mhurhangee/patent-ind-claim-en huggingface dataset:
An article comprising: a) an unprimed substrate, and b) grafted to the surface of the substrate a (co)polymer of the formula -(M Lig ) y -(M Hydrophil ) x -(M crosslink ) z -, where (M Lig ) y are guanidinyl ligand functional monomer units having "y" polymerized monomer units, (M Hydrophil ) x are hydrophilic monomer units having "x" polymerized monomer units, (M crosslink ) z are multifunctional (meth)acrylate monomer units having "z" polymerized monomer units, y is at least 10 parts by weight of the (M Lig ) monomer units; x is 1 to 50 parts by weight of the (M hydrophil ) monomer units; z is 0.25 to 5 parts by weight of the (M Crosslink ) monomer units, where the total is 100 parts by weight, where the guanidinyl ligand functional monomers are of the formula: or wherein R 1 is H or C 1 -C 4 alkyl; R 2 is a (hetero)hydrocarbyl group; each R 3 is independently H or hydrocarbyl; R 4 is H, C 1 -C 12 alkyl or -N(R 3 ) 2 ; R 5 is H or hydrocarbyl; X 1 is -O- or -NR 3 -; o is 0 or 1, and n is 1 or 2. a) an unprimed substrate, and b) grafted to the surface of the substrate a (co)polymer of the formula -(M Lig ) y -(M Hydrophil ) x -(M crosslink ) z -, where (M Lig ) y are guanidinyl ligand functional monomer units having "y" polymerized monomer units, (M Hydrophil ) x are hydrophilic monomer units having "x" polymerized monomer units, (M crosslink ) z are multifunctional (meth)acrylate monomer units having "z" polymerized monomer units, y is at least 10 parts by weight of the (M Lig ) monomer units; x is 1 to 50 parts by weight of the (M hydrophil ) monomer units; z is 0.25 to 5 parts by weight of the (M Crosslink ) monomer units, where the total is 100 parts by weight, where the guanidinyl ligand functional monomers are of the formula: or wherein R 1 is H or C 1 -C 4 alkyl; R 2 is a (hetero)hydrocarbyl group; each R 3 is independently H or hydrocarbyl; R 4 is H, C 1 -C 12 alkyl or -N(R 3 ) 2 ; R 5 is H or hydrocarbyl; X 1 is -O- or -NR 3 -; o is 0 or 1, and n is 1 or 2. (M Lig ) y are guanidinyl ligand functional monomer units having "y" polymerized monomer units, (M Hydrophil ) x are hydrophilic monomer units having "x" polymerized monomer units, (M crosslink ) z are multifunctional (meth)acrylate monomer units having "z" polymerized monomer units, y is at least 10 parts by weight of the (M Lig ) monomer units; x is 1 to 50 parts by weight of the (M hydrophil ) monomer units; z is 0.25 to 5 parts by weight of the (M Crosslink ) monomer units, where the total is 100 parts by weight, where the guanidinyl ligand functional monomers are of the formula: or wherein R 1 is H or C 1 -C 4 alkyl; R 2 is a (hetero)hydrocarbyl group; each R 3 is independently H or hydrocarbyl; R 4 is H, C 1 -C 12 alkyl or -N(R 3 ) 2 ; R 5 is H or hydrocarbyl; X 1 is -O- or -NR 3 -; o is 0 or 1, and n is 1 or 2. R 1 is H or C 1 -C 4 alkyl; R 2 is a (hetero)hydrocarbyl group; each R 3 is independently H or hydrocarbyl; R 4 is H, C 1 -C 12 alkyl or -N(R 3 ) 2 ; R 5 is H or hydrocarbyl; X 1 is -O- or -NR 3 -; o is 0 or 1, and n is 1 or 2.
