mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol generating system comprising a housing defining an airflow outlet ; a liquid aerosol-forming substrate ; an aerosol generator , configured to generate an aerosol from the liquid aerosol-forming substrate ; a perforated plate disposed between the aerosol generator and the airflow outlet , the perforated plate defining a plurality of apertures extending through the perforated plate ; and an electrode disposed between the aerosol generator and the perforated plate , wherein the perforated plate is electrically conductive, and wherein the aerosol-generating system is configured to generate an electric potential difference between the electrode and the perforated plate . a housing defining an airflow outlet ; a liquid aerosol-forming substrate ; an aerosol generator , configured to generate an aerosol from the liquid aerosol-forming substrate ; a perforated plate disposed between the aerosol generator and the airflow outlet , the perforated plate defining a plurality of apertures extending through the perforated plate ; and an electrode disposed between the aerosol generator and the perforated plate , wherein the perforated plate is electrically conductive, and wherein the aerosol-generating system is configured to generate an electric potential difference between the electrode and the perforated plate .
Device for cooling a flat product, with transport means for continuous transport of the flat product in the direction of passage (D), at least one upper nozzle body exhibiting at least one first nozzle outlet opening for applying a liquid coolant to the upper side of the flat product across its width, at least one lower nozzle body exhibiting at least one second nozzle outlet opening for applying the liquid coolant to the underside of the flat product across its width, an upper passage gap which extends across the width of the flat product and through which the liquid coolant on the upper side of the flat product can flow in the direction of passage (D) during the cooling process, the upper passage gap being delimited by an upper element , a lower passage gap which extends across the width of the flat product and through which the liquid coolant on the underside of the flat product can flow in the direction of passage (D) during the cooling process, the lower passage gap being delimited by a lower element , the upper passage gap of the first nozzle outlet opening being arranged on the upper side and the lower passage gap of the second nozzle outlet opening being arranged on the underside of the flat product in the direction of passage (D), and the upper and the lower element exhibiting grooves which are spaced apart from one another by means of webs .
A flame resistant fabric comprising: a plurality of spun yarns formed of short staple fibers having lengths of 5 cm (2 inches) or less, wherein at least some of the plurality of spun yarns comprise flame resistant fibers, characterized in that the fabric comprises a plurality of long staple yarns formed from long staple fibers having a staple length of more than 5 cm (2 inches).
A method of modifying a diatom comprising: (a) Selecting a selectable marker gene within the genome of a diatom which encodes a protein rendering a cell sensitive to a toxic substrate; (b) Providing a TALE-nuclease which specifically recognizes and cleaves a target sequence within said selectable marker gene; (c) Introducing said TALE-nuclease into diatoms such that said nuclease cleavage inactivates said selectable marker gene; (d) Culturing said diatoms with said toxic substrate and; (e) Selecting diatoms which are resistant to the toxic substrate, wherein said selectable marker gene and said toxic substrate are chosen from: - said selectable marker gene is the uridine-5'-monophosphate synthase (UMPS) gene and said toxic substrate is the 5-Fluoroorotic acid (5-FOA), and - said selectable marker gene is the nitrate reductase gene and said toxic substrate is chlorate, wherein said TALE-nuclease recognizes a target sequence selected from SEQ ID No:3 and SEQ ID No:4, or a target sequence having at least 90% identity with SEQ ID No:3 or SEQ ID No:4; and wherein said method further comprises: introducing into said diatom a polynucleotide comprising at least one homologous region to a part of said selectable marker gene such that said polynucleotide recombines with said selectable marker gene. (a) Selecting a selectable marker gene within the genome of a diatom which encodes a protein rendering a cell sensitive to a toxic substrate; (b) Providing a TALE-nuclease which specifically recognizes and cleaves a target sequence within said selectable marker gene; (c) Introducing said TALE-nuclease into diatoms such that said nuclease cleavage inactivates said selectable marker gene; (d) Culturing said diatoms with said toxic substrate and; (e) Selecting diatoms which are resistant to the toxic substrate, wherein said selectable marker gene and said toxic substrate are chosen from: - said selectable marker gene is the uridine-5'-monophosphate synthase (UMPS) gene and said toxic substrate