mhurhangee/ep-ind-claims huggingface dataset:
A bone graft material for treating osseous defects and neogenesis of bone which is a composite of a biodegradable polymer and granules of beta-tricalciumphosphate, obtained by the steps of providing an osteoinductive mixture, which is a dispersion or solution on the basis of an organic compound having at least one nitrogen-containing basic non-reactive group having a pKa value of from 2 to 14, which organic compound is both a dispersing agent and a plasticizer of the biodegradable polymer or co-polymer and can form a salt with a protein having a pKl of 4.0, and of a physiologically effective amount of active recombinant human BSP, obtained under non-denaturing conditions, where the recombinant human BSP is present in said osteoinductive mixture as a salt or complex which has reduced affinity for calcium, hydroxyapatite and complement factor H than regular human BSP present in human serum, and, optionally, a pharmaceutically acceptable excipient or carrier; providing an osteoconductive mixture on the basis of granules of tricalcium diphosphate (Ca 3 (PO 4) 2) in beta crystal form, which granules are coated with a biodegradable polymer or co-polymer and, optionally, a pharmaceutically acceptable excipient or carrier, which osteoconductive mixture is moldable and shapeable and rapidly hardening in situ when placed by surgery or prosthetic dentistry, and combining said osteoinductive and osteoconductive mixtures to obtain a bone graft material which furthers osseous repair and the healing of damage or diseased tissues and lesions. providing an osteoinductive mixture, which is a dispersion or solution on the basis of an organic compound having at least one nitrogen-containing basic non-reactive group having a pKa value of from 2 to 14, which organic compound is both a dispersing agent and a plasticizer of the biodegradable polymer or co-polymer and can form a salt with a protein having a pKl of 4.0, and of a physiologically effective amount of active recombinant human BSP, obtained under non-denaturing conditions, where the recombinant human BSP is present in said osteoinductive mixture as a salt or complex which has reduced affinity for calcium, hydroxyapatite and complement factor H than regular human BSP present in human serum, and, optionally, a pharmaceutically acceptable excipient or carrier; providing an osteoconductive mixture on the basis of granules of tricalcium diphosphate (Ca 3 (PO 4) 2) in beta crystal form, which granules are coated with a biodegradable polymer or co-polymer and, optionally, a pharmaceutically acceptable excipient or carrier, which osteoconductive mixture is moldable and shapeable and rapidly hardening in situ when placed by surgery or prosthetic dentistry, and combining said osteoinductive and osteoconductive mixtures to obtain a bone graft material which furthers osseous repair and the healing of damage or diseased tissues and lesions.
A composition comprising precursor human N-acetylgalactosamine-4-sulfatase, wherein said precursor human_N-acetylgalactosamine-4-sulfatase has a purity of at least equal to or greater than 99% based on total protein, wherein said purity is measured using the reverse-phase HPLC (RP-HPLC) method, and wherein the composition is free of detectable bands of about 47-48 kDa upon sodium dodecyl sulfate polyacrylamide gel electrophoresis (SDS-PAGE) with Coomassie stain.
A method for wireless communication performed by a station in power saving mode, the method comprising: receiving, via a first channel associated with a first access point, at least one first message including multiple sets of wake-up parameters, wherein each set of wake-up parameters is associated with one of a plurality of access points configured to communicate with the station, wherein each set of wake-up parameters includes at least one parameter that identifies a wake-up channel associated with one of the plurality of access points, wherein the plurality of access points include the first access point and at least a second access point; performing scanning on one or more wake-up channels, wherein a duration and a timing that the station stays on the one or more wake-up channels is negotiated with the first access point; and initiating communication, based on the scanning and via at least a second channel, with the second access point based on the at least one first message received via the first channel, wherein the second channel is indicated in a set of wake-up parameters for the second access point in the at least one first message. receiving, via a first channel associated with a first access point, at least one first message including multiple sets of wake-up parameters, wherein each set of wake-up parameters is associated with one of a plurality of access points configured to communicate with the station, wherein each set of wake-up parameters includes at least one parameter that identifies a wake-up channel associated with one of the plurality of access points, wherein the plurality of access points include the first access point and at least a second access point; performing scanning on one or more wake-up channels, wherein a duration and a timing that the station stays on the one or more wake-up channels is negotiated with the first access point; and initiating communication, based on the scanning and via at least a second channel, with the second access point based on the at least one first message received via the first channel, wherein the second channel is indicated in a set of wake-up parameters for the second access point in the at least one first message.