A method for producing an electrode for hypochlorite evolution comprising at least two sequential stages (I) and (II): (I) executing the following steps a)-b) at least once over a valve metal substrate: a) apply a first active coating comprising at least one layer of a first composition, where said first composition comprises precursors of Ta and Ir having the following weight ratio referred to the elements: 20-70% Ta, 30-80% Ir, and where each layer is dried for 5-15 minutes at 45-75°C and subsequently baked for 5-15 minutes at 480 -530°C; b) apply a second active coating comprising at least one layer of a second composition over said first active coating, where said second composition comprises precursors of Ru and Ti having the following weight ratio referred to the elements: 20-50% Ru, 50-80% Ti, and where each layer is dried for 5-15 minutes at 45-75°C and subsequently baked for 5-15 minutes at 480 - 530°C; (II) executing step a) over the electrode resulting from stage (I), and optionally performing a postbake at 480-530 °C for 1-6 hours. (I) executing the following steps a)-b) at least once over a valve metal substrate: a) apply a first active coating comprising at least one layer of a first composition, where said first composition comprises precursors of Ta and Ir having the following weight ratio referred to the elements: 20-70% Ta, 30-80% Ir, and where each layer is dried for 5-15 minutes at 45-75°C and subsequently baked for 5-15 minutes at 480 -530°C; b) apply a second active coating comprising at least one layer of a second composition over said first active coating, where said second composition comprises precursors of Ru and Ti having the following weight ratio referred to the elements: 20-50% Ru, 50-80% Ti, and where each layer is dried for 5-15 minutes at 45-75°C and subsequently baked for 5-15 minutes at 480 - 530°C; a) apply a first active coating comprising at least one layer of a first composition, where said first composition comprises precursors of Ta and Ir having the following weight ratio referred to the elements: 20-70% Ta, 30-80% Ir, and where each layer is dried for 5-15 minutes at 45-75°C and subsequently baked for 5-15 minutes at 480 -530°C; b) apply a second active coating comprising at least one layer of a second composition over said first active coating, where said second composition comprises precursors of Ru and Ti having the following weight ratio referred to the elements: 20-50% Ru, 50-80% Ti, and where each layer is dried for 5-15 minutes at 45-75°C and subsequently baked for 5-15 minutes at 480 - 530°C; (II) executing step a) over the electrode resulting from stage (I), and optionally performing a postbake at 480-530 °C for 1-6 hours.
A cabinet for installation in an aircraft , the cabinet having a plurality of visible surfaces configured to be apparent when the cabinet is installed in the aircraft, the cabinet comprising: a shell defining a load-bearing structure of the cabinet ; and an outer panel detachably connected to the shell for defining at least a part of the visible surfaces of the cabinet; wherein the outer panel is configured to be detachably connected to the shell in a stationary position relative to the shell through engagement of complementary attachment members respectively attached to the outer panel and to the shell , the complementary attachment members allowing an adjustment of the stationary position of the outer panel relative to the shell when the outer panel is detached from the shell characterized in that the complementary attachment members include: a first attachment member having a portion adjustable relative to the outer panel or to the shell ; and a second attachment member detachably engaged to the portion of the first attachment member; wherein the portion of the first attachment member comprises an adjustable position with respect to the shell , and the second attachment member being connected to the outer panel with a fixed position relative thereto. a shell defining a load-bearing structure of the cabinet ; and an outer panel detachably connected to the shell for defining at least a part of the visible surfaces of the cabinet; wherein the outer panel is configured to be detachably connected to the shell in a stationary position relative to the shell through engagement of complementary attachment members respectively attached to the outer panel and to the shell , the complementary attachment members allowing an adjustment of the stationary position of the outer panel relative to the shell when the outer panel is detached from the shell characterized in that the complementary attachment members include: a first attachment member having a portion adjustable relative to the outer panel or to the shell ; and a second attachment member detachably engaged to the portion of the first attachment member; wherein the portion of the first attachment member comprises an adjustable position with respect to the shell , and the second attachment member being connected to the outer panel with a fixed position relative thereto. a first attachment member having a portion adjustable relative to the outer panel or to the shell ; and a second attachment member detachably engaged to the portion of the first attachment member; wherein the portion of the first attachment member comprises an adjustable position with respect to the shell , and the second attachment member being connected to the outer panel with a fixed position relative thereto.
