mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a surface-modified glass sheet, comprising the steps of: (I) bringing a first acid gas into contact with at least one principal surface of a sheet-shaped glass material containing Si as a component, the first acid gas containing 2 - 6 vol% hydrogen fluoride (HF) gas but not containing hydrogen chloride (HCl) gas and having a volume ratio of water vapor to HF gas (volume of water vapor / volume of HF gas) of less than 8, the glass material containing at least sodium as a component and having a temperature in a range from a glass transition temperature to a temperature 250°C higher than the glass transition temperature; (II) before or after the step (I), bringing a second acid gas into contact with the principal surface of the sheet-shaped glass material, the second acid gas containing HCl gas and optionally containing HF gas, wherein when the second acid gas contains both HCl gas and HF gas, the second acid gas further contains water vapor with a volume ratio of water vapor to HF gas (volume of water vapor / volume of HF gas) of 8 or more; and (III) cooling the sheet-shaped glass material having undergone both the step (I) and the step (II) so as to obtain a glass sheet. (I) bringing a first acid gas into contact with at least one principal surface of a sheet-shaped glass material containing Si as a component, the first acid gas containing 2 - 6 vol% hydrogen fluoride (HF) gas but not containing hydrogen chloride (HCl) gas and having a volume ratio of water vapor to HF gas (volume of water vapor / volume of HF gas) of less than 8, the glass material containing at least sodium as a component and having a temperature in a range from a glass transition temperature to a temperature 250°C higher than the glass transition temperature; (II) before or after the step (I), bringing a second acid gas into contact with the principal surface of the sheet-shaped glass material, the second acid gas containing HCl gas and optionally containing HF gas, wherein when the second acid gas contains both HCl gas and HF gas, the second acid gas further contains water vapor with a volume ratio of water vapor to HF gas (volume of water vapor / volume of HF gas) of 8 or more; and (III) cooling the sheet-shaped glass material having undergone both the step (I) and the step (II) so as to obtain a glass sheet.
A computer implemented method to enforce mandatory access control in a message-based operating system, the method comprising: identifying a first process configured to receive a message via a communication channel in the message-based operation system , wherein calls to operating system logic are passed between processes as messages over communication channels in the message-based operating system , wherein a kernel of the message-based operating system routes the messages on the communication channels , and the operating system logic is responsive to the message in a user space of the message-based operating system; identifying the communication channel ; identifying , based on a channel policy , an access rule governing access to the communication channel ; and controlling , in a kernel of the message-based operating system , the access to the communication channel by a second process based on the access rule , the second process configured to execute invocation logic , the invocation logic executable to send the message via the communication channel . identifying a first process configured to receive a message via a communication channel in the message-based operation system , wherein calls to operating system logic are passed between processes as messages over communication channels in the message-based operating system , wherein a kernel of the message-based operating system routes the messages on the communication channels , and the operating system logic is responsive to the message in a user space of the message-based operating system; identifying the communication channel ; identifying , based on a channel policy , an access rule governing access to the communication channel ; and controlling , in a kernel of the message-based operating system , the access to the communication channel by a second process based on the access rule , the second process configured to execute invocation logic , the invocation logic executable to send the message via the communication channel .
A method for producing a polymer, comprising a step of carrying out radical polymerization of a raw material vinyl monomer comprising a water-soluble vinyl monomer (a1) and/or a vinyl monomer (a2) that becomes the water-soluble vinyl monomer (a1) through hydrolysis, wherein the radical polymerization is carried out in the presence of water and a molecular weight controlling agent for radical polymerization comprising an iodine compound represented by the following formula as an active ingredient and having a solubility of the active ingredient in water of 0.5% by weight or more at 20°C, wherein the water-soluble vinyl monomer (a1) is a vinyl monomer soluble in an amount of at least 100 g in 100 g of water at 25°C,and wherein the radical polymerization of the raw material vinyl monomer is performed by carrying out aqueous solution polymerization or inverse phase suspension polymerization, wherein R 1 is -COOX, -CONR 4 R 5 , an aromatic group or a cyano group, X is a hydrogen atom, an aliphatic group, an alkali metal, an alkaline earth metal, an organic ammonium or an ammonium, and R 2 , R 3 , R 4 and R 5 each independently represent a hydrogen atom, an aromatic group or an aliphatic group. wherein the water-soluble vinyl monomer (a1) is a vinyl monomer soluble in an amount of at least 100 g in 100 g of water at 25°C,and wherein the radical polymerization of the raw material vinyl monomer is performed by carrying out aqueous solution polymerization or inverse phase suspension polymerization, wherein R 1 is -COOX, -CONR 4 R 5 , an aromatic group or a cyano group, X is a hydrogen atom, an aliphatic group, an alkali metal, an alkaline earth metal, an organic ammonium or an ammonium, and R 2 , R 3 , R 4 and R 5 each independently represent a hydrogen atom, an aromatic group or an aliphatic group.
