mhurhangee/patent-ind-claim-en huggingface dataset:
A kit for transmitting and sensing signals, the kit comprising: a multi-connection cable having a plurality of cable connectors at a distal end of said cable for establishing electrical communication between each of said cable connectors and a system for measuring bioimpedance that is connectable to a proximal end of said cable; and a plurality of devices for transmitting and sensing signals, each device comprising a non-conductive substrate adherable to a skin of a subject, a first and a second electrical contact printed on said substrate, and a disposable connector ; each disposable connector being connectable to a compatible cable connector of said cable in a manner that a combined thickness of said disposable connector and said compatible cable connector, once connected, is less than 4 mm. a multi-connection cable having a plurality of cable connectors at a distal end of said cable for establishing electrical communication between each of said cable connectors and a system for measuring bioimpedance that is connectable to a proximal end of said cable; and a plurality of devices for transmitting and sensing signals, each device comprising a non-conductive substrate adherable to a skin of a subject, a first and a second electrical contact printed on said substrate, and a disposable connector ; each disposable connector being connectable to a compatible cable connector of said cable in a manner that a combined thickness of said disposable connector and said compatible cable connector, once connected, is less than 4 mm.
A vehicle with a flat seat, the vehicle comprising: a floor portion having a leg groove (H10) recessed downward from a surface of the floor portion ; a seatback disposed on the floor portion ; a seat cushion disposed on the floor portion ahead of the seatback ; and a leg cushion disposed in the leg groove (H10) of the floor portion , and configured for covering the leg groove (H10) to form a bottom of the flat seat with the seat cushion and the floor portion when unfolded, and opening the leg groove (H10) when stowed. a floor portion having a leg groove (H10) recessed downward from a surface of the floor portion ; a seatback disposed on the floor portion ; a seat cushion disposed on the floor portion ahead of the seatback ; and a leg cushion disposed in the leg groove (H10) of the floor portion , and configured for covering the leg groove (H10) to form a bottom of the flat seat with the seat cushion and the floor portion when unfolded, and opening the leg groove (H10) when stowed.
A scale reduction system for use in aircraft water systems comprising: a housing having an inlet and an outlet that are fluidly interconnected by a recess , within the housing ; a cartridge disposed within the recess and comprising a first porous plate and a second porous plate that each include an inner and an outer face, a porous sidewall extending between the inner faces of the porous plates , the porous plates and porous sidewall defining a first inner volume of the cartridge and allowing fluid to enter and exit the cartridge ; and a first chemical composition contained within the first inner volume of the cartridge , wherein the first chemical composition is mixed with untreated inlet fluid flow to produce a chemical solution of a desired concentration to reduce scale formation. a housing having an inlet and an outlet that are fluidly interconnected by a recess , within the housing ; a cartridge disposed within the recess and comprising a first porous plate and a second porous plate that each include an inner and an outer face, a porous sidewall extending between the inner faces of the porous plates , the porous plates and porous sidewall defining a first inner volume of the cartridge and allowing fluid to enter and exit the cartridge ; and a first chemical composition contained within the first inner volume of the cartridge , wherein the first chemical composition is mixed with untreated inlet fluid flow to produce a chemical solution of a desired concentration to reduce scale formation.
A method for transmitting data, applicable to a server device, comprising: identifying a set of objects in a road environment based on collection data associated with the road environment from a server device; dividing the set of objects into subsets based on distances between the objects and the server device; for each subset, generating a data packet based on a portion of the collection data associated with objects in the subset; and transmitting the data packet to at least one client device, the at least one client device being located in a region associated with a first region where the objects in the subset are located. identifying a set of objects in a road environment based on collection data associated with the road environment from a server device; dividing the set of objects into subsets based on distances between the objects and the server device; for each subset, generating a data packet based on a portion of the collection data associated with objects in the subset; and transmitting the data packet to at least one client device, the at least one client device being located in a region associated with a first region where the objects in the subset are located.