A film comprising: a release layer defining a first outer film surface; and an adhesion layer defining a second outer film surface opposite the first outer film surface, the adhesion layer comprising a hydrogenated styrene block copolymer with a styrene content in a range of 30% to 40% by weight, wherein the hydrogenated styrene block copolymer is in a range of 15% to 80% by weight of the adhesion layer and the adhesion layer further comprises 10% to 50% by weight of low density polyethylene and 10% to 35% by weight of high density polyethylene. a release layer defining a first outer film surface; and an adhesion layer defining a second outer film surface opposite the first outer film surface, the adhesion layer comprising a hydrogenated styrene block copolymer with a styrene content in a range of 30% to 40% by weight, wherein the hydrogenated styrene block copolymer is in a range of 15% to 80% by weight of the adhesion layer and the adhesion layer further comprises 10% to 50% by weight of low density polyethylene and 10% to 35% by weight of high density polyethylene.
A selective catalytic reduction catalyst composition for converting oxides of nitrogen (NO x) in an exhaust gas using a nitrogenous reductant, which catalyst composition comprising a mixture of a first component and a second component, wherein the first component is an admixture of the H-form of an aluminosilicate mordenite zeolite and an iron-promoted aluminosilicate MFI zeolite; and the second component is a vanadium oxide supported on a metal oxide support, which is titania, silica-stabilized titania or a mixture of both titania and silica-stabilized titania, wherein the metal oxide support may comprise tungsten oxide, molybdenum oxide or both tungsten oxide and molybdenum oxide, and wherein the weight ratio of the first component to the second component is 10:90 to 25:75.
An ex vivo or in vitro method for passivating a biomaterial surface, said method comprising: (a) exposing a quantity of blood or plasma to therapeutic electrical energy; and, subsequently, depositing proteinaceous material from said quantity of blood or plasma on said biomaterial surface; or (b) exposing said biomaterial surface to therapeutic electrical energy in the presence of blood or plasma; and depositing proteinaceous material at said biomaterial surface; characterised in that said proteinaceous material includes conformationally modified fibrinogen. (a) exposing a quantity of blood or plasma to therapeutic electrical energy; and, subsequently, depositing proteinaceous material from said quantity of blood or plasma on said biomaterial surface; or (b) exposing said biomaterial surface to therapeutic electrical energy in the presence of blood or plasma; and depositing proteinaceous material at said biomaterial surface;
A method for treating a feedstock that includes organic material comprising: reacting an organic feedstock in a reactor to form an effluent, the organic feedstock being part of a reaction mixture that includes sulfuric acid and nitric acid, with the sulfuric acid being added to achieve a concentration in the reaction mixture, excluding solids, of no more than approximately 5wt%, and with the nitric acid being added to achieve a concentration in the reaction mixture, excluding solids, of 0.05wt% to 5wt%; supplying oxygen gas to the reactor; maintaining a temperature in the reactor that is at least approximately 150°C and at no more than approximately 210°C; separating the effluent into a solid fraction and a liquid fraction; separating heavy metals from the liquid fraction. reacting an organic feedstock in a reactor to form an effluent, the organic feedstock being part of a reaction mixture that includes sulfuric acid and nitric acid, with the sulfuric acid being added to achieve a concentration in the reaction mixture, excluding solids, of no more than approximately 5wt%, and with the nitric acid being added to achieve a concentration in the reaction mixture, excluding solids, of 0.05wt% to 5wt%; supplying oxygen gas to the reactor; maintaining a temperature in the reactor that is at least approximately 150°C and at no more than approximately 210°C; separating the effluent into a solid fraction and a liquid fraction; separating heavy metals from the liquid fraction.
