at which at least a part of the movable blade overlaps the fixed blade and the movable blade forms a cut in the linerless label (L), a fixed blade provided on the back surface side of the linerless label (L); and a movable blade configured to reciprocate between a first position (P1) at which the movable blade is opposed to the fixed blade through intermediation of the linerless label (L), and a second position (P2) at which at least a part of the movable blade overlaps the fixed blade and the movable blade forms a cut in the linerless label (L), wherein the movable blade includes: a first blade edge configured to form the cut in the linerless label (L); and characterized in that the movable blade further comprises: a groove , which has a groove opening portion and an edge portion along a rim thereof, and is formed in a sliding surface configured to slide on the fixed blade when the movable blade is at the second position (P2), wherein the edge portion includes: an adhesive blocking edge portion formed on the sliding surface along an advancing direction; and an adhesive scraping edge portion formed on the sliding surface so as to cross the advancing direction. an adhesive blocking edge portion formed on the sliding surface along an advancing direction; and an adhesive scraping edge portion formed on the sliding surface so as to cross the advancing direction.
A polypeptide having an activity to transfer glucuronic acid to the hydroxy group at the 2-position of glucuronic acid in a glycyrrhetinic acid monoglucuronide, and comprising any of amino acid sequences of the following (a) or (b): (a) an amino acid sequence represented by SEQ ID NO: 4, (b) an amino acid sequence having 90% or more identity with the amino acid sequence represented by SEQ ID NO: 4. (a) an amino acid sequence represented by SEQ ID NO: 4, (b) an amino acid sequence having 90% or more identity with the amino acid sequence represented by SEQ ID NO: 4.
A multicast forwarding method, wherein the method comprises: listening to , by a first multicast router (MCR 1), a plurality of unicast packets passing through the first multicast router (MCR 1), and determining a set of unicast packets that are from a same upstream multicast router (RP) and that belong to a same unicast stream, wherein the unicast packets in the unicast stream carry a same multicast identifier, and the multicast identifier indicates that the unicast packets in the unicast stream are from a same data source server and are to be sent to destination devices that belong to a same multicast group; when determining that destination addresses of at least two unicast packets in the unicast packet set are different, sending , by the first multicast router (MCR 1), a prune message to the upstream multicast router (RP), wherein the prune message carries a destination address group determined from all the unicast packets in the unicast packet set, the prune message is used to instruct the upstream multicast router (RP) to stop sending the unicast packets with the multicast identifier to the destination devices corresponding to the destination address group, and send the to-be-sent unicast packets with the multicast identifier to the first multicast router (MCR 1); and sending , by the first multicast router (MCR 1), the received unicast packets with the multicast identifier to the destination devices corresponding to the destination address group. listening to , by a first multicast router (MCR 1), a plurality of unicast packets passing through the first multicast router (MCR 1), and determining a set of unicast packets that are from a same upstream multicast router (RP) and that belong to a same unicast stream, wherein the unicast packets in the unicast stream carry a same multicast identifier, and the multicast identifier indicates that the unicast packets in the unicast stream are from a same data source server and are to be sent to destination devices that belong to a same multicast group; when determining that destination addresses of at least two unicast packets in the unicast packet set are different, sending , by the first multicast router (MCR 1), a prune message to the upstream multicast router (RP), wherein the prune message carries a destination address group determined from all the unicast packets in the unicast packet set, the prune message is used to instruct the upstream multicast router (RP) to stop sending the unicast packets with the multicast identifier to the destination devices corresponding to the destination address group, and send the to-be-sent unicast packets with the multicast identifier to the first multicast router (MCR 1); and sending , by the first multicast router (MCR 1), the received unicast packets with the multicast identifier to the destination devices corresponding to the destination address group.
Method for processing an analogue channel signal from a transmission channel, the analogue channel signal conveying symbol frames (TRM), and the transmission channel being considered as being linear and time-invariant for the entire duration of at least one frame, the method comprising an analogue/digital conversion of the analogue channel signal so as to obtain a digital channel signal, a digital channel estimation processing and a decoding of symbols carried out on the digital channel signal, characterised in that the digital channel estimation processing comprises, for said at least one frame, an elaboration of at least three transfer functions (H i ) of said channel respectively associated with at least three reference symbols (SYMR i ) of said at least one frame, and an averaging processing of said transfer functions obtained so as to obtain an average transfer function (HM), and the decoding of the symbols of said at least one frame according to said reference symbols is carried out using this average transfer function.
Apparatus for treating liquid to be analysed, which is in particular suitable for being connected to an analyser of the content of at least one contaminant in a cryogenic liquid, comprising a cylindrical chamber (E) having a tank, an annular chamber (V) positioned around the cylindrical chamber, means for dividing a flow of cryogenic liquid in two, means for sending a first portion of the cryogenic liquid to the cylindrical chamber, means for sending a second portion of the cryogenic liquid to the annular chamber, an analysis line connected to the cylindrical chamber to allow the passage of vaporized liquid and which is suitable for being connected to the analyser, a line connected to the annular chamber to allow the passage of vaporized liquid and means (V1) for stopping the sending of cryogenic liquid to the cylindrical chamber characterized in that it comprises a heater (H) for heating the tank of the cylindrical chamber and a withdrawal line for withdrawing liquid from the cylindrical chamber (E) provided with a calibrated orifice (V4) and connected to an upper part of the cylindrical chamber (E), the upper part of the cylindrical chamber (E) not being contained in the annular chamber (V).
A method for suppressing Automatic Exposure Control, AEC, value hopping, comprising: acquiring a target zooming factor that a photographic apparatus is trying to switch to; determining whether the target zooming factor is within a preset target range or not; in response to determining that the target zooming factor is within the target range, performing control to simultaneously turn on a wide-angle lens and a telephoto lens; acquiring a first AEC value of the wide-angle lens and a second AEC value of the telephoto lens; characterized by performing weighted calculation on the first AEC value and the second AEC value; and determining a result of the weighted calculation as a target AEC value corresponding to the target zooming factor; in response to determining that the target zooming factor is not within the target range, determining whether the target zooming factor is within a first range or not; in response to determining that the target zooming factor is within the first range, performing control to turn on the wide-angle lens, and acquiring the first AEC value of the wide-angle lens as the target AEC value; and in response to determining that the target zooming factor is not within the first range, performing control to turn on the telephoto lens, and acquiring the second AEC value of the telephoto lens as the target AEC value. acquiring a target zooming factor that a photographic apparatus is trying to switch to; determining whether the target zooming factor is within a preset target range or not; in response to determining that the target zooming factor is within the target range, performing control to simultaneously turn on a wide-angle lens and a telephoto lens; acquiring a first AEC value of the wide-angle lens and a second AEC value of the telephoto lens; characterized by performing weighted calculation on the first AEC value and the second AEC value; and determining a result of the weighted calculation as a target AEC value corresponding to the target zooming factor; in response to determining that the target zooming factor is not within the target range, determining whether the target zooming factor is within a first range or not; in response to determining that the target zooming factor is within the first range, performing control to turn on the wide-angle lens, and acquiring the first AEC value of the wide-angle lens as the target AEC value; and in response to determining that the target zooming factor is not within the first range, performing control to turn on the telephoto lens, and acquiring the second AEC value of the telephoto lens as the target AEC value.