A process for the production of a compound according to Formula (I) wherein R 1 O is an alcohol moiety, wherein the process comprises the following steps: a) converting the compound of Formula II to the compound of Formula III b) converting the compound of Formula III to the compound of Formula IV c) converting the compound of Formula IV to the compound of Formula V wherein R 2 O is the same as R 1 O as defined above or is a protected form of R 1 O, d) converting the compound of Formula V to the compound of Formula VI wherein R 1 O is as defined above, e) subjecting the compound of Formula VI to enzymatic hydrolysis with β-glucosidase to give the compound of Formula (I). a) converting the compound of Formula II to the compound of Formula III b) converting the compound of Formula III to the compound of Formula IV c) converting the compound of Formula IV to the compound of Formula V wherein R 2 O is the same as R 1 O as defined above or is a protected form of R 1 O, d) converting the compound of Formula V to the compound of Formula VI wherein R 1 O is as defined above, e) subjecting the compound of Formula VI to enzymatic hydrolysis with β-glucosidase to give the compound of Formula (I).
A lithium ion battery, comprising a positive electrode plate, wherein the positive electrode plate comprises: a positive current collector, the positive current collector comprising a support layer, a conductive layer located on two opposite surfaces of the support layer, and a conductive material, wherein the positive current collector is provided with a plurality of holes extending through the support layer and the conductive layer on the two opposite surfaces of the support layer, and the conductive material is filled in the plurality of holes; and a positive electrode active material layer formed on at least one surface of the positive current collector, characterized in that the positive electrode active material layer comprises a positive electrode active material NCM, the plurality of holes filled with the conductive material has a hole diameter of 5-35μm, and the positive electrode active material layer is not filled in the plurality of holes. a positive current collector, the positive current collector comprising a support layer, a conductive layer located on two opposite surfaces of the support layer, and a conductive material, wherein the positive current collector is provided with a plurality of holes extending through the support layer and the conductive layer on the two opposite surfaces of the support layer, and the conductive material is filled in the plurality of holes; and a positive electrode active material layer formed on at least one surface of the positive current collector, characterized in that the positive electrode active material layer comprises a positive electrode active material NCM, the plurality of holes filled with the conductive material has a hole diameter of 5-35μm, and the positive electrode active material layer is not filled in the plurality of holes.
An oncolytic virus which is a herpes simplex virus (HSV) 1 strain RH018A having the accession number ECCAC 16121904; RH004A having the accession number ECCAC 16121902; RH031A having the accession number ECCAC 16121907; RH040B having the accession number ECCAC 16121908; RH015A having the accession number ECCAC 16121903; RH021A having the accession number ECCAC 16121905; RH023A having the accession number ECCAC 16121906; or RH047A having the accession number ECCAC 16121909. RH018A having the accession number ECCAC 16121904; RH004A having the accession number ECCAC 16121902; RH031A having the accession number ECCAC 16121907; RH040B having the accession number ECCAC 16121908; RH015A having the accession number ECCAC 16121903; RH021A having the accession number ECCAC 16121905; RH023A having the accession number ECCAC 16121906; or RH047A having the accession number ECCAC 16121909.
Walking aid, comprising two side parts of each one lower longitudinal bar (2a, 2b; 32) with holders (3a, 3b; 5a, 5b) attached thereon with bearings (4a, 4b; 6a, 6b) for at least one front-wheel assembly (7a, 7b; 39) and rear-wheel assembly (8a, 8b; 38), each one height adjustment profile (19a, 19b; 35) attached on the longitudinal bar (2a, 2b; 32) with an inserted supporting rod or with a sole supporting rod , on which at the upper end a handle (10a, 10b; 44) extending to the rear, wherein the both side parts are connected to each other by a collapsible cross linkage (11; 46), wherein the height adjustment profiles (19a, 19b; 35) with the inserted supporting rods or the sole supporting rods are arranged on the lower longitudinal bar (2a, 2b; 32) in the longitudinal direction of the longitudinal bars (2a, 2b; 32) in a collapsible manner and are displaceable from an upwardly extending upright position to a stowed position running substantially parallel to the longitudinal bar (2a, 2b; 32), characterized in that the height adjustment profiles (19a, 19b; 35) with the inserted supporting rods or the sole supporting rods are each guided and held during pivoting by means of at least one rear supporting strut (18a, 18b; 37) which is mounted thereon and on the longitudinal bars (2a, 2b; 32) and pivots about horizontal axes and a front supporting strut (23a, 23b; 36) which is mounted thereon in the lower end region and pivots on the longitudinal bars (2a, 2b; 32) in the front region, wherein the lower ends of the height adjustment profiles or the sole supporting rods take off from the longitudinal bars (2a, 2b; 32) during moving from the upwardly extending installation position into a stowed position running essentially parallel to the longitudinal bars (2a, 2b; 32).