A pharmaceutical composition comprising a monoclonal antibody or a fragment thereof, wherein the antibody or fragment thereof specifically binds to CD19 and comprises ● a VH domain comprising: ■ CDR1 of sequence SEQ ID NO: 5; ■ CDR2 of sequence SEQ ID NO: 6; and ■ CDR3 of sequence SEQ ID NO: 7; and ● a VL domain comprising: ■ CDR1 of sequence SEQ ID NO: 8; ■ CDR2 of sequence SEQ ID NO: 9; and ■ CDR3 of sequence SEQ ID NO: 10, wherein the numbering of the amino acid residues is according to IMGT, and a physiologically acceptable vehicle or excipient. wherein the antibody or fragment thereof specifically binds to CD19 and comprises ● a VH domain comprising: ■ CDR1 of sequence SEQ ID NO: 5; ■ CDR2 of sequence SEQ ID NO: 6; and ■ CDR3 of sequence SEQ ID NO: 7; and ● a VL domain comprising: ■ CDR1 of sequence SEQ ID NO: 8; ■ CDR2 of sequence SEQ ID NO: 9; and ■ CDR3 of sequence SEQ ID NO: 10, ● a VH domain comprising: ■ CDR1 of sequence SEQ ID NO: 5; ■ CDR2 of sequence SEQ ID NO: 6; and ■ CDR3 of sequence SEQ ID NO: 7; and ■ CDR1 of sequence SEQ ID NO: 5; ■ CDR2 of sequence SEQ ID NO: 6; and ■ CDR3 of sequence SEQ ID NO: 7; and ● a VL domain comprising: ■ CDR1 of sequence SEQ ID NO: 8; ■ CDR2 of sequence SEQ ID NO: 9; and ■ CDR3 of sequence SEQ ID NO: 10, ■ CDR1 of sequence SEQ ID NO: 8; ■ CDR2 of sequence SEQ ID NO: 9; and ■ CDR3 of sequence SEQ ID NO: 10, wherein the numbering of the amino acid residues is according to IMGT, and a physiologically acceptable vehicle or excipient.
A fastener for attaching two or more panels (S1, S2), each of the panels (S1, S2) having a fastener-receiving hole (H1, H2), the fastener comprising: a metal clip comprising a body having opposed and curved panel engagement features extending therefrom, an insertion stop plate spaced apart from said engagement features and polymerized insert locking tabs extending from said stop plate ; and a polymerized insert comprising a head and a leg extending from said head , said insert further including flexible arms extending from said head for engaging said polymerized insert locking tabs of said metal clip , said insert being movable relative to said clip between a first, pre-insertion position for insertion of said fastener into the fastener-receiving holes (H1, H2), and a second, locked position for locking the panels (S1, S2) together; wherein the metal clip is U-shaped and comprises two sides joined by a connector , each of said sides including a pair of said panel engagement features . a metal clip comprising a body having opposed and curved panel engagement features extending therefrom, an insertion stop plate spaced apart from said engagement features and polymerized insert locking tabs extending from said stop plate ; and a polymerized insert comprising a head and a leg extending from said head , said insert further including flexible arms extending from said head for engaging said polymerized insert locking tabs of said metal clip , said insert being movable relative to said clip between a first, pre-insertion position for insertion of said fastener into the fastener-receiving holes (H1, H2), and a second, locked position for locking the panels (S1, S2) together; wherein the metal clip is U-shaped and comprises two sides joined by a connector , each of said sides including a pair of said panel engagement features .