is the 5-Fluoroorotic acid (5-FOA), and - said selectable marker gene is the nitrate reductase gene and said toxic substrate is chlorate, wherein said TALE-nuclease recognizes a target sequence selected from SEQ ID No:3 and SEQ ID No:4, or a target sequence having at least 90% identity with SEQ ID No:3 or SEQ ID No:4; and wherein said method further comprises: introducing into said diatom a polynucleotide comprising at least one homologous region to a part of said selectable marker gene such that said polynucleotide recombines with said selectable marker gene. - said selectable marker gene is the uridine-5'-monophosphate synthase (UMPS) gene and said toxic substrate is the 5-Fluoroorotic acid (5-FOA), and - said selectable marker gene is the nitrate reductase gene and said toxic substrate is chlorate,
A fusion protein comprising an IL-2 variant protein and a CD80 fragment, wherein the fusion protein consists of the following structural formula (I): N'-X-[linker ] n -Fc domain-[linker ] m -Y-C' (I) in the structural formula (I), N' is the N-terminus of the fusion protein, C' is the C-terminus of the fusion protein, X is the CD80 fragment, wherein the CD80 fragment consists of the 35 th amino acid to 242 nd amino acid in the amino acid sequence of SEQ ID NO: 11, Y is the IL-2 variant protein, wherein the IL-2 variant is obtained by substitution of at least one selected from the 38 th , 42 nd , 45 th , 61 st , and 72 nd amino acids in the amino acid sequence of SEQ ID NO: 10, the linkers and are peptide linkers, and n and m are each independently 0 or 1. N' is the N-terminus of the fusion protein, C' is the C-terminus of the fusion protein, X is the CD80 fragment, wherein the CD80 fragment consists of the 35 th amino acid to 242 nd amino acid in the amino acid sequence of SEQ ID NO: 11, Y is the IL-2 variant protein, wherein the IL-2 variant is obtained by substitution of at least one selected from the 38 th , 42 nd , 45 th , 61 st , and 72 nd amino acids in the amino acid sequence of SEQ ID NO: 10, the linkers and are peptide linkers, and n and m are each independently 0 or 1.
An appliance comprising: a cabinet having a wrapper , a liner , and a trim breaker , wherein the wrapper , the liner , and the trim breaker define an insulating cavity therebetween; an insulating material disposed within the insulating cavity ; and a frame including an upper frame portion , a vertical frame portion , and a lower frame portion , wherein the frame is at least partially disposed within the insulating cavity ; further comprising: an upper hinge mount disposed on the upper frame portion ; a lower hinge mount disposed on the lower frame portion , wherein the lower frame portion has a closed outer periphery ; and a door rotationally mounted to the cabinet via an upper hinge mounted to the upper hinge mount and a lower hinge mounted to the lower hinge mount , wherein the insulating material is configured as a vacuum insulated structure , wherein the insulating cavity is a hermetically sealed cavity, wherein the upper hinge mount and the lower hinge mount each include an attachment receptacle and wherein the attachment receptacles each maintain a fastener therein that is separated from the insulating cavity by the attachment receptacles . a cabinet having a wrapper , a liner , and a trim breaker , wherein the wrapper , the liner , and the trim breaker define an insulating cavity therebetween; an insulating material disposed within the insulating cavity ; and a frame including an upper frame portion , a vertical frame portion , and a lower frame portion , wherein the frame is at least partially disposed within the insulating cavity ; further comprising: an upper hinge mount disposed on the upper frame portion ; a lower hinge mount disposed on the lower frame portion , wherein the lower frame portion has a closed outer periphery ; and a door rotationally mounted to the cabinet via an upper hinge mounted to the upper hinge mount and a lower hinge mounted to the lower hinge mount , wherein the insulating material is configured as a vacuum insulated structure , wherein the insulating cavity is a hermetically sealed cavity, wherein the upper hinge mount and the lower hinge mount each include an attachment receptacle and wherein the attachment receptacles each maintain a fastener therein that is separated from the insulating cavity by the attachment receptacles . an upper hinge mount disposed on the upper frame portion ; a lower hinge mount disposed on the lower frame portion , wherein the lower frame portion has a closed outer periphery ; and a door rotationally mounted to the cabinet via an upper hinge mounted to the upper hinge mount and a lower hinge mounted to the lower hinge mount , wherein the insulating material is configured as a vacuum insulated structure , wherein the insulating cavity is a hermetically sealed cavity, wherein the upper hinge mount and the lower hinge mount each include an attachment receptacle and wherein the attachment receptacles each maintain a fastener therein that is separated from the insulating cavity by the attachment receptacles .