A solid pharmaceutical composition, comprising; a) lyophilized glibenclamide powder, and b) one or more substantially pharmaceutically inert compounds, wherein the composition is prepared in a liquid solution containing one or more alkali metal base(s). a) lyophilized glibenclamide powder, and b) one or more substantially pharmaceutically inert compounds,
A non-invasive ventilation system comprising: an interface comprising: at least one outer tube including a gas flow path; at least one gas delivery jet nozzle positioned in free space and aligned to deliver ventilation gas into the gas flow path, wherein the at least one gas delivery jet nozzle is spaced apart from a proximal lateral end of the at least one outer tube, wherein the at least one gas delivery jet nozzle is connected to a pressurized gas supply, wherein ventilation gas is delivered in synchrony with phases of breathing; at least one aperture in the at least one outer tube in fluid communication with ambient air, wherein the at least one gas delivery jet nozzle is disposed lateral to the at least one aperture; and at least one breath sensor. an interface comprising: at least one outer tube including a gas flow path; at least one gas delivery jet nozzle positioned in free space and aligned to deliver ventilation gas into the gas flow path, wherein the at least one gas delivery jet nozzle is spaced apart from a proximal lateral end of the at least one outer tube, wherein the at least one gas delivery jet nozzle is connected to a pressurized gas supply, wherein ventilation gas is delivered in synchrony with phases of breathing; at least one aperture in the at least one outer tube in fluid communication with ambient air, wherein the at least one gas delivery jet nozzle is disposed lateral to the at least one aperture; and at least one outer tube including a gas flow path; at least one gas delivery jet nozzle positioned in free space and aligned to deliver ventilation gas into the gas flow path, wherein the at least one gas delivery jet nozzle is spaced apart from a proximal lateral end of the at least one outer tube, wherein the at least one gas delivery jet nozzle is connected to a pressurized gas supply, wherein ventilation gas is delivered in synchrony with phases of breathing; at least one aperture in the at least one outer tube in fluid communication with ambient air, wherein the at least one gas delivery jet nozzle is disposed lateral to the at least one aperture; and at least one breath sensor.
A method of preparing a flame retardant polyisocyanurate foam filled with silica derived from mesoporous cellular foams comprising: a) combining two or more polyisocyanurate precursors to form a first mixture; b) combining the first mixture and a silica based mesoporous cellular foam, which has a pore volume greater than 2.0 cm 3 /g and a surface area of greater than 400 m 2 /g, as measured according to methods disclosed in the description, to form a second mixture; the second mixture including 0.1-10 % by weight mesoporous cellular foam and 99.9-90 % by weight polyisocyanurate precursors; c) polymerizing the second mixture and thereby generating silica particles having a pore volume of less than 0.2 cm 3 /g, as measured according to the method disclosed in the description; wherein a foaming agent is added to the first mixture, the second mixture, or both. a) combining two or more polyisocyanurate precursors to form a first mixture; b) combining the first mixture and a silica based mesoporous cellular foam, which has a pore volume greater than 2.0 cm 3 /g and a surface area of greater than 400 m 2 /g, as measured according to methods disclosed in the description, to form a second mixture; the second mixture including 0.1-10 % by weight mesoporous cellular foam and 99.9-90 % by weight polyisocyanurate precursors; c) polymerizing the second mixture and thereby generating silica particles having a pore volume of less than 0.2 cm 3 /g, as measured according to the method disclosed in the description;
Time-domain or frequency domain, in particular swept-source, optical coherence tomography system comprising: a sample light path between a source interface and a detector interface, a reference light path between the source interface and the detector interface, and a photonic integrated circuit, wherein the reference light path is at least partially separate from the sample light path, wherein the sample light path comprises a forward sample light path between the source interface and a sample interface, and a backward sample light path between the sample interface and the detector interface, wherein the forward sample light path and the backward sample light path are at least partially provided by the photonic integrated circuit, characterized in that the photonic integrated circuit comprises an integrated sample-side polarization beam splitter arranged in the forward sample light path and the backward sample light path. a sample light path between a source interface and a detector interface, a reference light path between the source interface and the detector interface, and a photonic integrated circuit, wherein the reference light path is at least partially separate from the sample light path, wherein the sample light path comprises a forward sample light path between the source interface and a sample interface, and a backward sample light path between the sample interface and the detector interface, wherein the forward sample light path and the backward sample light path are at least partially provided by the photonic integrated circuit, characterized in that the photonic integrated circuit comprises an integrated sample-side polarization beam splitter arranged in the forward sample light path and the backward sample light path.