Sequential combustor assembly comprising: • a first-stage combustor comprising at least one first burner fed with at least one first fuel and configured to generate, in use, at least one first flame ; • a second-stage combustor arranged downstream the first-stage combustor and fed by the hot gas leaving the first-stage combustor ; the second-stage combustor comprising at least one second burner fed with at least one second fuel and being configured to generate, in use, a second flame ; • an air supply circuit comprising: - a first line configured to supply air to the at least one first burner of the first-stage combustor ; - a second line configured to supply air downstream the at least one first flame and upstream the second-stage combustor ; - an adjusting device configured to adjust a first air flow rate in the first line and a second air flow rate in the second line so as to control the ratio between the first air flow rate and the second air flow rate and obtain a desired air ratio; the combustor being characterized by comprising a control device configured to set the desired ratio between the first air flow rate and the second air flow rate so as to obtain a desired temperature of the gas at the inlet of the second-stage combustor on the basis of the kind of first fuel and second fuel and on the basis of the operating conditions of the sequential combustor assembly . • a first-stage combustor comprising at least one first burner fed with at least one first fuel and configured to generate, in use, at least one first flame ; • a second-stage combustor arranged downstream the first-stage combustor and fed by the hot gas leaving the first-stage combustor ; the second-stage combustor comprising at least one second burner fed with at least one second fuel and being configured to generate, in use, a second flame ; • an air supply circuit comprising: - a first line configured to supply air to the at least one first burner of the first-stage combustor ; - a second line configured to supply air downstream the at least one first flame and upstream the second-stage combustor ; - an adjusting device configured to adjust a first air flow rate in the first line and a second air flow rate in the second line so as to control the ratio between the first air flow rate and the second air flow rate and obtain a desired air ratio; - a first line configured to supply air to the at least one first burner of the first-stage combustor ; - a second line configured to supply air downstream the at least one first flame and upstream the second-stage combustor ; - an adjusting device configured to adjust a first air flow rate in the first line and a second air flow rate in the second line so as to control the ratio between the first air flow rate and the second air flow rate and obtain a desired air ratio;
An intra-annular hemispherical mounting frame for a native aortic valve having native aortic cusps, the frame , comprising: a plurality of curvatures , each of the curvatures being curved in a first latitudinal plane and curved in a second longitudinal plane with the center of each of the curvatures below the ends of each of the curvatures, with each curvature corresponding to the valve's three-dimensional geometry about a cusp of the valve; and a plurality of points interconnecting the ends of each of the curvatures to form an interior area with each point corresponding to a valve's three-dimensional geometry about a commissure of the valve; a plurality of posts , each post extending from each of the points, characterised in that each post angles outwardly away from an interior area of the frame. a plurality of curvatures , each of the curvatures being curved in a first latitudinal plane and curved in a second longitudinal plane with the center of each of the curvatures below the ends of each of the curvatures, with each curvature corresponding to the valve's three-dimensional geometry about a cusp of the valve; and a plurality of points interconnecting the ends of each of the curvatures to form an interior area with each point corresponding to a valve's three-dimensional geometry about a commissure of the valve; a plurality of posts , each post extending from each of the points, characterised in that each post angles outwardly away from an interior area of the frame.
An electrode assembly comprising: an electrode stack in which a plurality of first electrodes spaced apart from each other are disposed between two separators ; and second electrodes attached to both outer surfaces of the electrode stack at alternate positions of a plurality of positions on which the first electrodes are disposed, characterized in that the second electrode , the separator , the first electrode , the separator and the second electrode are sequentially stacked at one position, the separator , the first electrode and the separator are stacked at the adjacent position, in the electrode stack , an area between the first electrode and the adjacent first electrode is to be folded, the electrode stack comprises a plurality of folding parts that are portions to be folded, the folding part and the adjacent folding part are adapted to be folded in directions opposite to each other in a zigzag manner, and the first electrodes have the same size which is greater than that of the second electrodes . an electrode stack in which a plurality of first electrodes spaced apart from each other are disposed between two separators ; and second electrodes attached to both outer surfaces of the electrode stack at alternate positions of a plurality of positions on which the first electrodes are disposed, characterized in that the second electrode , the separator , the first electrode , the separator and the second electrode are sequentially stacked at one position, the separator , the first electrode and the separator are stacked at the adjacent position, in the electrode stack , an area between the first electrode and the adjacent first electrode is to be folded, the electrode stack comprises a plurality of folding parts that are portions to be folded, the folding part and the adjacent folding part are adapted to be folded in directions opposite to each other in a zigzag manner, and the first electrodes have the same size which is greater than that of the second electrodes .