An emission treatment system for selectively reducing NOx compounds, the system comprising: a hydrogen generator; an H2-SCR catalytic article comprising a substrate and an H2-SCR catalyst composition, the hydrogen generator comprising a hydrogen injector that is in fluid communication with, and upstream of, the H2-SCR catalytic article; and a diesel oxidation catalyst (DOC) catalyst composition, the DOC catalyst composition is present in a zoned catalyst coating on the H2-SCR catalytic article with an upstream zone comprising the H2-SCR catalyst composition and a downstream zone comprising the DOC catalyst composition; wherein the hydrogen generator is selected from the group consisting of on board hydrogen, hydrogen produced from alcohol reforming, hydrogen produced from ammonia decomposition, and combinations thereof, wherein the H2-SCR catalyst composition comprises a platinum group metal component supported on a metal oxide or zeolite support, wherein the platinum group metal component is platinum, palladium, or a combination thereof, wherein zeolite support is hydrogen form of zeolite, and wherein the metal oxide is selected from the group consisting of zirconia, titania, magnesia, and combinations thereof. a hydrogen generator; an H2-SCR catalytic article comprising a substrate and an H2-SCR catalyst composition, the hydrogen generator comprising a hydrogen injector that is in fluid communication with, and upstream of, the H2-SCR catalytic article; and a diesel oxidation catalyst (DOC) catalyst composition, the DOC catalyst composition is present in a zoned catalyst coating on the H2-SCR catalytic article with an upstream zone comprising the H2-SCR catalyst composition and a downstream zone comprising the DOC catalyst composition; wherein the hydrogen generator is selected from the group consisting of on board hydrogen, hydrogen produced from alcohol reforming, hydrogen produced from ammonia decomposition, and combinations thereof, wherein the H2-SCR catalyst composition comprises a platinum group metal component supported on a metal oxide or zeolite support, wherein the platinum group metal component is platinum, palladium, or a combination thereof, wherein zeolite support is hydrogen form of zeolite, and wherein the metal oxide is selected from the group consisting of zirconia, titania, magnesia, and combinations thereof.
A masterbatch for foam molding, having a true specific gravity of 0.80 g/cm 3 or more as measured in conformity with Water Displacement Method A of JIS K 7112 and comprising: a base resin; and 40 to 300 parts by weight of a thermally expandable microcapsule relative to 100 parts by weight of the base resin, characterized in that the base resin contains an olefin elastomer, the olefin elastomer having a melting point of 50°C to 120°C and a melt index of 2 to 20 g/10 min measured according to JIS K 7210-1 at 190°C and a load of 2.16 kg. a base resin; and 40 to 300 parts by weight of a thermally expandable microcapsule relative to 100 parts by weight of the base resin, characterized in that the base resin contains an olefin elastomer, the olefin elastomer having a melting point of 50°C to 120°C and a melt index of 2 to 20 g/10 min measured according to JIS K 7210-1 at 190°C and a load of 2.16 kg.
Roller for paint rollers, comprising a roller body which can be attached to a bracket and to the circumferential surface of which a covering for receiving and transferring paint is attached, the covering being formed at least partially from a KDK yarn , characterized in that the KDK yarn has a denier weight in the range from 200 to 800 and 300 to 800 U-shaped or waveshaped turns per meter.
An operating method of an electronic device comprising multiple Subscriber Identity Module (SIM) cards, the method comprising: receiving a call to a phone number assigned to a second SIM card during a call to a phone number assigned to a first SIM card among the multiple SIM cards; checking a call forwarding order fixed between the multiple SIM cards; and forwarding the call to the second SIM card phone number, to the first SIM card phone number according to the fixed order, wherein the call forwarding order is fixed such that a SIM card for forwarding the call redirects the call to only one of the multiple SIM cards and the SIM card for receiving the forwarded call receives the forwarded call from only one of the multiple SIM cards so that every SIM card forwards the call to any one SIM card at least once and receives the forwarded call from any one SIM card at least once, and wherein the forwarding of the call to the second SIM card, to the first SIM card according to the fixed order comprises: forwarding the call to any one card which is set to a next order of the second SIM card based on the fixed order; identifying whether the SIM card receiving the forwarded call is the first SIM card; and if the SIM card receiving the forwarded call is not the first SIM card, repeating the call forwarding based on the fixed order until the SIM card receiving the forwarded call is identified as the first SIM card. receiving a call to a phone number assigned to a second SIM card during a call to a phone number assigned to a first SIM card among the multiple SIM cards; checking a call forwarding order fixed between the multiple SIM cards; and forwarding the call to the second SIM card phone number, to the first SIM card phone number according to the fixed order, wherein the call forwarding order is fixed such that a SIM card for forwarding the call redirects the call to only one of the multiple SIM cards and the SIM card for receiving the forwarded call receives the forwarded call from only one of the multiple SIM cards so that every SIM card forwards the call to any one SIM card at least once and receives the forwarded call from any one SIM card at least once, and wherein the forwarding of the call to the second SIM card, to the first SIM card according to the fixed order comprises: forwarding the call to any one card which is set to a next order of the second SIM card based on the fixed order; identifying whether the SIM card receiving the forwarded call is the first SIM card; and if the SIM card receiving the forwarded call is not the first SIM card, repeating the call forwarding based on the fixed order until the SIM card receiving the forwarded call is identified as the first SIM card. forwarding the call to any one card which is set to a next order of the second SIM card based on the fixed order; identifying whether the SIM card receiving the forwarded call is the first SIM card; and if the SIM card receiving the forwarded call is not the first SIM card, repeating the call forwarding based on the fixed order until the SIM card receiving the forwarded call is identified as the first SIM card.