Table system , having a tabletop held at a distance above a floor , and having an extension leaf , which is able to move between a rest position and a working position extending the tabletop , wherein • the extension leaf is mounted so as to be able to move vertically o between a raised rest position (R), in which it is located at a distance above the tabletop , o and a lowered working position (A), • and wherein the extension leaf is held on a holder , o which is able to move vertically together with the extension leaf , o and which is connected to lifting equipment that enables the ability to move vertically, • and wherein the extension leaf is releasably connected to the holder via coupling elements in such a manner that it can optionally be separated from the holder or connected thereto, characterized in that an outwardly protruding circumferential flange , on which the extension leaf is supported in its working position (A), extends deeper than the surface of the tabletop . having a tabletop held at a distance above a floor , and having an extension leaf , which is able to move between a rest position and a working position extending the tabletop , wherein • the extension leaf is mounted so as to be able to move vertically o between a raised rest position (R), in which it is located at a distance above the tabletop , o and a lowered working position (A), • and wherein the extension leaf is held on a holder , o which is able to move vertically together with the extension leaf , o and which is connected to lifting equipment that enables the ability to move vertically, • and wherein the extension leaf is releasably connected to the holder via coupling elements in such a manner that it can optionally be separated from the holder or connected thereto, • the extension leaf is mounted so as to be able to move vertically o between a raised rest position (R), in which it is located at a distance above the tabletop , o and a lowered working position (A), o between a raised rest position (R), in which it is located at a distance above the tabletop , o and a lowered working position (A), • and wherein the extension leaf is held on a holder , o which is able to move vertically together with the extension leaf , o and which is connected to lifting equipment that enables the ability to move vertically, o which is able to move vertically together with the extension leaf , o and which is connected to lifting equipment that enables the ability to move vertically, • and wherein the extension leaf is releasably connected to the holder via coupling elements in such a manner that it can optionally be separated from the holder or connected thereto, characterized in that an outwardly protruding circumferential flange , on which the extension leaf is supported in its working position (A), extends deeper than the surface of the tabletop .
A method for producing spherical iron powder, comprising steps of: (a) heating the iron oxide in a reduction furnace to a temperature of about 500°C to 1200°C and reducing the iron oxide in presence of a carbon monoxide rich gas or a hydrogen rich gas or a solid carbonaceous reducing agent or any combination thereof, for a time-period of about 60 minutes to 360 minutes to form a loosely sintered iron powder cake, (b) cooling the loosely sintered iron powder cake in the furnace to room temperature under inert atmosphere, followed by crushing, pulverizing and screening said iron powder cake to obtain the irregular iron powder, (c) burning the irregular iron powder in the presence of oxygen rich gas to generate exothermic heat to melt and convert the irregular iron particles of the irregular iron powder into the spherical iron oxide powder due to surface tension, (d) heating the spherical iron oxide powder in a reduction furnace to a temperature of about 500°C to 1200°C and reducing the spherical iron oxide powder in presence of a hydrogen rich gas, for a time-period of about 60 minutes to 300 minutes to form loosely sintered spherical iron powder cake, and (e) cooling the loosely sintered spherical iron powder cake in the furnace to room temperature under inert atmosphere, followed by crushing, pulverizing and screening said spherical iron powder cake to obtain the spherical iron powder. (a) heating the iron oxide in a reduction furnace to a temperature of about 500°C to 1200°C and reducing the iron oxide in presence of a carbon monoxide rich gas or a hydrogen rich gas or a solid carbonaceous reducing agent or any combination thereof, for a time-period of about 60 minutes to 360 minutes to form a loosely sintered iron powder cake, (b) cooling the loosely sintered iron powder cake in the furnace to room temperature under inert atmosphere, followed by crushing, pulverizing and screening said iron powder cake to obtain the irregular iron powder, (c) burning the irregular iron powder in the presence of oxygen rich gas to generate exothermic heat to melt and convert the irregular iron particles of the irregular iron powder into the spherical iron oxide powder due to surface tension, (d) heating the spherical iron oxide powder in a reduction furnace to a temperature of about 500°C to 1200°C and reducing the spherical iron oxide powder in presence of a hydrogen rich gas, for a time-period of about 60 minutes to 300 minutes to form loosely sintered spherical iron powder cake, and (e) cooling the loosely sintered spherical iron powder cake in the furnace to room temperature under inert atmosphere, followed by crushing, pulverizing and screening said spherical iron powder cake to obtain the spherical iron powder.