A method for producing a template for epitaxial growth, comprising: processing a surface of a sapphire substrate to form recesses and protrusions on the surface so that protrusion tops are made flat and have a given plan-view pattern; epitaxially growing an initial-stage AlN layer on the surface of the sapphire substrate having the recesses and protrusions by performing C axis orientation control, wherein on flat surfaces of the protrusion tops excluding edges the initial-stage AlN layer has a C+ axis orientation and shows Al polar face and wherein portions of the initial-stage AlN layer deposited in the recesses form new recesses over the recesses ; epitaxially growing a first epitaxial lateral overgrowth, ELO, layer including an AlN layer with a C+-axis orientation and showing Al polar face, on the initial-stage AlN layer by an epitaxial lateral overgrowth method; stopping the first ELO layer from growing before a recess upper region above the new recesses is completely covered with the first ELO layer that is laterally grown from a protrusion upper surface of the initial-stage AlN layer , and then epitaxially growing a second epitaxial lateral overgrowth, ELO, layer including an Al x Ga 1-x N layer (1 > x > 0) with a C+-axis orientation and showing Al polar face, on the first ELO layer by an epitaxial lateral overgrowth method; and covering the recess upper region completely with the second ELO layer that is laterally grown from an upper surface of the first ELO layer . processing a surface of a sapphire substrate to form recesses and protrusions on the surface so that protrusion tops are made flat and have a given plan-view pattern; epitaxially growing an initial-stage AlN layer on the surface of the sapphire substrate having the recesses and protrusions by performing C axis orientation control, wherein on flat surfaces of the protrusion tops excluding edges the initial-stage AlN layer has a C+ axis orientation and shows Al polar face and wherein portions of the initial-stage AlN layer deposited in the recesses form new recesses over the recesses ; epitaxially growing a first epitaxial lateral overgrowth, ELO, layer including an AlN layer with a C+-axis orientation and showing Al polar face, on the initial-stage AlN layer by an epitaxial lateral overgrowth method; stopping the first ELO layer from growing before a recess upper region above the new recesses is completely covered with the first ELO layer that is laterally grown from a protrusion upper surface of the initial-stage AlN layer , and then epitaxially growing a second epitaxial lateral overgrowth, ELO, layer including an Al x Ga 1-x N layer (1 > x > 0) with a C+-axis orientation and showing Al polar face, on the first ELO layer by an epitaxial lateral overgrowth method; and covering the recess upper region completely with the second ELO layer that is laterally grown from an upper surface of the first ELO layer .
A data transmission method, comprising: sending (S101, S405), by a macro base station, a configuration request message to an access node, wherein the configuration request message comprises a bearer configuration parameter that carries a radio bearer, RB, identifier, wherein the bearer configuration parameter comprises a General Packet Radio Service, GPRS, Tunneling Protocol, GTP, tunnel parameter, wherein the GTP tunnel parameter is a parameter of a GTP tunnel established by the macro base station for each bearer between the macro base station and the access node, and the GTP tunnel is used to carry data transmitted between the macro base station and the access node, and the GTP tunnel parameter is used to identify an address of each GTP tunnel on the macro base station side; receiving (S102, S407), by the macro base station, a configuration success message from the access node, wherein the configuration success message carries at least physical layer parameter configuration information that is configured by the access node for a user equipment; and sending (S103, S408), by the macro base station, a reconfiguration message to the user equipment, wherein the reconfiguration message comprises at least an identifier of an RB and/or a logical channel that is reconfigured to transmit on the access node and the physical layer parameter configuration information of the access node. sending (S101, S405), by a macro base station, a configuration request message to an access node, wherein the configuration request message comprises a bearer configuration parameter that carries a radio bearer, RB, identifier, wherein the bearer configuration parameter comprises a General Packet Radio Service, GPRS, Tunneling Protocol, GTP, tunnel parameter, wherein the GTP tunnel parameter is a parameter of a GTP tunnel established by the macro base station for each bearer between the macro base station and the access node, and the GTP tunnel is used to carry data transmitted between the macro base station and the access node, and the GTP tunnel parameter is used to identify an address of each GTP tunnel on the macro base station side; receiving (S102, S407), by the macro base station, a configuration success message from the access node, wherein the configuration success message carries at least physical layer parameter configuration information that is configured by the access node for a user equipment; and sending (S103, S408), by the macro base station, a reconfiguration message to the user equipment, wherein the reconfiguration message comprises at least an identifier of an RB and/or a logical channel that is reconfigured to transmit on the access node and the physical layer parameter configuration information of the access node.