A monoclonal anti-HIV antibody comprising: a heavy chain sequence comprising the amino acid sequence of SEQ ID NO: 420 and a light chain sequence comprising the amino acid sequence of SEQ ID NO: 429.
Method for manufacturing a curved window system of a building, the system being provided with glazing panels, and with elements which extend along edges of the panels, the method including: - providing a flat sheet of metal base material; - manufacturing a metal frame , having at least one panel opening (R), out of the flat base material; - curving the metal frame out of a respective first flat plane (Z) to a desired curvature, such that at least one edge of the panel opening is curved; - joining a plurality of flat elongated strip-shaped elements with the frame along the edges of the panel opening (R), wherein prior to the joining at least one of the flat elongated elements has a curvature in a respective second plane that extends substantially in parallel with respect to mutually faced-away longitudinal side surfaces of that element , the curvature of the element being such that it can be joined with a first side surface of the metal frame along a respective curved edge of the panel opening (R); and - positioning a panel (P) onto the curved metal frame, the lateral sides of the panel (P) being at least partly arranged between side surfaces of the flat elongated elements. - providing a flat sheet of metal base material; - manufacturing a metal frame , having at least one panel opening (R), out of the flat base material; - curving the metal frame out of a respective first flat plane (Z) to a desired curvature, such that at least one edge of the panel opening is curved; - joining a plurality of flat elongated strip-shaped elements with the frame along the edges of the panel opening (R), wherein prior to the joining at least one of the flat elongated elements has a curvature in a respective second plane that extends substantially in parallel with respect to mutually faced-away longitudinal side surfaces of that element , the curvature of the element being such that it can be joined with a first side surface of the metal frame along a respective curved edge of the panel opening (R); and - positioning a panel (P) onto the curved metal frame, the lateral sides of the panel (P) being at least partly arranged between side surfaces of the flat elongated elements.
A system , comprising: a network repeater configured to repeat data packets, the network repeater having a first transmission power level associated with a first propagation distance; and a plurality of wireless devices operatively coupled to the network repeater , each wireless device from the plurality of wireless devices being operatively coupled to the remaining wireless devices of the plurality of wireless devices and associated with a light source from a plurality of light sources, each wireless device of the plurality of wireless devices configured to individually determine whether to operate as a local repeater in response to a calculation based at least on a random number such that at least one wireless device of the plurality of wireless devices operates as a local repeater and at least one remaining wireless device of the plurality of wireless devices operates as an end device and not a local repeater, the local repeater configured to repeat data packets at a second transmission power level associated with a second propagation distance, the second transmission power level being less than the first transmission power level, the second propagation distance being less than the first propagation distance. a network repeater configured to repeat data packets, the network repeater having a first transmission power level associated with a first propagation distance; and a plurality of wireless devices operatively coupled to the network repeater , each wireless device from the plurality of wireless devices being operatively coupled to the remaining wireless devices of the plurality of wireless devices and associated with a light source from a plurality of light sources, each wireless device of the plurality of wireless devices configured to individually determine whether to operate as a local repeater in response to a calculation based at least on a random number such that at least one wireless device of the plurality of wireless devices operates as a local repeater and at least one remaining wireless device of the plurality of wireless devices operates as an end device and not a local repeater, the local repeater configured to repeat data packets at a second transmission power level associated with a second propagation distance, the second transmission power level being less than the first transmission power level, the second propagation distance being less than the first propagation distance.