A method performed by a user equipment, UE, in a communication system, the method comprising: identifying a hybrid automatic repeat request, HARQ, process identifier, ID, using a number of HARQ processes, interval information , and time information , wherein the number of HARQ processes is for a periodic resource allocation and the interval information is a periodic resource allocation interval, and wherein the time information is based on a system frame number; receiving data for the HARQ process ID as an initial transmission, based on the periodic resource allocation and the interval information; directing the received data to a corresponding HARQ process associated with the HARQ process ID. identifying a hybrid automatic repeat request, HARQ, process identifier, ID, using a number of HARQ processes, interval information , and time information , wherein the number of HARQ processes is for a periodic resource allocation and the interval information is a periodic resource allocation interval, and wherein the time information is based on a system frame number; receiving data for the HARQ process ID as an initial transmission, based on the periodic resource allocation and the interval information; directing the received data to a corresponding HARQ process associated with the HARQ process ID.
A method for manufacturing a press formed product comprising: when a metal sheet is press formed to manufacture a product having a product shape of a hat-shaped cross-section, in which a top plate part and a flange part are continuous in a width direction through a side wall part and the top plate part and the flange part curve convexly or concavely toward the top plate part along a longitudinal direction, a first step of manufacturing an intermediate component by press forming into a component shape having a hat-shaped cross-section, in which a curve of each of the top plate part and the flange part along the longitudinal direction has a second curvature radius smaller than a curvature radius in the product shape; characterized by a second step of press forming the curve of the intermediate component along the longitudinal direction to have a larger curvature radius than the product shape. when a metal sheet is press formed to manufacture a product having a product shape of a hat-shaped cross-section, in which a top plate part and a flange part are continuous in a width direction through a side wall part and the top plate part and the flange part curve convexly or concavely toward the top plate part along a longitudinal direction, a first step of manufacturing an intermediate component by press forming into a component shape having a hat-shaped cross-section, in which a curve of each of the top plate part and the flange part along the longitudinal direction has a second curvature radius smaller than a curvature radius in the product shape; characterized by a second step of press forming the curve of the intermediate component along the longitudinal direction to have a larger curvature radius than the product shape.
Method for extracting from a vertical pile a batch of stacked flat products that are not connected to one another and that form the top of said pile , to feed a storage unit of a machine equipped with a box shaper, comprising the sequence of steps consisting in - slightly separating the batch from the rest of the pile under it by using a separation means , - grasping the batch section by section using a gripping means , and - moving the batch in the direction of a storage unit of a treatment machine of the packaging or box shaper type, - the separation of the batch being carried out by initially bringing a support surface upward, against the bottom of the batch , characterized in that : - said separation means and gripping means are mounted in a frame that is designed to be mounted at the end of a robotic means , of the multi-axis robot type, - said movement of the batch being done by moving the frame using the robotic means , - the support surface coming upward and from below against the batch by traveling in a recess created by the scallopings of a plurality of products stacked under the batch . - slightly separating the batch from the rest of the pile under it by using a separation means , - grasping the batch section by section using a gripping means , and - moving the batch in the direction of a storage unit of a treatment machine of the packaging or box shaper type, - the separation of the batch being carried out by initially bringing a support surface upward, against the bottom of the batch , characterized in that : - said separation means and gripping means are mounted in a frame that is designed to be mounted at the end of a robotic means , of the multi-axis robot type, - said movement of the batch being done by moving the frame using the robotic means , - the support surface coming upward and from below against the batch by traveling in a recess created by the scallopings of a plurality of products stacked under the batch .