A method for sharing functionalities between connected objects (IoT) of a connected-object infrastructure comprising at least one requesting IoT, at least one providing IoT and at least one sharing device, said method comprising: - a step of connecting the requesting IoT to the at least one sharing device, - a step of communicating between the requesting IoT and the sharing device comprising a reception by the sharing device of a request message, said request message comprising functionality data sought by the requesting IoT, said request message being able to comprise functionality data offered by the requesting IoT that sent the request message, - a step of the sharing device searching among previously stored offered functionality data for a match between the functionality data sought and the previously stored offered functionality data so as to identify a providing IoT offering the functionality sought by the requesting IoT, - a step of sending, by the sharing device and to the requesting IoT, a message comprising data about a communication protocol with the providing IoT for access to the sought functionality by the requesting IoT, and - a step of sending, by the requesting IoT, a sought functionality request message between the requesting IoT and the providing IoT according to the communication protocol. - a step of connecting the requesting IoT to the at least one sharing device, - a step of communicating between the requesting IoT and the sharing device comprising a reception by the sharing device of a request message, said request message comprising functionality data sought by the requesting IoT, said request message being able to comprise functionality data offered by the requesting IoT that sent the request message, - a step of the sharing device searching among previously stored offered functionality data for a match between the functionality data sought and the previously stored offered functionality data so as to identify a providing IoT offering the functionality sought by the requesting IoT, - a step of sending, by the sharing device and to the requesting IoT, a message comprising data about a communication protocol with the providing IoT for access to the sought functionality by the requesting IoT, and - a step of sending, by the requesting IoT, a sought functionality request message between the requesting IoT and the providing IoT according to the communication protocol.
A spiral spring in which an elongated member is wound into a spiral shape in substantially the same plane so as to have a fixed coil part serving as an end coil part and a plurality of movable coil parts being continuous with a terminal end of the fixed coil part, wherein at least a first movable coil part (20) of the plurality of movable coil parts that is in the innermost place in the radial direction does not come into contact with both the fixed coil part, which is radially adjacent on the inside, and a second movable coil part (20), which is radially adjacent on the outside, at the same place in the circumferential direction while coming into contact with only one of the fixed coil part and the second movable coil part in a plurality of places that are circumferentially displaced, when the spiral spring is in an elasticity retaining state reached from a free length state by elastic deformation in the diameter-reducing direction.
A port (40, 42) for a support surface, configured to be connected to a blower assembly within the support surface operable to draw air through the port (40, 42), the port (40, 42) comprising a housing, the housing defines a cavity and a passageway having an outer surface, wherein the housing further includes a drain surface defining a descending angle positioned in the cavity and configured to allow gravity to conduct foreign materials over the outer surface of the passageway and over the drain surface away from the cavity, a cap including a resiliently pliable flange (62, 64) received within the passageway and expanding within the housing such that the flange (62, 64) is secured to the housing by an interference fit, the cap and housing cooperating to define a tortuous path for a flow of air through the port (40, 42), and a connector, the connector having first portion for securing the connector to a conduit (44, 46) and a second portion, the second portion including a resiliently pliable flange received within the passageway and expanding within the housing such that the flange is secured to the housing by an interference fit. a housing, the housing defines a cavity and a passageway having an outer surface, wherein the housing further includes a drain surface defining a descending angle positioned in the cavity and configured to allow gravity to conduct foreign materials over the outer surface of the passageway and over the drain surface away from the cavity, a cap including a resiliently pliable flange (62, 64) received within the passageway and expanding within the housing such that the flange (62, 64) is secured to the housing by an interference fit, the cap and housing cooperating to define a tortuous path for a flow of air through the port (40, 42), and a connector, the connector having first portion for securing the connector to a conduit (44, 46) and a second portion, the second portion including a resiliently pliable flange received within the passageway and expanding within the housing such that the flange is secured to the housing by an interference fit.
A method of wireless communication for a user equipment, UE (102, 206, 350, 402, 502, 602, 902), comprising: detecting at least one interfering signal; determining properties of the at least one interfering signal, the properties including at least a type of wireless technology, wherein the type of wireless technology comprises a classification of the at least one interfering signal as being in accordance with a Wi-Fi wireless technology or a Long Term Evolution, LTE, wireless technology; and transmitting information indicating the properties of each of the at least one interfering signal to a serving evolved Node B, eNB (106, 204, 310, 418, 518, 618, 950, 1202). detecting at least one interfering signal; determining properties of the at least one interfering signal, the properties including at least a type of wireless technology, wherein the type of wireless technology comprises a classification of the at least one interfering signal as being in accordance with a Wi-Fi wireless technology or a Long Term Evolution, LTE, wireless technology; and transmitting information indicating the properties of each of the at least one interfering signal to a serving evolved Node B, eNB (106, 204, 310, 418, 518, 618, 950, 1202).