A system for communicating information in a wireless communication system, the system comprising: one or more circuits of a transmitter that enable selection of a sequence of protocol data units, which are to be transmitted during an antenna selection procedure; wherein said one or more circuits of said transmitter enable reception of a failure indication during transmission of said selected sequence of protocol data units, said failure indication indicating a failure of reception of one of said protocol data units or an excessive time delay between reception of two sequential protocol data units of said protocol data units; and wherein said one or more circuits of said transmitter enable restart an antenna selection sequence of protocol data units - as part of the antenna selection procedure - from the beginning based on said failure indication, wherein said failure indication comprises a sequence index value k indicating said one of said protocol data units or a first protocol data unit of said two sequential protocol data units, wherein said one or more circuits enable restart an antenna selection sequence of protocol data units comprises said one or more circuits enable selection of a subsequent sequence of protocol data units, which are to be transmitted during said antenna selection procedure, based on said sequence index value k, and wherein said selected subsequent sequence of protocol data units is different from said selected sequence of protocol data units. one or more circuits of a transmitter that enable selection of a sequence of protocol data units, which are to be transmitted during an antenna selection procedure; wherein said one or more circuits of said transmitter enable reception of a failure indication during transmission of said selected sequence of protocol data units, said failure indication indicating a failure of reception of one of said protocol data units or an excessive time delay between reception of two sequential protocol data units of said protocol data units; and wherein said one or more circuits of said transmitter enable restart an antenna selection sequence of protocol data units - as part of the antenna selection procedure - from the beginning based on said failure indication, wherein said failure indication comprises a sequence index value k indicating said one of said protocol data units or a first protocol data unit of said two sequential protocol data units, wherein said one or more circuits enable restart an antenna selection sequence of protocol data units comprises said one or more circuits enable selection of a subsequent sequence of protocol data units, which are to be transmitted during said antenna selection procedure, based on said sequence index value k, and wherein said selected subsequent sequence of protocol data units is different from said selected sequence of protocol data units.
A wireless device comprising a communication system for cellular communication, wherein the communication system is disabled when the wireless device is in an airborne state, said wireless device further comprising logic configured to determine an elapsed time since entry of the wireless device into the airborne state, wherein the logic is further configured to: identify at least one destination by evaluating the elapsed time in relation to flight data, FD, that associates destinations with aircraft flight durations; determine, for the at least one destination, a respective configuration setting, which is associated with the at least one destination, to be applied by the communication system to establish a wireless connection to a cellular network; and operate the communication system to apply the respective configuration setting when the wireless device switches from the airborne state to a non-airborne state. identify at least one destination by evaluating the elapsed time in relation to flight data, FD, that associates destinations with aircraft flight durations; determine, for the at least one destination, a respective configuration setting, which is associated with the at least one destination, to be applied by the communication system to establish a wireless connection to a cellular network; and operate the communication system to apply the respective configuration setting when the wireless device switches from the airborne state to a non-airborne state.
Method for the preparation of polymer or co-polymer polyurethane foams with improved hydrophilia, which involves the use of a catalyst for the cross-linking reaction and a catalyst for the foaming reaction, comprising the following steps in sequence: a) providing a solution of a polyol or a mixture of polyols in a solvent or mixture of solvents, in which the solvent is a high-boiling polar aprotic solvent having a boiling point of at least 15° C higher than the softening temperature of the polyols used, i.e. the temperature at which the polyols start to change their state of aggregation from solid to liquid, and a Snyder's polarity index P greater than or equal to 5,5, the softening temperature and the Snyder's polarity index P being determined as indicated in the specification; b) heating the solution in step a) to a temperature higher than the softening temperature of said polyols; c) optionally adding an organic or inorganic filler material; d) adding to the mixture in step c) an aliphatic poly-isocyanate or a mixture of aliphatic poly- isocyanates; e) adding to the mixture in step d) a porogenic additive; f) adding to the mixture in step e) simultaneously a cross-linking catalyst of polyols with poly-isocyanates and a foaming catalyst to form a polymer or co-polymer polyurethane foam; g) isolating the polymer or co-polymer polyurethane foam produced in step f). a) providing a solution of a polyol or a mixture of polyols in a solvent or mixture of solvents, in which the solvent is a high-boiling polar aprotic solvent having a boiling point of at least 15° C higher than the softening temperature of the polyols used, i.e. the temperature at which the polyols start to change their state of aggregation from solid to liquid, and a Snyder's polarity index P greater than or equal to 5,5, the softening temperature and the Snyder's polarity index P being determined as indicated in the specification; b) heating the solution in step a) to a temperature higher than the softening temperature of said polyols; c) optionally adding an organic or inorganic filler material; d) adding to the mixture in step c) an aliphatic poly-isocyanate or a mixture of aliphatic poly- isocyanates; e) adding to the mixture in step d) a porogenic additive; f) adding to the mixture in step e) simultaneously a cross-linking catalyst of polyols with poly-isocyanates and a foaming catalyst to form a polymer or co-polymer polyurethane foam; g) isolating the polymer or co-polymer polyurethane foam produced in step f).