A bispecific antigen binding molecule, comprising (a) four Fab fragments capable of specific binding to OX40, (b) at least one moiety capable of specific binding to Fibroblast Activation Protein (FAP) comprising an antibody light chain variable region (VL) and an antibody heavy chain variable region (VH), and (c) a Fc domain composed of a first and a second subunit capable of stable association, wherein the Fc domain is of human IgG1 subclass with the amino acid mutations L234A, L235A and P329G (numbering according to Kabat EU index), and wherein each of the Fab fragments capable of specific binding to OX40 comprises a VH domain comprising CDR-H1 comprising the amino acid sequence of SEQ ID NO:2, CDR-H2 comprising the amino acid sequence of SEQ ID NO:4, CDR-H3 comprising the amino acid sequence of SEQ ID NO:7 and a VL domain comprising CDR-L1 comprising the amino acid sequence of SEQ ID NO: 13, CDR-L2 comprising the amino acid sequence of SEQ ID NO: 16 and CDR-L3 comprising the amino acid sequence of SEQ ID NO:20, and wherein a first Fab fragment capable of specific binding to OX40 is fused at the C-terminus of the CH1 domain to the VH domain of a second Fab fragment capable of specific binding to OX40 and a third Fab fragment capable of specific binding to OX40 is fused at the C-terminus of the CH1 domain to the VH domain of a fourth Fab fragment capable of specific binding to OX40, optionally via a peptide linker and wherein each two of the four Fab fragments capable of specific binding to OX40 are further fused at its C-terminus to the N-terminus of one of the subunits of the Fc domain, optionally via a peptide linker, and wherein the VH domain of the moiety capable of specific binding to FAP is connected via a peptide linker to the C-terminus of the first subunit of the Fc domain and the VL domain is connected via a peptide linker to the C-terminus of the second subunit of the Fc domain or wherein two moieties capable of specific binding to FAP are VH-VL crossover Fab fragments and are each fused at the N-terminus of the VL domain via a peptide linker to the C-terminus of one of the subunits of the Fc domain. (a) four Fab fragments capable of specific binding to OX40, (b) at least one moiety capable of specific binding to Fibroblast Activation Protein (FAP) comprising an antibody light chain variable region (VL) and an antibody heavy chain variable region (VH), and (c) a Fc domain composed of a first and a second subunit capable of stable association, wherein the Fc domain is of human IgG1 subclass with the amino acid mutations L234A, L235A and P329G (numbering according to Kabat EU index), and
A process for converting a sugar, sugar alcohol or glycerol to a polyol and/or an alcohol comprising a shorter carbon-chain backbone, the process comprising the steps of: selecting a support comprising zirconium oxide promoted by a polyacid/promotor material; impregnating the polyacid-promoted zirconium oxide support with at least one catalytically active metal; introducing the polyacid-promoted zirconium oxide supported catalyst to the sugar, sugar alcohol or glycerol under reaction conditions; providing a source of hydrogen; and converting at least 40 wt. % of the sugar, sugar alcohol or glycerol to a polyol and/or a shorter carbon-chain alcohol; wherein the polyacid/promoter material is selected from a polyacid form of chromium, molybdenum or tungsten, phosphoric acid, phosphorous acid, sulfuric acid, citric acid, polyorganic acids and combinations thereof, said polyacid being defined as having more than one multi-donor proton; and wherein the catalytically active metal is selected from the group consisting of Group 4 (Group IVA) metals, Group 10 (Group VIII) metals, Group 11 (Group IB) metals and combinations thereof, or from the group consisting of Group 10 (Group VIII) metals, Group 11 (Group IB) metals and combinations thereof. selecting a support comprising zirconium oxide promoted by a polyacid/promotor material; impregnating the polyacid-promoted zirconium oxide support with at least one catalytically active metal; introducing the polyacid-promoted zirconium oxide supported catalyst to the sugar, sugar alcohol or glycerol under reaction conditions; providing a source of hydrogen; and converting at least 40 wt. % of the sugar, sugar alcohol or glycerol to a polyol and/or a shorter carbon-chain alcohol; wherein the polyacid/promoter material is selected from a polyacid form of chromium, molybdenum or tungsten, phosphoric acid, phosphorous acid, sulfuric acid, citric acid, polyorganic acids and combinations thereof, said polyacid being defined as having more than one multi-donor proton; and wherein the catalytically active metal is selected from the group consisting of Group 4 (Group IVA) metals, Group 10 (Group VIII) metals, Group 11 (Group IB) metals and combinations thereof, or from the group consisting of Group 10 (Group VIII) metals, Group 11 (Group IB) metals and combinations thereof.
An air conditioner comprising: an air conditioning indoor unit including a casing , a heat exchanger , an expansion valve , and a fan , the casing accommodating the heat exchanger , the expansion valve , and the fan , and being configured to be installed in an air conditioning target space , the air conditioning indoor unit being a wall-mounted type, a floor type or a ceiling suspended type; an air conditioning heat source unit connected to the air conditioning indoor unit via a liquid refrigerant pipe and a gas refrigerant pipe ; and a shutoff valve device having a shutoff valve configured to be disposed in an attic space above a ceiling of the air conditioning target space , the shutoff valve including a first shutoff valve disposed in the liquid refrigerant pipe and a second shutoff valve disposed in the gas refrigerant pipe , the shutoff valve device further having a shutoff valve casing accommodating the shutoff valve , one or two opening through which the liquid refrigerant pipe connected to the first shutoff valve and/or the gas refrigerant pipe connected to the second shutoff valve extend is formed in the shutoff valve casing , and the shutoff valve device further includes a heat insulating material configured to close a gap between the opening and the liquid refrigerant pipe and a gap between the opening and the gas refrigerant pipe . an air conditioning indoor unit including a casing , a heat exchanger , an expansion valve , and a fan , the casing accommodating the heat exchanger , the expansion valve , and the fan , and being configured to be installed in an air conditioning target space , the air conditioning indoor unit being a wall-mounted type, a floor type or a ceiling suspended type; an air conditioning heat source unit connected to the air conditioning indoor unit via a liquid refrigerant pipe and a gas refrigerant pipe ; and a shutoff valve device having a shutoff valve configured to be disposed in an attic space above a ceiling of the air conditioning target space , the shutoff valve including a first shutoff valve disposed in the liquid refrigerant pipe and a second shutoff valve disposed in the gas refrigerant pipe , the shutoff valve device further having a shutoff valve casing accommodating the shutoff valve , one or two opening through which the liquid refrigerant pipe connected to the first shutoff valve and/or the gas refrigerant pipe connected to the second shutoff valve extend is formed in the shutoff valve casing , and the shutoff valve device further includes a heat insulating material configured to close a gap between the opening and the liquid refrigerant pipe and a gap between the opening and the gas refrigerant pipe .
A spring arrangement for a friction clutch , comprising a diaphragm spring mounted on a clutch cover and an additional spring , the diaphragm spring being designed to move a pressure plate and the additional spring being designed to apply an additional force to the diaphragm spring , the additional spring being arranged axially between the clutch cover and the diaphragm spring and the arrangement comprising the diaphragm spring and the additional spring having at least one discontinuous change in spring hardness, characterised in that the additional spring is spaced apart from the diaphragm spring in an end position thereof.
Fireproof and thermal insulator product , which comprises a honey-comb core infilled with Alkaline Earth Silicate (AES) material .
A nonwoven cellulose fiber fabric , in particular directly manufactured from lyocell spinning solution , wherein the fabric comprises a network of substantially endless fibers differing concerning fiber diameter so that a ratio between a largest fiber diameter and a smallest fiber diameter is more than 1.5, wherein different ones of the fibers are located at least partially in different distinguishable layers , wherein at least 80 mass percent of the fibers have an average fiber diameter in a range between 3 μm and 40 μm, and wherein at least some of the fibers are mutually aligned side-by-side at least over a portion of their length to form a superordinate fiber structure having a larger diameter than the individual fibers of the superordinate fiber structure .
Flow limiting device for a fuel shut-off valve with a flow housing which configures a channel a flow limiting element arranged in the channel , a spring which exerts a force on the flow limiting element in an opening direction of the flow limiting element , which force is directed against a force which is produced by the flow pressure and acts on the flow limiting element in the closing direction, wherein the flow limiting element in a first end position, in which the force of the spring acting on the flow limiting element is greater than the force due to the flow pressure, opens a larger flow cross-section than in a second end position, in which the force due to the flow pressure acting on the flow limiting element is greater than the force of the spring , wherein the flow cross-section in both end positions is defined by a circumferential gap arranged between the flow limiting element and the surrounding flow housing , wherein the flow cross-section between the flow limiting element and the surrounding flow housing decreases continuously in the axial direction down to a narrowest flow cross-section, characterised in that the flow cross-section increases continuously from the narrowest flow cross-section. a flow housing which configures a channel a flow limiting element arranged in the channel , a spring which exerts a force on the flow limiting element in an opening direction of the flow limiting element , which force is directed against a force which is produced by the flow pressure and acts on the flow limiting element in the closing direction, wherein the flow limiting element in a first end position, in which the force of the spring acting on the flow limiting element is greater than the force due to the flow pressure, opens a larger flow cross-section than in a second end position, in which the force due to the flow pressure acting on the flow limiting element is greater than the force of the spring , wherein the flow cross-section in both end positions is defined by a circumferential gap arranged between the flow limiting element and the surrounding flow housing , wherein the flow cross-section between the flow limiting element and the surrounding flow housing decreases continuously in the axial direction down to a narrowest flow cross-section, characterised in that the flow cross-section increases continuously from the narrowest flow cross-section.